Curriculum Standards: Determine the conditions under which real gases are most likely to differ from ideal gases. - CHEM12_C14.3.2 Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. - CHEM12_C14.3.1 Explain how ions form. - CHEM12_C06.3.2 Describe trends among elements for atomic size. - CHEM12_C06.3.1 Describe periodic trends for first ionization energy, ionic size, and electronegativity. - CHEM12_C06.3.3 Identify two types of stereoisomers. - CHEM12_C22.3.2 Explain how the properties of constitutional isomers differ. - CHEM12_C22.3.1 Explain how anions form. - CHEM12_C07.1.4 Describe how cations form. - CHEM12_C07.1.3 Identify the atoms of elements that tend to lose and tend to gain electrons. - CHEM12_C07.1.2 Understand scientific notation. - CHEM12_MD2.3 Understand significant figures. - CHEM12_MD2.2 Understand ratios, rates, and proportions. - CHEM12_MD2.1 Describe some practical uses of radioisotopes. - CHEM12_C25.4.2 Compare three devices that are used to detect radiation. - CHEM12_C25.4.1 Write numbers in scientific notation. - CHEM12_C03.1.1 Explain why measurements must be reported to the correct number of significant figures. - CHEM12_C03.1.3 Evaluate accuracy and precision. - CHEM12_C03.1.2 Identify two ways that you can determine the heat of reaction when it cannot be directly measured. - CHEM12_C17.4.1 List the general guidelines that can help you write the name and formula of a chemical compound. - CHEM12_C09.5.2 Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. - CHEM12_C09.5.1 Describe the function of ATP in the cell. - CHEM12_C24.6.1 Describe the five general types of reactions. - CHEM12_C11.2.1 Predict the products of the five general types of reactions. - CHEM12_C11.2.2 Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. - CHEM12_C15.1.1 Distinguish between a substance and a mixture. - CHEM12_C02.3.2 Describe the structure of ice. - CHEM12_C15.1.2 Explain the difference between an element and a compound. - CHEM12_C02.3.1 Explain how a periodic table is useful. - CHEM12_C02.3.4 Describe what chemists use to represent elements and compounds. - CHEM12_C02.3.3 Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. - CHEM12_C18.2.1 Describe how most reactions progress from start to finish. - CHEM12_C18.2.2 List the types of information that can be displayed in a periodic table. - CHEM12_C06.2.1 Relate the total pressure of a mixture of gases to the partial pressures of the component gases. - CHEM12_C14.4.1 Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. - CHEM12_C14.4.2 Describe how to express the rate of a chemical reaction. - CHEM12_C18.1.1 Describe bonding in a benzene ring. - CHEM12_C22.4.2 Identify the general structure of a cyclic hydrocarbon. - CHEM12_C22.4.1 Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. - CHEM12_C24.6.3 Describe three properties of ionic compounds. - CHEM12_C07.2.2 Describe what happens to biological molecules and energy during catabolism and anabolism. - CHEM12_C24.6.2 Explain the electrical charge of an ionic compound. - CHEM12_C07.2.1 Understand measurements and conversions. - CHEM12_MD1.3 Understand integers and absolute values. - CHEM12_MD1.2 Multiply and divide fractions. - CHEM12_MD1.1 Describe what happens in a nuclear chain reaction. - CHEM12_C25.3.1 Distinguish fission reactions from fusion reactions. - CHEM12_C25.3.3 Describe what happens to spent fuel rods. - CHEM12_C25.3.2 Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. - CHEM12_C17.3.1 Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. - CHEM12_C17.3.2 Describe thermochemical changes that occur when a solution forms. - CHEM12_C17.3.3 Identify the number of bases of DNA required to specify one amino acid in a peptide chain. - CHEM12_C24.5.2 Describe how to write a skeleton equation. - CHEM12_C11.1.1 Determine the number of valence electrons in an atom of a representative element. - CHEM12_C07.1.1 Identify the functions of DNA and RNA. - CHEM12_C24.5.1 Describe the steps for writing and balancing a chemical equation. - CHEM12_C11.1.2 Identify the types of substances that dissolve most readily in water. - CHEM12_C15.2.1 Explain how mixtures can be separated. - CHEM12_C02.2.2 Explain why all ionic compounds are electrolytes. - CHEM12_C15.2.2 Explain why hydrates easily lose and regain water. - CHEM12_C15.2.3 Explain how mixtures are classified. - CHEM12_C02.2.1 Identify four factors that influence the rate of a chemical reaction. - CHEM12_C18.1.2 Calculate the percent by mass of an element in a compound. - CHEM12_C10.3.1 Distinguish between empirical and molecular formulas. - CHEM12_C10.3.3 Calculate the empirical formula of a compound. - CHEM12_C10.3.2 Describe the steps for solving nonnumeric problems. - CHEM12_C01.4.3 Describe the steps for solving numeric problems. - CHEM12_C01.4.2 Describe the three factors that affect gas pressure. - CHEM12_C14.1.2 Identify the general approach to solving a problem. - CHEM12_C01.4.1 Explain why gases are easier to compress than solids or liquids. - CHEM12_C14.1.1 Describe how [H+] and [OH+] are related in an aqueous solution. - CHEM12_C19.2.1 Classify a solution as neutral, acidic, or basic using pH. - CHEM12_C19.2.2 Identify two methods that are used to measure pH. - CHEM12_C19.2.3 Classify coal. - CHEM12_C22.5.3 Describe the first step in the refining of petroleum. - CHEM12_C22.5.2 Graph linear and nonlinear functions. - CHEM12_MD4.2 Identify the hydrocarbons found in natural gas. - CHEM12_C22.5.1 Describe how the structure and properties of solids are related. - CHEM12_C13.3.1 Identify the factors that determine the shape of a crystal. - CHEM12_C13.3.2 Explain the importance of alloys. - CHEM12_C07.3.3 Describe the arrangement of atoms in a metal. - CHEM12_C07.3.2 What are two examples of DNA technologies used today? - CHEM12_C24.5.4 Model the valence electrons of metal atoms. - CHEM12_C07.3.1 Define gene mutations. - CHEM12_C24.5.3 Understand slope and rate of change. - CHEM12_MD4.1 Identify instruments used to observe individual atoms. - CHEM12_C04.1.2 Explain how Democritus and John Dalton described atoms. - CHEM12_C04.1.1 Solve problems that involve half-life. - CHEM12_C25.2.2 Identify factors that determine the type of decay a radioisotope undergoes. - CHEM12_C25.2.1 Identify two ways transmutations can occur. - CHEM12_C25.2.3 Describe the representative units that define molecular compounds and ionic compounds. - CHEM12_C08.1.2 Identify the information a molecular formula provides. - CHEM12_C08.1.1 Describe the kinds of problems that can be easily solved using dimensional analysis. - CHEM12_C03.3.2 Explain what happens when a measurement is multiplied by a conversion factor. - CHEM12_C03.3.1 Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. - CHEM12_C20.1.1 Explain how the presence of salts and acids accelerates the corrosion of metals. - CHEM12_C20.1.2 Identify the physical property that distinguishes lipids from other biological molecules. - CHEM12_C24.4.1 Describe the relationship between the solubility product constant and the solubility of a compound. - CHEM12_C18.4.1 Predict whether a precipitation will occur when two solutions are mixed. - CHEM12_C18.4.2 Convert the volume of a gas at STP to the number of moles of the gas. - CHEM12_C10.2.2 Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. - CHEM12_C10.2.1 Describe the relationships among pressure, volume, and temperature of a gas. - CHEM12_C14.2.1 Define an acid and a base according to Arrhenius. - CHEM12_C19.1.1 Distinguish an acid from a base in the BrÌünsted-Lowry theory. - CHEM12_C19.1.2 Define an acid and a base according to Lewis. - CHEM12_C19.1.3 Identify the conditions necessary for sublimation. - CHEM12_C13.4.1 Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. - CHEM12_C13.4.2 Solve multi-step equations. - CHEM12_MD3.1 Explain the relationship between unstable isotopes and radioactivity. - CHEM12_C25.1.1 Describe three main types of nuclear radiation. - CHEM12_C25.1.2 Explain the result of electron sharing in covalent bonds. - CHEM12_C08.2.1 Identify some exceptions to the octet rule. - CHEM12_C08.2.3 Define oxidation and reduction in terms of a change in oxidation number. - CHEM12_C20.2.2 Describe how coordinate covalent bonds are different from other covalent bonds. - CHEM12_C08.2.2 Describe how resonance structures are used. - CHEM12_C08.2.5 Explain how the strength of a covalent bond is related to its bond dissociation energy. - CHEM12_C08.2.4 Calculate the density of a substance. - CHEM12_C03.2.3 Identify the temperature units scientists commonly use. - CHEM12_C03.2.2 Explain why metric units are easy to use. - CHEM12_C03.2.1 Describe how enzymes affect the rates of reactions in living things. - CHEM12_C24.3.3 State the general rule for assigning oxidation numbers. - CHEM12_C20.2.1 Identify what determines the differences in the chemical and physiological properties of peptides and proteins. - CHEM12_C24.3.2 Diagram the general structure of an amino acid. - CHEM12_C24.3.1 Describe what happens during a chemical change. - CHEM12_C02.4.1 Convert among the count, mass, and volume of something. - CHEM12_C10.1.1 Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. - CHEM12_C02.4.3 Identify four possible clues that a chemical change has taken place. - CHEM12_C02.4.2 Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. - CHEM12_C18.3.2 Describe what the size of an equilibrium constant indicates about a system at equilibrium. - CHEM12_C18.3.3 Describe what happens at the molecular level in a chemical system at equilibrium. - CHEM12_C18.3.1 Determine the molar mass of an element and of a compound. - CHEM12_C10.1.3 Explain how chemists count the number of atoms, molecules, or formula units in a substance. - CHEM12_C10.1.2 Identify the point in a titration when neutralization will occur. - CHEM12_C19.4.2 Identify some outcomes of modern research in chemistry. - CHEM12_C01.2.2 Identify three general reasons to study chemistry. - CHEM12_C01.2.1 Identify the products that form when an acid and a base react. - CHEM12_C19.4.1 Explain how sublevels of principal energy levels differ. - CHEM12_C05.1.3 Describe what the quantum mechanical model determines about the electrons in an atom. - CHEM12_C05.1.2 Describe what Bohr proposed in his model of the atom. - CHEM12_C05.1.1 Describe the three assumptions of the kinetic theory as it applies to gases. - CHEM12_C13.1.1 Interpret gas pressure in terms of kinetic theory. - CHEM12_C13.1.2 Define the relationship between the temperature in kelvins and the average kinetic energy of particles. - CHEM12_C13.1.3 Describe how a voltaic cell produces electrical energy. - CHEM12_C21.1.2 Identify the current applications that use electrochemical processes to produce electrical energy. - CHEM12_C21.1.3 Explain how isotopes of an element differ. - CHEM12_C04.3.2 Explain what makes one element different from another. - CHEM12_C04.3.1 Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. - CHEM12_C12.3.1 Explain what the percent yield of a reaction measures. - CHEM12_C12.3.2 Identify the type of chemical reaction that is involved in all electrochemical processes. - CHEM12_C21.1.1 Describe how VSEPR theory helps predict the shapes of molecules. - CHEM12_C08.3.2 Identify the two classes of chemical reactions. - CHEM12_C20.3.1 Describe the relationship between atomic and molecular orbitals. - CHEM12_C08.3.1 Describe two different methods for balancing a redox equation. - CHEM12_C20.3.2 Identify the ways in which orbital hybridization is useful in describing molecules. - CHEM12_C08.3.3 Explain how colligative properties can be explained on a particle basis. - CHEM12_C16.3.1 Construct the general formula for carbohydrates. - CHEM12_C24.2.1 Explain how polyatomic ions differ from and are similar to monatomic ions. - CHEM12_C09.1.2 Explain how to determine the charges of monatomic ions. - CHEM12_C09.1.1 Describe how condensation polymers are formed. - CHEM12_C23.4.2 Describe how addition polymers are formed. - CHEM12_C23.4.1 Explain the role collaboration and communication play in science. - CHEM12_C01.3.3 Identify three steps in the scientific method. - CHEM12_C01.3.2 Describe how Lavoisier transformed chemistry. - CHEM12_C01.3.1 Describe how acids and bases are classified as either strong or weak. - CHEM12_C19.3.1 Identify the factors that determine physical properties of a liquid. - CHEM12_C13.2.1 Define evaporation in terms of kinetic energy. - CHEM12_C13.2.2 Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. - CHEM12_C13.2.3 Identify the conditions under which boiling occurs. - CHEM12_C13.2.4 Identify what causes the electrical potential of an electrochemical cell. - CHEM12_C21.2.1 Determine the standard reduction potential of a half-cell. - CHEM12_C21.2.2 Determine if a redox reaction is spontaneous or nonspontaneous. - CHEM12_C21.2.3 Identify three types of subatomic particles. - CHEM12_C04.2.1 Describe the structure of atoms according to the Rutherford model. - CHEM12_C04.2.2 Identify the two ways of expressing the ratio of solute to solvent in a solution. - CHEM12_C16.4.1 Describe how the freezing-point depression and boiling-point elevation are related to molality. - CHEM12_C16.4.2 Describe how electronegativity values determine the charge distribution in a polar molecule. - CHEM12_C08.4.1 Explain why the properties of covalent compounds are so diverse. - CHEM12_C08.4.3 Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. - CHEM12_C08.4.2 Identify the compound that is reduced during photosynthesis and the compounds formed. - CHEM12_C24.1.2 Calculate the atomic mass of an element. - CHEM12_C04.3.3 Identify the two major cell types that occur in nature. - CHEM12_C24.1.1 Apply the rules for naming and writing formulas for compounds with polyatomic ions. - CHEM12_C09.2.2 Apply the rules for naming and writing formulas for binary ionic compounds. - CHEM12_C09.2.1 Describe how the value of ‰ö G is related to the spontaneity of a reaction. - CHEM12_C18.5.4 Identify the part entropy plays in a chemical reaction. - CHEM12_C18.5.2 Identify the two factors that determine whether a reaction is spontaneous. - CHEM12_C18.5.3 Identify the two characteristics of spontaneous reactions. - CHEM12_C18.5.1 Explain why dehydrogenation is classified as an oxidation reaction. - CHEM12_C23.3.3 Identify the general formula of a carboxylic acid. - CHEM12_C23.3.2 Identify the general formula of an ester. - CHEM12_C23.3.4 Identify the structural characteristic that an aldehyde and a ketone share. - CHEM12_C23.3.1 Identify three broad classes of elements. - CHEM12_C06.1.4 Describe how the modern periodic table is organized. - CHEM12_C06.1.3 Explain what causes atomic emission spectra. - CHEM12_C05.3.1 Explain why a carbon atom forms four covalent bonds. - CHEM12_C22.1.1 Identify two possible arrangements of carbon atoms in an alkane. - CHEM12_C22.1.2 Distinguish between electrolytic and voltaic cells. - CHEM12_C21.3.1 Describe some applications that use electrolytic cells. - CHEM12_C21.3.2 Describe how you measure the change in enthalpy of a reaction. - CHEM12_C17.2.1 Describe the quantities you can use to interpret a balanced chemical equation. - CHEM12_C12.1.2 Identify the questions that are always conserved in chemical reactions. - CHEM12_C12.1.3 Describe how chemists use balanced chemical equations. - CHEM12_C12.1.1 Describe the equilibrium in a saturated solution. - CHEM12_C16.1.2 Describe the factors that affect the solubility of a substance. - CHEM12_C16.1.3 Identify the factors that affect how fast a substance dissolves. - CHEM12_C16.1.1 Describe how you express the enthalpy change for a reaction in a chemical equation. - CHEM12_C17.2.2 Apply the rules for naming and writing formulas for binary molecular compounds. - CHEM12_C09.3.1 Classify physical changes. - CHEM12_C02.1.3 Distinguish between a suspension and a solution. - CHEM12_C15.3.1 Identify how to distinguish a colloid from a suspension and a solution. - CHEM12_C15.3.2 Identify the three states of matter. - CHEM12_C02.1.2 Explain why all samples of a substance have the same intensive properties. - CHEM12_C02.1.1 Identify the general formula of an amine. - CHEM12_C23.2.4 Identify the general formula of an ether. - CHEM12_C23.2.3 Explain how addition reactions are used in organic chemistry. - CHEM12_C23.2.2 Identify the general formula of an alcohol. - CHEM12_C23.2.1 Describe when a solution of a salt is acidic or basic. - CHEM12_C19.5.1 Identify the components of a buffer. - CHEM12_C19.5.2 Identify the central themes of chemistry. - CHEM12_C01.1.3 Identify five traditional areas of study in chemistry. - CHEM12_C01.1.2 Classify elements based on electron configuration. - CHEM12_C06.2.2 Explain why the scope of chemistry is so vast. - CHEM12_C01.1.1 List the three rules for writing the electron configurations of elements. - CHEM12_C05.2.1 Identify the structural characteristics of alkynes. - CHEM12_C22.2.2 Describe the structural characteristics of alkenes. - CHEM12_C22.2.1 Explain the ways in which energy changes can occur. - CHEM12_C17.1.1 Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. - CHEM12_C17.1.2 Explain how mole ratios are used in chemical calculations. - CHEM12_C12.2.1 Explain the general procedure for solving a stoichiometric problem. - CHEM12_C12.2.2 Express solution concentration as a percent by volume or percent by mass. - CHEM12_C16.2.3 Calculate the molarity of a solution. - CHEM12_C16.2.1 Describe the effect of dilution on the total moles of solute in solution. - CHEM12_C16.2.2 Identify two factors on which the heat capacity of an object depends. - CHEM12_C17.1.3 Determine the name and formula of a base. - CHEM12_C09.4.2 Determine the name and formula of an acid. - CHEM12_C09.4.1 Describe the information found in a net ionic equation. - CHEM12_C11.3.1 Predict the formation of a precipitate in a double-replacement reaction. - CHEM12_C11.3.2 Distinguish between quantum mechanics and classical mechanics. - CHEM12_C05.3.4 Explain how the frequencies of light are related to changes in electron energies. - CHEM12_C05.3.3 Describe how Einstein explained the photoelectric effect. - CHEM12_C05.3.2 Describe how Mendeleev organized his periodic table. - CHEM12_C06.1.2 Explain how chemists began to organize the known elements. - CHEM12_C06.1.1 Classify organic compounds. - CHEM12_C23.1.1 Describe how substitution reactions are used in organic chemistry. - CHEM12_C23.1.3 Identify the general formula of a halocarbon. - CHEM12_C23.1.2 List of all Files Validated: imsmanifest.xml I_0034854b-f471-38c2-be34-7fa359024d30_1_R/BasicLTI.xml I_00470893-bfe6-3625-99c9-7adcf392bab7_R/BasicLTI.xml I_00496e77-a2bc-3395-9669-7363898168d3_1_R/BasicLTI.xml I_004ac41d-5b94-374e-9d2b-c83adc559a96_1_R/BasicLTI.xml I_0061dece-d43f-34db-9bba-61689abec565_1_R/BasicLTI.xml I_00808f48-9be5-3cdf-86db-e8188afacec4_1_R/BasicLTI.xml I_009414ec-f6bd-3433-ad9e-b702b051a111_R/BasicLTI.xml I_00b831ff-ae10-3ddc-8e32-e09615e899f0_1_R/BasicLTI.xml 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I_fd8f4e16-5d55-342c-8d30-0bbc2024edfd_R/BasicLTI.xml I_fdbba29d-1b0d-394d-bab6-183e502002cb_1_R/BasicLTI.xml I_fdd3a3a8-0b74-3bcc-a300-1a5307f250d0_1_R/BasicLTI.xml I_fde4a9ce-a511-3e10-ad93-f8bfbda32e8c_1_R/BasicLTI.xml I_fe0f35af-ba82-3d93-87e5-5efdfb8cc952_1_R/BasicLTI.xml I_fe30ae7b-ffea-30c6-b625-c235306aa0f1_1_R/BasicLTI.xml I_fe539c08-798a-325a-aedb-adf444af73ad_1_R/BasicLTI.xml I_fe623cfd-54dc-38d4-9245-de794988bb9b_1_R/BasicLTI.xml I_fe908155-d5d9-39cc-8a5b-d61a7c4d957b_R/BasicLTI.xml I_fea900e5-d1fd-300c-869b-1428981687f2_R/BasicLTI.xml I_feaf334d-3ebf-3eab-a96c-2e903a203652_1_R/BasicLTI.xml I_fed7cd79-0548-3e83-9e0c-71660d25fe10_1_R/BasicLTI.xml I_fee564d4-a82d-3a70-85df-96862c9ed809_1_R/BasicLTI.xml I_ff082f94-cb81-36b1-9955-659377119e48_1_R/BasicLTI.xml I_ff2630aa-727a-3081-a30e-afbca245c291_1_R/BasicLTI.xml I_ff3babce-4942-3b12-82a5-b0bcc8893546_1_R/BasicLTI.xml I_ff3bf187-4e7e-310c-a1ba-a1a0781e4428_1_R/BasicLTI.xml I_ff57f5e5-55ad-3f0e-819d-1abb268cc241_1_R/BasicLTI.xml I_ff5c6848-8216-394d-8886-79d42f866996_1_R/BasicLTI.xml I_ff6d237a-afef-3603-9153-50c579f31573_1_R/BasicLTI.xml I_ff6e9602-e7e0-39f8-b292-57d51142ab15_1_R/BasicLTI.xml I_ff7017df-809c-355a-bbf2-b4498ffe79e8_1_R/BasicLTI.xml I_ff94b77e-0b2f-392a-9458-2aa27623c225_1_R/BasicLTI.xml I_ff94b77e-0b2f-392a-9458-2aa27623c225_3_R/BasicLTI.xml I_ffb06c33-c42c-375d-a687-365f5bb251a6_R/BasicLTI.xml I_ffd3b2bb-9f1c-34e9-a350-de069b935a7f_1_R/BasicLTI.xml I_ffe938f9-0089-305e-a87b-1edd8579c7ee_1_R/BasicLTI.xml Title: Pearson Chemistry 2012 Realize Math Diagnostic and Remediation Using the Math Diagnostic Tests and Remediation Multiplying Fractions Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Absolute Values Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Converting Measurements Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Dividing Fractions Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Adding Integers Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Using Conversion Factors Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Multiplying Rational Expressions Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Subtracting Integers Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Comparing Unit Rates Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Equivalent Fractions Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Diagnostic Test 1: Fractions, Integers, and Measurements Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Diagnostic 1 Posttest: Fractions, Integers, and Measurements Curriculum Standards: Multiply and divide fractions. Understand integers and absolute values. Understand measurements and conversions. Solving Proportions Curriculum Standards: Understand ratios, rates, and proportions. Understand significant figures. Understand scientific notation. Significant Figures Intervention Curriculum Standards: Understand ratios, rates, and proportions. Understand significant figures. Understand scientific notation. Writing a Number in Scientific Notation Curriculum Standards: Understand ratios, rates, and proportions. Understand significant figures. Understand scientific notation. Comparing Unit Rates Curriculum Standards: Understand ratios, rates, and proportions. Understand significant figures. Understand scientific notation. Writing a Number in Standard Notation Curriculum Standards: Understand ratios, rates, and proportions. Understand significant figures. Understand scientific notation. Writing Ratios Curriculum Standards: Understand ratios, rates, and proportions. Understand significant figures. Understand scientific notation. Ordering Numbers in Scientific Notation Curriculum Standards: Understand ratios, rates, and proportions. Understand significant figures. Understand scientific notation. Diagnostic Test 2: Ratios, Significant Figures, and Scientific Notation Curriculum Standards: Understand ratios, rates, and proportions. Understand significant figures. Understand scientific notation. Diagnostic 2 Posttest: Ratios, Significant Figures, and Scientific Notation Curriculum Standards: Understand ratios, rates, and proportions. Understand significant figures. Understand scientific notation. Solving Two-Step Equations Curriculum Standards: Solve multi-step equations. Transforming Formulas Curriculum Standards: Solve multi-step equations. Equations with Variables on Both Sides Curriculum Standards: Solve multi-step equations. Diagnostic Test 3: Multi-Step Equations Curriculum Standards: Solve multi-step equations. Diagnostic 3 Posttest: Multi-Step Equations Curriculum Standards: Solve multi-step equations. Finding Slope Using Rise and Run Curriculum Standards: Understand slope and rate of change. Graph linear and nonlinear functions. Graphing Curriculum Standards: Understand slope and rate of change. Graph linear and nonlinear functions. Finding Slope Using Coordinates Curriculum Standards: Understand slope and rate of change. Graph linear and nonlinear functions. Graphing nonlinear functions Curriculum Standards: Understand slope and rate of change. Graph linear and nonlinear functions. Finding Rate of Change Using a Table Curriculum Standards: Understand slope and rate of change. Graph linear and nonlinear functions. Graphing Linear Functions Curriculum Standards: Understand slope and rate of change. Graph linear and nonlinear functions. Finding Rate of Change Using a Graph Curriculum Standards: Understand slope and rate of change. Graph linear and nonlinear functions. Diagnostic Test 4 Pretest: Graphing Curriculum Standards: Understand slope and rate of change. Graph linear and nonlinear functions. Diagnostic 4 Posttest: Graphing Curriculum Standards: Understand slope and rate of change. Graph linear and nonlinear functions. Chapter 1: Introduction to Chemistry Chapter-Level Activities Ch. 1 Math Tutorial: Equations Ch. 1 Concepts in Action: What Would Happen in a World Without Chemistry? Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Ch. 1 Directed Virtual Lab: Lab Safety Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Ch. 1 Problem Set Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Ch. 1 What Good Can Chemistry Do? Chapter 1 Flash Cards 1.1 The Scope of Chemistry 1.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. 1.2 Chemistry and You 1.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. 1.3 Thinking Like a Scientist 1.3 Kinetic Art: Three-Dimensional Molecular Models Curriculum Standards: Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. 1.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. 1.4 Problem Solving in Chemistry 1.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. 1.4 Chemistry Tutorial: Estimating Walking Time Curriculum Standards: Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. 1.4 Foundations Chemistry Tutorial: Estimating Walking Time Curriculum Standards: Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1 Online Student Edition Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1.2 Online Student Edition: Why Study Chemistry? Curriculum Standards: Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Chapter 1.4 Online Student Edition: Solving Nonnumeric Problems Curriculum Standards: Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1.1 Online Student Edition: Big Ideas In Chemistry Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. 1.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Ch. 1 Concepts in Action: What Would Happen in a World Without Chemistry? Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Ch. 1 Directed Virtual Lab: Lab Safety Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. 1.4 Chemistry Tutorial: Estimating Walking Time Curriculum Standards: Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1.3 Online Student Edition: Collaboration and Communication Curriculum Standards: Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Study WB Chapter 1 Lesson 4 Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. 1.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. 1.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1.4 Online Student Edition: Solving Numeric Problems Curriculum Standards: Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1.2 Online Student Edition: Chemistry, Technology, and Society Curriculum Standards: Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Chapter 1.1 Online Student Edition: What Is Chemistry? Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Chapter 1.3 Online Student Edition: An Experimental Approach to Science Curriculum Standards: Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Chapter 1.3 Online Student Edition: The Scientific Method Curriculum Standards: Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Chapter 1.4 Online Student Edition: Skills Used in Solving Problems Curriculum Standards: Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1 Pre-Test: Introduction to Chemistry Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1 Post-Test: Introduction to Chemistry Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1 Editable Study Workbook Study WB Chapter 1 Lesson 1 Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Study WB Chapter 1 Lesson 2 Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Study WB Chapter 1 Lesson 3 Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Study WB Chapter 1 Lesson 4 Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Foundations Study WB Chapter 1 Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1 Editable Labs Ch. 1 Lab 1: Observing and Inferring Curriculum Standards: Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Optional Lab Practicals: Laboratory Techniques Curriculum Standards: Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Ch. 1 Quick Lab Record Sheet Curriculum Standards: Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Chapter 1 Editable Assessments Diagnostic Test Part A Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Ch. 1 Core TR: Chapter Quiz Ch. 1 Core TR: Chapter Test A Ch. 1 Core TR: Chapter Test B Diagnostic Test Part B Curriculum Standards: Explain why the scope of chemistry is so vast. Identify five traditional areas of study in chemistry. Identify the central themes of chemistry. Identify three general reasons to study chemistry. Identify some outcomes of modern research in chemistry. Describe how Lavoisier transformed chemistry. Identify three steps in the scientific method. Explain the role collaboration and communication play in science. Identify the general approach to solving a problem. Describe the steps for solving numeric problems. Describe the steps for solving nonnumeric problems. Chapter 1 Additional Editable Resources Ch. 1 Core TR: Section 1 Review Ch. 1 Core TR: Section 2 Review Ch. 1 Core TR: Section 3 Review Ch. 1 Core TR: Section 4 Review Ch. 1 Core TR: Practice Problems Ch. 1 Core TR: Interpreting Graphics Ch. 1 Core TR: Vocabulary Review Chapter 1 Image Library Figure 1.1 Figure 1.2 Figure 1.3 Figure 1.4_part1 Figure 1.4_part2 Figure 1.6 Figure 1.7 Figure 1.8_part1 Figure 1.8_part2 Figure 1.9 Image 1, p. 14 Figure 1.10 Figure 1.11 Figure 1.12 Figure 1.14 Figure 1.16 Figure 1.17 Figure 1.19 Figure 1.20 Figure 1.21 Image 1, p. 29 Image 1, p. 30 Image 1, p. 31 Chapter 2: Matter and Change Chapter-Level Activities Ch. 2 Concepts in Action: Cooking up Physical and Chemical Changes Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Directed Virtual Lab: Chemical Reactions Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Problem Set Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 A New 'Roll' for Old Tires Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 2 Flash Cards 2.1 Properties of Matter 2.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. 2.1 Kinetic Art: States Of Matter Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. 2.2 Mixtures 2.2 Kinetic Art: Distillation Curriculum Standards: Explain how mixtures are classified. Explain how mixtures can be separated. 2.2 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how mixtures are classified. Explain how mixtures can be separated. 2.3 Elements and Compounds 2.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. 2.4 Chemical Reactions 2.4 Lesson Overview (PowerPoint file) Curriculum Standards: Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 2 Online Student Edition Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 2.3 Online Student Edition: Distinguishing Elements and Compounds Curriculum Standards: Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Chapter 2.3 Online Student Edition: Distinguishing Substances and Mixtures Curriculum Standards: Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Chapter 2.3 Online Student Edition: Symbols and Formulas Curriculum Standards: Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Chapter 2.3 Online Student Edition: The Periodic Table-A Preview Curriculum Standards: Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Chapter 2.4 Online Student Edition: Conservation of Mass Curriculum Standards: Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Concepts in Action: Cooking up Physical and Chemical Changes Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. 2.1 Kinetic Art: States Of Matter Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. 2.2 Kinetic Art: Distillation Curriculum Standards: Explain how mixtures are classified. Explain how mixtures can be separated. Ch. 2 Directed Virtual Lab: Chemical Reactions Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Study WB Chapter 2 Lesson 3 Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. 2.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. 2.2 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how mixtures are classified. Explain how mixtures can be separated. 2.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. 2.4 Lesson Overview (PowerPoint file) Curriculum Standards: Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 2.1 Online Student Edition: States of Matter Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Chapter 2.1 Online Student Edition: Physical Changes Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Chapter 2.4 Online Student Edition: Recognizing Chemical Changes Curriculum Standards: Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 2.1 Online Student Edition: Describing Matter Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Chapter 2.2 Online Student Edition: Classifying Mixtures Curriculum Standards: Explain how mixtures are classified. Explain how mixtures can be separated. Chapter 2.2 Online Student Edition: Separating Mixtures Chapter 2.2 Online Student Edition: Separating MixturesThe Student eText presents the content necessary for a deep understanding of different types of mixtures. Curriculum Standards: Explain how mixtures are classified. Explain how mixtures can be separated. Chapter 2 Pre-Test: Matter and Change Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 2 Post-Test: Matter and Change Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 2 Editable Study Workbook Study WB Chapter 2 Lesson 1 Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Study WB Chapter 2 Lesson 2 Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Study WB Chapter 2 Lesson 3 Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Study WB Chapter 2 Lesson 4 Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Foundations Study WB Chapter 2 Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 2 Editable Labs Ch. 2 Lab 2: Physical and Chemical Change Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Lab 3: Observing a Chemical Reaction Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Lab 26: Distillation Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Lab 32: Introduction to Chromatography Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Quick Lab Record Sheet Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Lab Practicals: Matter and Change Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Lab Practical: Solutions Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Ch. 2 Quick Lab Record Sheet_1 Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 2 Editable Assessments Ch. 2 Core TR: Chapter Quiz Ch. 2 Core TR: Chapter Test A Ch. 2 Core TR: Chapter Test B Chapter 2 Additional Editable Resources Ch. 2 Core TR: Section 1 Review Ch. 2 Core TR: Section 2 Review Ch. 2 Core TR: Section 3 Review Ch. 2 Core TR: Section 4 Review Ch. 2 Core TR: Practice Problems Ch. 2 Core TR: Interpreting Graphics Ch. 2 Core TR: Vocabulary Review Chapter 2 Image Library Figure 2.2_part1 Figure 2.2_part2 Table 2.1 Figure 2.3_part1 Figure 2.3_part2 Figure 2.3_part3 Figure 2.3_part4 Figure 2.4 Figure 2.5 Figure 2.6_part1 Figure 2.6_part2 Figure 2.6_part3 Figure 2.7 Figure 2.8 Figure 2.9_part1 Figure 2.9_part2 Figure 2.9_part3 Figure 2.10_part1 Figure 2.10_part2 Figure 2.10_part3 Figure 2.10_part4 Figure 2.10_part5 Figure 2.10_part6 Figure 2.11_part1 Figure 2.11_part2 Figure 2.11_part3 Figure 2.11_part4 Figure 2.11_part5 Figure 2.12 Table 2.2 Figure 2.13 Figure 2.14_part1 Figure 2.14_part2 Figure 2.15_part1 Figure 2.15_part2 Figure 2.15_part3 Figure 2.16_part1 Figure 2.16_part2 Image 1, p. 56 Image 1_part1, p. 57 Image 1_part2, p. 57 Image 2, p. 57 Image 1, p. 58 Image 1, p. 59 Image 2, p. 59 Chapter 3: Scientific Measurement Chapter-Level Activities Ch. 3 Math Tutorial A: Converting Units Ch. 3 Math Tutorial B: Scientific Notation Ch. 3 Concepts in Action: SI Units! Exactly! Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Describe the relationship between the solubility product constant and the solubility of a compound. Ch. 3 Directed Virtual Lab: The Density of Solids and Liquids Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Ch. 3 Problem Set Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Ch. 3 Being Precisely Accurate Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Chapter 3 Flash Cards 3.1 Using and Expressing Measurements 3.1 Chemistry Tutorial: Significant Figures in Multiplication and Division Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. 3.1 Kinetic Art: Precision in Measurement Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. 3.1 Lesson Overview (PowerPoint file) Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. 3.1 Foundations Chem Tutorial: Sign. Figures in Multip. and Division Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. 3.2 Units of Measurement 3.2 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. 3.2 Chemistry Tutorial: Converting Between Temperature Scales Curriculum Standards: Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. 3.2 Foundations Chemistry Tutorial: Converting Between Temperature Scales Curriculum Standards: Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. 3.3 Solving Conversion Problems 3.3 Chemistry Tutorial: Using Dimensional Analysis Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.3 Chemistry Tutorial: Using Density as a Conversion Factor Curriculum Standards: Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.3 Chemistry Tutorial: Converting Ratios of Units Curriculum Standards: Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.3 Kinetic Art: Conversion Factors Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.3 Foundations Chemistry Tutorial: Using Dimensional Analysis Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.3 Foundations Chemistry Tutorial: Using Density as a Conversion Factor Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.3 Foundations Chemistry Tutorial: Converting Ratios of Units Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Chapter 3 Online Student Edition Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Chapter 3.2 Online Student Edition: Using SI Units Curriculum Standards: Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. 3.3 Chemistry Tutorial: Using Dimensional Analysis Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.2 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. 3.1 Kinetic Art: Precision in Measurement Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. 3.3 Kinetic Art: Conversion Factors Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Ch. 3 Concepts in Action: SI Units! Exactly! Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Describe the relationship between the solubility product constant and the solubility of a compound. Ch. 3 Directed Virtual Lab: The Density of Solids and Liquids Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. 3.1 Lesson Overview (PowerPoint file) Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Chapter 3.1 Online Student Edition, Scientific Notation Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Chapter 3.2 Online Student Edition: Density Curriculum Standards: Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Chapter 3.3 Online Student Edition: Conversion Factors Curriculum Standards: Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Chapter 3.1 Online Student Edition, Scientific Notation_1 Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Chapter 3 Pre-Test: Scientific Measurement Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Chapter 3 Post-Test: Scientific Measurement Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Chapter 3 Editable Study Workbook Study WB Chapter 3 Lesson 1 Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Study WB Chapter 3 Lesson 2 Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Study WB Chapter 3 Lesson 3 Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Foundations Study WB Chapter 3 Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Chapter 3 Editable Labs Ch. 3 Lab 4: Mass, Volume and Density Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Ch. 3 Lab Practicals: Scientific Measurement: Basic Measurement and Density Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Ch. 3 Quick Lab Record Sheet Curriculum Standards: Write numbers in scientific notation. Evaluate accuracy and precision. Explain why measurements must be reported to the correct number of significant figures. Explain why metric units are easy to use. Identify the temperature units scientists commonly use. Calculate the density of a substance. Explain what happens when a measurement is multiplied by a conversion factor. Describe the kinds of problems that can be easily solved using dimensional analysis. Chapter 3 Editable Assessments Ch. 3 Core TR: Chapter Quiz Ch. 3 Core TR: Chapter Test A Ch. 3 Core TR: Chapter Test B Chapter 3 Additional Editable Resources Ch. 3 Core TR: Section 1 Review Ch. 3 Core TR: Section 2 Review Ch. 3 Core TR: Section 3 Review Ch. 3 Core TR: Section 4 Review Ch. 3 Core TR: Practice Problems Ch. 3 Core TR: Interpreting Graphics Ch. 3 Core TR: Vocabulary Review Chapter 3 Image Library Image 1, p. 60 Figure 3.2 Figure 3.3 Figure 3.4 Image 1, p. 74 Table 3.1 Table 3.2 Table 3.3 Figure 3.5_part1 Figure 3.5_part2 Table 3.4 Table 3.5 Figure 3.6 Figure 3.7 Image 1, p. 78 Figure 3.8 Figure 3.9 Figure 3.10 Table 3.6 Figure 3.11 Figure 3.12 Figure 3.13 Image 1, p. 95 Image 1, p. 96 Image 2, p. 96 Image 1, p. 97 Image 2, p. 97 Image 1, p. 98 Image 1, p. 99 Chapter 4: Atomic Structure Chapter-Level Activities Ch. 4 Math Tutorial: Weighted Averages Ch. 4 Concepts in Action: If Atoms Were Pennies, Then Banks Would Be Huge Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Ch. 4 Directed Virtual Lab: Rutherford's Experiment Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Ch. 4 Problem Set Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Ch. 4 What Can Bones Tell Us? Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Chapter 4 Flash Cards 4.1 Defining the Atom 4.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. 4.2 Structure of the Nuclear Atom 4.2 Kinetic Art: Cathode Ray Curriculum Standards: Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. 4.2 Kinetic Art: Rutherford's Experiment Curriculum Standards: Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. 4.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. 4.3 Distinguishing Among Atoms 4.3 Chemistry Tutorial: Determining the Composition of an Atom Curriculum Standards: Identify three types of subatomic particles. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. 4.3 Chemistry Tutorial: Calculating Atomic Mass Curriculum Standards: Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. 4.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. 4.3 Foundations Chemistry Tutorial: Determining the Composition of an Atom Curriculum Standards: Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. 4.3 Foundations Chemistry Tutorial: Calculating Atomic Mass Curriculum Standards: Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Chapter 4 Online Student Edition Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Chapter 4.1 Online Student Edition: Early Models of the Atom Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Chapter 4.1 Online Student Edition: Sizing up the Atom Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Chapter 4.3 Online Student Edition: Isotopes Curriculum Standards: Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. 4.2 Kinetic Art: Rutherford's Experiment Curriculum Standards: Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Ch. 4 Directed Virtual Lab: Rutherford's Experiment Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. 4.3 Chemistry Tutorial: Calculating Atomic Mass Curriculum Standards: Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Chapter 4.3 Online Student Edition: Atomic Mass Curriculum Standards: Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. 4.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. 4.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Chapter 4 Pre-Test: Atomic Structure Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Chapter 4 Post-Test: Atomic Structure Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Chapter 4 Editable Study Workbook Study WB Chapter 4 Lesson 1 Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Study WB Chapter 4 Lesson 2 Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Study WB Chapter 4 Lesson 3 Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Foundations Study WB Chapter 4 Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Chapter 4 Editable Labs Ch. 4 Lab 5: Atomic Structure: Rutherford’s Experiment Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Ch. 4 Lab Practicals: Modeling Atomic Structure Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Ch. 4 Quick Lab Record Sheet Curriculum Standards: Explain how Democritus and John Dalton described atoms. Identify instruments used to observe individual atoms. Identify three types of subatomic particles. Describe the structure of atoms according to the Rutherford model. Explain what makes one element different from another. Explain how isotopes of an element differ. Calculate the atomic mass of an element. Chapter 4 Editable Assessments Ch. 4 Core TR: Chapter Quiz Ch. 4 Core TR: Chapter Test A Ch. 4 Core TR: Chapter Test B Chapter 4 Additional Editable Resources Ch. 4 Core TR: Section 1 Review Ch. 4 Core TR: Section 2 Review Ch. 4 Core TR: Section 3 Review Ch. 4 Core TR: Practice Problems Ch. 4 Core TR: Vocabulary Review Chapter 4 Image Library Image 1, p. 100 Figure 4.1 Figure 4.2 Figure 4.3 Figure 4.4 Figure 4.5_part1 Figure 4.5_part2 Table 4.1 Figure 4.6 Figure 4.7 Table 4.2 Figure 4.8 Figure 4.9 Table 4.3 Figure 4.10_part1 Figure 4.10_part2 Image 1, p. 122 Image 1, p. 123 Image 2, p. 123 Image 3, p. 123 Image 1, p. 125 Chapter 5: Electrons in Atoms Chapter-Level Activities Ch. 5 Math Tutorial: Probability Ch. 5 Concepts in Action: A Probably Swim in Lake S Orbital Ch. 5 Concepts in Action: A Probably Swim in Lake S OrbitalExplore examples of quantum theory in the real world in this activity. Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Ch. 5 Directed Virtual Lab: Flame Tests Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Ch. 5 The Chemistry of Fireworks Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Ch. 5 Problem Set Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5 Flash Cards 5.1 Revising the Atomic Model 5.1 Kinetic Art: Electron Orbitals Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. 5.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. 5.2 Electron Arrangement in Atoms 5.2 Lesson Overview (PowerPoint file) Curriculum Standards: List the three rules for writing the electron configurations of elements. 5.2 Chemistry Tutorial: Writing Electron Configurations Curriculum Standards: Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. 5.2 Foundations Chemistry Tutorial: Writing Electron Configurations Curriculum Standards: List the three rules for writing the electron configurations of elements. 5.3 Atomic Emission Spectra and QM Model 5.3 Chemistry Tutorial: Calculating the Wavelength of Light Curriculum Standards: Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. 5.3 Kinetic Art: The Hydrogen Emission Spectrum Curriculum Standards: Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. 5.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. 5.3 Foundations Chemistry Tutorial: Calculating the Wavelength of Light Curriculum Standards: Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5 Online Student Edition Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5.3 Online Student Edition: The Quantum Concept and Photons Curriculum Standards: Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5.3 Online Student Edition: Quantum Mechanics Curriculum Standards: Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5.2 Online Student Edition: Electron Configurations Curriculum Standards: List the three rules for writing the electron configurations of elements. 5.1 Kinetic Art: Electron Orbitals Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. 5.2 Chemistry Tutorial: Writing Electron Configurations Curriculum Standards: Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Ch. 5 Concepts in Action: A Probably Swim in Lake S Orbital Ch. 5 Concepts in Action: A Probably Swim in Lake S OrbitalExplore examples of quantum theory in the real world in this activity. Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. 5.3 Kinetic Art: The Hydrogen Emission Spectrum Curriculum Standards: Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Study WB Chapter 5 Lesson 3 Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. 5.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. 5.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5.2 Online Student Edition: Atomic Orbitals Curriculum Standards: Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Chapter 5.2 Online Student Edition: Light and Atomic Emission Spectra Curriculum Standards: List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Chapter 5.1 The Bohr Model Curriculum Standards: Describe what Bohr proposed in his model of the atom. Chapter 5 Pre-Test: Electrons in Atoms Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5 Post-Test: Electrons in Atoms Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5 Editable Study Workbook Study WB Chapter 5 Lesson 1 Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Study WB Chapter 5 Lesson 2 Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Study WB Chapter 5 Lesson 3 Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Foundations Study WB Chapter 5 Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5 Editable Labs Ch. 5 Lab 6: Flame Tests for Metals Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Ch. 5 Lab 7: Energies of Electrons Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Ch. 5 Lab 8: Introduction to the Spectrophotometer Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Ch. 5 Lab Practicals: Electrons in Atoms: Flame Tests and Spectroscopy Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Ch. 5 Quick Lab Record Sheet Curriculum Standards: Describe what Bohr proposed in his model of the atom. Describe what the quantum mechanical model determines about the electrons in an atom. Explain how sublevels of principal energy levels differ. List the three rules for writing the electron configurations of elements. Explain what causes atomic emission spectra. Describe how Einstein explained the photoelectric effect. Explain how the frequencies of light are related to changes in electron energies. Distinguish between quantum mechanics and classical mechanics. Chapter 5 Editable Assessments Ch. 5 Core TR: Chapter Quiz Ch. 5 Core TR: Chapter Test A Ch. 5 Core TR: Chapter Test B Benchmark Test 1 Part A (follows Chapters 1-5) Benchmark Test 1 Part B (follows Chapters 1-5) Chapter 5 Additional Editable Resources Ch. 5 Core TR: Section 1 Review Ch. 5 Core TR: Section 2 Review Ch. 5 Core TR: Section 3 Review Ch. 5 Core TR: Practice Problems Ch. 5 Core TR: Interpreting Graphics Ch. 5 Core TR: Vocabulary Review Chapter 5 Image Library Image 1, p. 126 Figure 5.1 Figure 5.2_part1 Figure 5.2_part2 Figure 5.3_part1 Figure 5.3_part2 Figure 5.4 Table 5.1 Figure 5.5 Table 5.2 Figure 5.6 Figure 5.7 Figure 5.8 Figure 5.9_part1 Figure 5.9_part2 Figure 5.10_part1 Figure 5.10_part2 Figure 5.11 Figure 5.12 Figure 5.13 Figure 5.14 Image 1, p. 154 Image 2_part1, p. 154 Image 2_part2, p. 154 Image 1, p. 155 Image 1, p. 156 Image 1, p. 157 Chapter 6: Periodic Table Chapter-Level Activities Ch. 6 Math Tutorial: Trend Lines Ch. 6 Concepts in Action: The Periodic Table of Musical Instruments Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Ch. 6 Directed Virtual Lab: Heat Energy and Metals Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Ch. 6 The Name-the-Element Game Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Ch. 6 Problem Set Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Chapter 6 Flash Cards 6.1 Organizing the Elements 6.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. 6.2 Classifying the Elements 6.2 Chem Tutorial: Using Energy Sublevels to Write Electron Config. Curriculum Standards: List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. 6.2 Kinetic Art: Periodic Table Tour Curriculum Standards: Describe how the modern periodic table is organized. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. 6.2 Lesson Overview (PowerPoint file) Curriculum Standards: List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. 6.2 Foundations Chem Tutorial: Energy Sublevels and Elect. Config. Curriculum Standards: List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. 6.3 Periodic Trends 6.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. 6.3 Kinetic Art: Trends in the Periodic Table Curriculum Standards: Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Chapter 6 Online Student Edition Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Chapter 6.1 Online Student Edition: Metals, Nonmetals, and Metalloids Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. Chapter 6.3 Online Student Edition: Ions Curriculum Standards: Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Ch. 6 Concepts in Action: The Periodic Table of Musical Instruments Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. 6.3 Kinetic Art: Trends in the Periodic Table Curriculum Standards: Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. 6.2 Kinetic Art: Periodic Table Tour Curriculum Standards: Describe how the modern periodic table is organized. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Study WB Chapter 6 Lesson 1 Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. 6.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. Chapter 6.1 Online Student Edition: Mendeleev's Periodic Table Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. Chapter 6.2 Online Student Edition: Electron Configurations in Groups Curriculum Standards: List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. 6.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how ions form. Chapter 6.2: Reading the Periodic Table Curriculum Standards: List the types of information that can be displayed in a periodic table. Chapter 6.3 Trends in Atomic Size Curriculum Standards: Describe trends among elements for atomic size. Chapter 6 Pre-Test: Periodic Table Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Chapter 6 Post-Test: Periodic Table Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Chapter 6 Editable Study Workbook Study WB Chapter 6 Lesson 1 Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Study WB Chapter 6 Lesson 2 Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Study WB Chapter 6 Lesson 3 Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Foundations Study WB Chapter 6 Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Chapter 6 Editable Labs Ch. 6 Lab 9: Periodic Properties Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Ch. 6 Lab Practicals: The Periodic Table: Density and Solubility Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Ch. 6 Quick Lab Record Sheet Curriculum Standards: Explain how chemists began to organize the known elements. Describe how Mendeleev organized his periodic table. Describe how the modern periodic table is organized. Identify three broad classes of elements. List the types of information that can be displayed in a periodic table. Classify elements based on electron configuration. Describe trends among elements for atomic size. Explain how ions form. Describe periodic trends for first ionization energy, ionic size, and electronegativity. Chapter 6 Editable Assessments Ch. 6 Core TR: Chapter Quiz Ch. 6 Core TR: Chapter Test A Ch. 6 Core TR: Chapter Test B Chapter 6 Additional Editable Resources Ch. 6 Core TR: Section 1 Review Ch. 6 Core TR: Section 2 Review Ch. 6 Core TR: Section 3 Review Ch. 6 Core TR: Practice Problems Ch. 6 Core TR: Interpreting Graphics Ch. 6 Core TR: Vocabulary Review Chapter 6 Image Library Figure 6.1 Figure 6.2_part1 Figure 6.2_part2 Figure 6.3 Figure 6.4 Figure 6.5_part1 Figure 6.5_part2 Figure 6.5_part3 Figure 6.6_part1 Figure 6.6_part2 Figure 6.7 Image 1, p. 166 Figure 6.8 Figure 6.9 Figure 6.11 Image 1, p. 171 Image 2, p. 171 Image 3, p. 171 Figure 6.12 Figure 6.13 Figure 6.14 Figure 6.15 Figure 6.16 Figure 6.17 Figure 6.18 Table 6.1 Figure 6.19 Figure 6.20 Figure 6.21 Figure 6.22 Figure 6.23 Table 6.2 Figure 6.24 Image 1, p. 187 Image 2, p. 187 Image 1, p. 188 Image 2, p. 188 Image 3, p. 188 Image 1, p. 190 Image 2, p. 190 Image 1, p. 191 Image 2, p. 191 Chapter 7: Ionic and Metallic Bonding Chapter-Level Activities Ch. 7 Concepts in Action: Ionic Doubles Partners Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Ch. 7 Directed Virtual Lab: The Formation of Ionic Compounds Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Ch. 7 Problem Set Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Ch. 7 Cave Crystals Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Chapter 7 Flash Cards 7.1 Ions 7.1 Lesson Overview (PowerPoint file) Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. 7.2 Ionic Bonds and Ionic Compounds 7.2 Chemistry Tutorial: Predicting Formulas of Ionic Compounds Curriculum Standards: Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. 7.2 Kinetic Art: Crystal Structures Curriculum Standards: Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. 7.2 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. 7.2 Foundations Chemistry Tutorial: Predicting Formulas of Ionic Compounds Curriculum Standards: Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. 7.3 Bonding in Metals 7.3 Kinetic Art: Properties of Metals Curriculum Standards: Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. 7.3 Lesson Overview (PowerPoint file) Curriculum Standards: Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Chapter 7 Online Student Edition Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Chapter 7.1 Online Student Edition: Valence Electrons Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Chapter 7.1 Online Student Edition: Formation of Cations Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Chapter 7.1 Online Student Edition: Formation of Anions Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Chapter 7.1 Online Student Edition: Alloys Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the importance of alloys. 7.1 Lesson Overview (PowerPoint file) Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. 7.2 Chemistry Tutorial: Predicting Formulas of Ionic Compounds Curriculum Standards: Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. 7.3 Kinetic Art: Properties of Metals Curriculum Standards: Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Ch. 7 Concepts in Action: Ionic Doubles Partners Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Ch. 7 Directed Virtual Lab: The Formation of Ionic Compounds Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Study WB Chapter 7 Lesson 3 Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. 7.2 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. 7.3 Lesson Overview (PowerPoint file) Curriculum Standards: Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Chapter 7.1 Online Student Edition: Valence Electrons_1 Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Chapter 7.2 Online Student Edition: Properties of Ionic Compounds Curriculum Standards: Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Chapter 7 Pre-Test: Ionic and Metallic Bonding Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Chapter 7 Post-Test: Ionic and Metallic Bonding Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Chapter 7 Editable Study Workbook Study WB Chapter 7 Lesson 1 Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Study WB Chapter 7 Lesson 2 Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Study WB Chapter 7 Lesson 3 Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Foundations Study WB Chapter 7 Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Chapter 7 Editable Labs Ch. 7 Lab 10: Crystal Structures Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Ch. 7 Lab Practicals: Crystal Structure: Ionic and Metallic Bonding Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Ch. 7 Quick Lab Record Sheet Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the electrical charge of an ionic compound. Describe three properties of ionic compounds. Model the valence electrons of metal atoms. Describe the arrangement of atoms in a metal. Explain the importance of alloys. Chapter 7 Editable Assessments Ch. 7 Core TR: Chapter Quiz Ch. 7 Core TR: Chapter Test A Ch. 7 Core TR: Chapter Test B Chapter 7 Additional Editable Resources Ch. 7 Core TR: Section 1 Review Ch. 7 Core TR: Section 2 Review Ch. 7 Core TR: Section 3 Review Ch. 7 Core TR: Practice Problems Ch. 7 Core TR: Interpreting Graphics Ch. 7 Core TR: Vocabulary Review Chapter 7 Image Library Image 1, p. 192 Image 1, p. 193 Image 1, p. 194 Figure 7.1_part1 Figure 7.1_part2 Table 7.1 Figure 7.2 Figure 7.3 Figure 7.4 Table 7.2 Figure 7.6 Figure 7.7 Figure 7.8_part1 Figure 7.8_part2 Figure 7.8_part3 Figure 7.8_part4 Figure 7.8_part5 Figure 7.8_part6 Figure 7.8_part7 Figure 7.8_part8 Figure 7.9_part1 Figure 7.9_part2 Figure 7.10_part1 Figure 7.10_part2 Figure 7.11_part1 Figure 7.11_part2 Figure 7.12 Figure 7.13 Figure 7.14_part1 Figure 7.14_part2 Figure 7.14_part3 Figure 7.14_part4 Figure 7.14_part5 Figure 7.14_part6 Figure 7.15_part1 Figure 7.15_part2 Figure 7.15_part3 Image 1, p. 215 Image 1, p. 216 Image 2, p. 216 Image 1, p. 217 Image 1, p. 219 Chapter 8: Covalent Bonding Chapter-Level Activities Ch. 8 Math Tutorial: Tetrahedral Angles Ch. 8 Concepts in Action: The Air Up There Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Ch. 8 Directed Virtual Lab: Covalent Bonding Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Ch. 8 Problem Set Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Ch. 8 Painting With Powder? Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Chapter 8 Flash Cards 8.1 Molecular Compounds 8.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. 8.2 Nature of Covalent Bonding 8.2 Chemistry Tutorial: Drawing Electron Dot Structures Curriculum Standards: Determine the number of valence electrons in an atom of a representative element. Identify the atoms of elements that tend to lose and tend to gain electrons. Describe how cations form. Explain how anions form. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. 8.2 Kinetic Art: Covalent Bonds Curriculum Standards: Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. 8.2 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. 8.2 Foundations Chemistry Tutorial: Drawing Electron Dot Structures Curriculum Standards: Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. 8.3 Bonding Theories 8.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. 8.4 Polar Bonds and Molecules 8.4 Chemistry Tutorial: Identifying Bond Type Curriculum Standards: Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. 8.4 Kinetic Art: Polar Molecules Curriculum Standards: Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. 8.4 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Chapter 8 Online Student Edition Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Chapter 8.2 Online Student Edition: Resonance Curriculum Standards: Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Chapter 8.3 Online Student Edition: Molecular Orbits Curriculum Standards: Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Chapter 8.3 Online Student Edition: VSEPR Theory Curriculum Standards: Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Chapter 8.2 Online Student Edition: Exceptions to the Octet Rule Curriculum Standards: Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Chapter 8.2 Online Student Edition: Bond Dissociation Energies Curriculum Standards: Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. 8.4 Online Stu. Ed.: Intermolecular Attractions and Molecular Prop. Curriculum Standards: Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. 8.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. 8.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. 8.4 Chemistry Tutorial: Identifying Bond Type Curriculum Standards: Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. 8.2 Kinetic Art: Covalent Bonds Curriculum Standards: Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. 8.4 Kinetic Art: Polar Molecules Curriculum Standards: Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. 8.2 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. 8.4 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Ch. 8 Concepts in Action: The Air Up There Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Ch. 8 Directed Virtual Lab: Covalent Bonding Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Study WB Chapter 8 Lesson 1 Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Study WB Chapter 8 Lesson 2 Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Chapter 8 Pre-test: Covalent Bonding Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Chapter 8 Post-Test: Covalent Bonding Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Chapter 8 Editable Study Workbook Study WB Chapter 8 Lesson 1 Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Study WB Chapter 8 Lesson 2 Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Study WB Chapter 8 Lesson 3 Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Study WB Chapter 8 Lesson 4 Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Foundations Study WB Chapter 8 Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Chapter 8 Editable Labs Ch. 8 Lab 11: Molecular Models Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Ch. 8 Lab Practicals: Empirical Formula of a Hydrated Compound Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Ch. 8 Quick Lab Record Sheet Curriculum Standards: Identify the information a molecular formula provides. Describe the representative units that define molecular compounds and ionic compounds. Explain the result of electron sharing in covalent bonds. Describe how coordinate covalent bonds are different from other covalent bonds. Identify some exceptions to the octet rule. Explain how the strength of a covalent bond is related to its bond dissociation energy. Describe how resonance structures are used. Describe the relationship between atomic and molecular orbitals. Describe how VSEPR theory helps predict the shapes of molecules. Identify the ways in which orbital hybridization is useful in describing molecules. Describe how electronegativity values determine the charge distribution in a polar molecule. Evaluate the strengths of intermolecular attractions compared with the strengths of ionic and covalent bonds. Explain why the properties of covalent compounds are so diverse. Chapter 8 Editable Assessments Ch. 8 Core TR: Chapter Quiz Ch. 8 Core TR: Chapter Test A Ch. 8 Core TR: Chapter Test B Chapter 8 Additional Editable Resources Ch. 8 Core TR: Section 1 Review Ch. 8 Core TR: Section 2 Review Ch. 8 Core TR: Section 3 Review Ch. 8 Core TR: Section 4 Review Ch. 8 Core TR: Practice Problems Ch. 8 Core TR: Interpreting Graphics Ch. 8 Core TR: Vocabulary Review Chapter 8 Image Library Image 1, p. 220 Image 1, p. 222 Figure 8.1_part 1 Figure 8.1_part2 Figure 8.1_part3 Figure 8.1_part4 Figure 8.2 Figure 8.3 Figure 8.4 Figure 8.5_part1 Figure 8.5_part2 Figure 8.5_part3 Figure 8.5_part4 Figure 8.7 Table 8.1 Figure 8.9 Table 8.2 Figure 8.10 Figure 8.11 Table 8.3 Figure 8.12 Figure 8.13 Figure 8.14 Figure 8.15 Figure 8.16 Figure 8.17 Figure 8.18 Figure 8.19 Figure 8.20 Figure 8.21 Figure 8.22_part1 Figure 8.22_part2 Figure 8.23 Table 8.4 Figure 8.24 Figure 8.25 Figure 8.26 Figure 8.27 Figure 8.28 Figure 8.29 Table 8.5 Image 1, p. 257 Image 1, p. 258 Image 2, p. 258 Image 1, p. 261 Image 2, p. 261 Image 3, p. 261 Chapter 9: Chemical Names and Formulas Chapter-Level Activities Ch. 9 Math Tutorial: Unit Ratios Ch. 9 Concepts in Action: Your Ionic Kitchen (and Bathroom) Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Ch. 9 Directed Virtual Lab: Ionic Naming Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Ch. 9 Problem Set Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Ch. 9 Pass Me the Glauber’s Salt? Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9 Flash Cards 9.1 Naming Ions 9.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. 9.2 Naming and Writing Form. Ionic Compounds 9.2 Lesson Overview (PowerPoint file) Curriculum Standards: Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. 9.2 Chemistry Tutorial: Writing Formulas for Binary Ionic Compounds Curriculum Standards: Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. 9.2 Foundations Chem Tutorial: Writing Form. for Binary Ionic Compounds Curriculum Standards: Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. 9.3 Naming and Writing Form. Molec Compounds 9.3 Lesson Overview (PowerPoint file) Curriculum Standards: Apply the rules for naming and writing formulas for binary molecular compounds. 9.4 Naming and Writing Form. Acids and Bases 9.4 Lesson Overview (PowerPoint file) Curriculum Standards: Determine the name and formula of an acid. Determine the name and formula of a base. 9.5 Laws Governing How Compounds Form 9.5 Chemistry Tutorial: Calculating Mass Ratios Curriculum Standards: Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. 9.5 Kinetic Art: Naming Compounds Curriculum Standards: Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. 9.5 Kinetic Art: The Law of Multiple Proportions Curriculum Standards: Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. 9.5 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. 9.5 Foundations Chemistry Tutorial: Calculating Mass Ratios Curriculum Standards: Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9 Online Student Edition Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9.3 Online Student Edition: Binary Molecular Compounds Curriculum Standards: Apply the rules for naming and writing formulas for binary molecular compounds. Chapter 9.4 Online Student Edition: Names and Formulas of Bases Curriculum Standards: Determine the name and formula of an acid. Determine the name and formula of a base. 9.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. 9.3 Lesson Overview (PowerPoint file) Curriculum Standards: Apply the rules for naming and writing formulas for binary molecular compounds. 9.4 Lesson Overview (PowerPoint file) Curriculum Standards: Determine the name and formula of an acid. Determine the name and formula of a base. 9.2 Chemistry Tutorial: Writing Formulas for Binary Ionic Compounds Curriculum Standards: Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. 9.5 Kinetic Art: Naming Compounds Curriculum Standards: Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Ch. 9 Concepts in Action: Your Ionic Kitchen (and Bathroom) Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9.2 Online Student Edition: Binary Ionic Compounds Curriculum Standards: Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. 9.5 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9.4 Online Student Edition: Names and Formulas of Acids Curriculum Standards: Determine the name and formula of an acid. Determine the name and formula of a base. 9.4 Online Stu. Ed.: The Laws of Definite and Multiple Proportions Curriculum Standards: Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. Chapter 9.1: Monatomic Ions Curriculum Standards: Explain how to determine the charges of monatomic ions. Chapter 9.5: Practicing Skills: Chemical Names and Formulas Curriculum Standards: List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9 Pre-Test: Chemical Names and Formulas Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9 Post-Test: Chemical Names and Formulas Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9 Editable Study Workbook Study WB Chapter 9 Lesson 1 Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Study WB Chapter 9 Lesson 2 Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Study WB Chapter 9 Lesson 3 Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Study WB Chapter 9 Lesson 4 Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Study WB Chapter 9 Lesson 5 Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Foundations Study WB Chapter 9 Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9 Editable Labs Ch. 9 Lab Practicals: Nomenclature: Chemical Names and Formulas Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Ch. 9 Quick Lab Record Sheet Curriculum Standards: Explain how to determine the charges of monatomic ions. Explain how polyatomic ions differ from and are similar to monatomic ions. Apply the rules for naming and writing formulas for binary ionic compounds. Apply the rules for naming and writing formulas for compounds with polyatomic ions. Apply the rules for naming and writing formulas for binary molecular compounds. Determine the name and formula of an acid. Determine the name and formula of a base. Explain how the law of definite proportions is consistent with Dalton‰Ûªs atomic theory. List the general guidelines that can help you write the name and formula of a chemical compound. Chapter 9 Editable Assessments Ch. 9 Core TR: Chapter Quiz Ch. 9 Core TR: Chapter Test A Ch. 9 Core TR: Chapter Test B Chapter 9 Additional Editable Resources Ch. 9 Core TR: Section 1 Review Ch. 9 Core TR: Section 2 Review Ch. 9 Core TR: Section 3 Review Ch. 9 Core TR: Section 4 Review Ch. 9 Core TR: Section 5 Review Ch. 9 Core TR: Practice Problems Ch. 9 Core TR: Interpreting Graphics Ch. 9 Core TR: Vocabulary Review Chapter 9 Image Library Figure 9.1 Table 9.1 Figure 9.2 Figure 9.3 Figure 9.4 Table 9.2 Figure 9.5 Table 9.3 Figure 9.6_part1 Figure 9.6_part2 Figure 9.7 Figure 9.8 Figure 9.10_part1 Figure 9.10_part2 Table 9.4 Figure 9.12 Figure 9.13 Table 9.5 Table 9.6 Figure 9.14 Figure 9.15 Figure 9.16 Figure 9.17 Figure 9.18 Figure 9.19 Image 1, p. 298 Image 1, p. 299 Image 1, p. 300 Image 2, p. 300 Image 1, p. 301 Image 1, p. 302 Image 1, p. 303 Image 2, p. 303 Chapter 10: Chemical Quantities Chapter-Level Activities Ch. 10 Math Tutorial A: Unit Conversion Ch. 10 Math Tutorial B: Circle Graphs Ch. 10 Concepts in Action: Your Daily Percent Composition Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Ch. 10 Directed Virtual Lab: Counting Atoms by Measuring Mass Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Ch. 10 Problem Set Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Ch. 10 It’s the Mole…So What? Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Chapter 10 Flash Cards 10.1 The Mole: A Measurement of Matter 10.1 Chemistry Tutorial: Converting Number of Atoms to Moles and Vice Versa Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. 10.1 Chemistry Tutorial: Finding the Molar Mass of a Compound Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. 10.1 Kinetic Art: Molar Mass Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. 10.1 Lesson Overview (PowerPoint file) Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. 10.1 Foundations Chem Tutorial: Converting # of Atoms to Moles Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. 10.1 Foundations Chemistry Tutorial: Finding the Molar Mass of a Compound Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. 10.2 Mole-Mass and Mole-Vol Relationships 10.2 Chemistry Tutorial: Converting Moles to Mass and Mass to Moles Curriculum Standards: Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. 10.2 Kinetic Art: The Mole Map Curriculum Standards: Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. 10.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. 10.2 Foundations Chem Tutorial: Convert Moles to Mass, Mass to Moles 10.2 Foundations Chem Tutorial: Convert Moles to Mass, Mass to MolesExplore conversions between mass and moles in this tutorial. Curriculum Standards: Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. 10.3 % Composition and Chemical Formulas 10.3 Lesson Overview (PowerPoint file) Curriculum Standards: Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. 10.3 Chem Tutorial: Calculating % Comp. from Mass and from a Formula Curriculum Standards: Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. 10.3 Chemistry Tutorial: Determining the Empirical Formula of a Compound Curriculum Standards: Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. 10.3 Foundations Chem Tutorial: Calculating % Comp. from Mass/Formula Curriculum Standards: Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. 10.3 Foundations Chem Tutorial: Determining the Emp. Form. of Compound Curriculum Standards: Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Chapter 10 Online Student Edition Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Chapter 10.3 Online Student Edition: Percent Composition of a Compound Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. 10.3 Lesson Overview (PowerPoint file) Curriculum Standards: Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. 10.3 Chem Tutorial: Calculating % Comp. from Mass and from a Formula Curriculum Standards: Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. 10.2 Chemistry Tutorial: Converting Moles to Mass and Mass to Moles Curriculum Standards: Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. 10.3 Chemistry Tutorial: Determining the Empirical Formula of a Compound Curriculum Standards: Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. 10.2 Kinetic Art: The Mole Map Curriculum Standards: Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. 10.1 Chemistry Tutorial: Converting Number of Atoms to Moles and Vice Versa Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. 10.1 Chemistry Tutorial: Finding the Molar Mass of a Compound Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. 10.1 Kinetic Art: Molar Mass Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. 10.1 Lesson Overview (PowerPoint file) Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Chapter 10.1 Binary Ionic Compounds Curriculum Standards: Convert among the count, mass, and volume of something. Chapter 10.1 What is a Mole? Curriculum Standards: Explain how chemists count the number of atoms, molecules, or formula units in a substance. Chapter 10.2: The Mole-Volume Relationship Curriculum Standards: Convert the volume of a gas at STP to the number of moles of the gas. Chapter 10.3: Empirical Formulas Curriculum Standards: Distinguish between empirical and molecular formulas. Chapter 10 Pre-Test: Chemical Quantities Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Chapter 10 Post-Test: Chemical Quantities Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Chapter 10 Editable Study Workbook Study WB Chapter 10 Lesson 1 Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Study WB Chapter 10 Lesson 2 Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Study WB Chapter 10 Lesson 3 Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Foundations Study WB Chapter 10 Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Chapter 10 Editable Labs Ch. 10 Lab 12: The Masses of Equal Volumes of Gases Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Ch. 10 Lab 13: Empirical Formula Determination Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Ch. 10 Lab Practicals: Chemical Quantities: Empirical Formulas Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Ch. 10 Quick Lab Record Sheet Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Chapter 10 Editable Assessments Ch. 10 Core TR: Chapter Quiz Ch. 10 Core TR: Chapter Test A Ch. 10 Core TR: Chapter Test B Benchmark Test 2 Part A (follows Chapters 6-10) Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Benchmark Test 2 Part B (follows Chapters 6-10) Curriculum Standards: Convert among the count, mass, and volume of something. Explain how chemists count the number of atoms, molecules, or formula units in a substance. Determine the molar mass of an element and of a compound. Describe how to convert the mass of a substance to the number of moles of a substance, and moles to mass. Convert the volume of a gas at STP to the number of moles of the gas. Calculate the percent by mass of an element in a compound. Calculate the empirical formula of a compound. Distinguish between empirical and molecular formulas. Chapter 10 Additional Editable Resources Ch. 10 Core TR: Section 1 Review Ch. 10 Core TR: Section 2 Review Ch. 10 Core TR: Section 3 Review Ch. 10 Core TR: Practice Problems Ch. 10 Core TR: Interpreting Graphics Ch. 10 Core TR: Vocabulary Review Chapter 10 Image Library Figure 10.1 Table 10.1 Figure 10.3 Table 10.2 Figure 10.5 Figure 10.6 Figure 10.7_part1 Figure 10.7_part2 Figure 10.8 Figure 10.9_part1 Figure 10.9_part2 Figure 10.10 Figure 10.11_part1 Figure 10.11_part2 Table 10.3 Figure 10.12 Image 1, p. 339 Image 1, p. 340 Image 2, p. 340 Image 1, p. 341 Chapter 11: Chemical Reactions Chapter-Level Activities Ch. 11 Math Tutorial: Balancing Equations Ch. 11 Concepts in Action: A Balanced Equation for Fire Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Predict the products of the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Directed Virtual Lab: Identification of Cations in Solution Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Predict the products of the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Problem Set Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Predict the products of the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Nobel Efforts Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Predict the products of the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Chapter 11 Flash Cards 11.1 Describing Chemical Reactions 11.1 Kinetic Art: Balancing Equations Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. 11.1 Chemistry Tutorial: Balancing a Chemical Equation Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. 11.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. 11.1 Foundations Chemistry Tutorial: Balancing a Chemical Equation Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. 11.2 Types of Chemical Reactions 11.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the five general types of reactions. Predict the products of the five general types of reactions. 11.2 Chemistry Tutorial: Writing Equations for Double-Replacement Reactions Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Predict the products of the five general types of reactions. 11.2 Foundations Chem Tutorial: Writing Eq for Double-Replacement Rxns Curriculum Standards: Describe the five general types of reactions. Predict the products of the five general types of reactions. 11.3 Reactions in Aqueous Solution 11.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. 11.3 Chemistry Tutorial: Writing and Balancing Net Ionic Equations Curriculum Standards: Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. 11.3 Foundations Chem Tutorial: Writing and Balancing Net Ionic Eq. Curriculum Standards: Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Chapter 11 Online Student Edition Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Predict the products of the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Chapter 11.2 Online Student Edition: Classifying Reactions Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Concepts in Action: A Balanced Equation for Fire Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Predict the products of the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Directed Virtual Lab: Identification of Cations in Solution Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Predict the products of the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. 11.1 Kinetic Art: Balancing Equations Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. 11.3 Chemistry Tutorial: Writing and Balancing Net Ionic Equations Curriculum Standards: Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. 11.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Chapter 11.1 Introduction to Chemical Equations Curriculum Standards: Describe how to write a skeleton equation. Chapter 11.1: Balancing Chemical Equations Curriculum Standards: Describe the five general types of reactions. Chapter 11.3: Net Ionic Equations Curriculum Standards: Describe the information found in a net ionic equation. Chapter 11.3: Predicting the Formation of a Precipitate Curriculum Standards: Predict the formation of a precipitate in a double-replacement reaction. Chapter 11 Pre-Test: Chemical Reactions Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Chapter 11 Post-Test: Chemical Reactions Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Chapter 11 Editable Study Workbook Study WB Chapter 11 Lesson 1 Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Study WB Chapter 11 Lesson 2 Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Study WB Chapter 11 Lesson 3 Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Foundations Study WB Chapter 11 Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Chapter 11 Editable Labs Ch. 11 Lab 14: Types of Chemical Reactions Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Lab 15: Reactivity of Metals Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Lab 16: Identification of Anions and Cations in Solution Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Lab 17: Precipitation Reactions Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Lab 18: Qualitative Analysis Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Ch. 11 Lab Practicals: Chemical Reactions Curriculum Standards: Describe how to write a skeleton equation. Describe the steps for writing and balancing a chemical equation. Describe the five general types of reactions. Describe the information found in a net ionic equation. Predict the formation of a precipitate in a double-replacement reaction. Chapter 11 Editable Assessments Ch. 11 Core TR: Chapter Quiz Ch. 11 Core TR: Chapter Test A Ch. 11 Core TR: Chapter Test B Chapter 11 Additional Editable Resources Ch. 11 Core TR: Section 1 Review Ch. 11 Core TR: Section 2 Review Ch. 11 Core TR: Section 3 Review Ch. 11 Core TR: Practice Problems Ch. 11 Core TR: Interpreting Graphics Ch. 11 Core TR: Vocabulary Review Chapter 11 Image Library Image 1, p. 344 Figure 11.3_part1 Figure 11.3_part2 Table 11.1 Image 1, p. 350 Image 2, p. 350 Figure 11.4 Figure 11.5 Figure 11.6 Table 11.2 Figure 11.7 Figure 11.8 Image 1, p. 366_part1 Image 1, p. 366_part2 Image 2, p. 366_part1 Image 2, p. 366_part2 Image 2, p. 366_part3 Image 3, p. 366_part1 Image 3, p. 366_part2 Image 3, p. 366_part3 Image 1, p. 367_part1 Image 1, p. 367_part2 Image 2, p. 367 Image 1, p. 369 Figure 11.9 Figure 11.10 Table 11.3 Figure 11.11 Image 1, p. 378_part1 Image 1, p. 378_part2 Image 1, p. 378_part3 Image 1, p. 378_part4 Image 1, p. 379 Image 1, p. 380 Image 2, p. 380 Image 1, p. 381 Image 2, p. 381 Chapter 12: Stoichiometry Chapter-Level Activities Ch. 12 Math Tutorial A: Percents Ch. 12 Math Tutorial A: PercentsExplore percents in this tutorial. Ch. 12 Math Tutorial B: Limiting Factors Ch. 12 Concepts in Action: Skateboard Stoichiometry Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Ch. 12 Directed Virtual Lab: Analysis of Baking Soda Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Ch. 12 Problem Set Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Ch. 12 Avogadro's Cookies Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Chapter 12 Flash Cards 12.1 The Arithmetic of Equations 12.1 Chemistry Tutorial: Using a Balanced Equation as a Recipe Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. 12.1 Kinetic Art: Interpreting a Balanced Chemical Equation Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. 12.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. 12.1 Foundations Chemistry Tutorial: Using a Balanced Equation as a Recipe Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. 12.2 Chemical Calculations 12.2 Chemistry Tutorial: Calculating the Mass of a Product Curriculum Standards: Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. 12.2 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. 12.2 Foundations Chemistry Tutorial: Calculating the Mass of a Product Curriculum Standards: Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. 12.3 Limiting Reagent and Percent Yield 12.3 Chemistry Tutorial: Determining the Limiting Reagent in a Reaction Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. 12.3 Chemistry Tutorial: Calculating Yield of a Reaction Curriculum Standards: Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. 12.3 Kinetic Art: Limiting Reagents Curriculum Standards: Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. 12.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. 12.3 Foundations Chem Tutorial: Determine Limiting Reagent in a Rxn Curriculum Standards: Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. 12.3 Foundations Chem Tutorial: Calculating Yield of a Reaction Curriculum Standards: Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Chapter 12 Online Student Edition Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Chapter 12.1 Online Student Edition: Chemical Equations Curriculum Standards: Describe the quantities you can use to interpret a balanced chemical equation. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. 12.2 Chemistry Tutorial: Calculating the Mass of a Product Curriculum Standards: Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Ch. 12 Directed Virtual Lab: Analysis of Baking Soda Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. 12.3 Chemistry Tutorial: Determining the Limiting Reagent in a Reaction Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. 12.1 Kinetic Art: Interpreting a Balanced Chemical Equation Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. 12.3 Chemistry Tutorial: Calculating Yield of a Reaction Curriculum Standards: Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. 12.3 Kinetic Art: Limiting Reagents Curriculum Standards: Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Chapter 12.1 Online Student Edition: Using Equations Curriculum Standards: Describe how chemists use balanced chemical equations. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. 12.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Chapter 12.3: Percent Yield Curriculum Standards: Explain what the percent yield of a reaction measures. Chapter 12 Pre-Test: Stoichiometry Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Chapter 12 Post-Test: Stoichiometry Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Chapter 12 Editable Study Workbook Study WB Chapter 12 Lesson 1 Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Study WB Chapter 12 Lesson 2 Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Study WB Chapter 12 Lesson 3 Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Foundations Study WB Chapter 12 Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Chapter 12 Editable Labs Ch. 12 Lab 19: Quantitative Analysis Ch. 12 Lab 19: Quantitative AnalysisStudent Lab Manual pages Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Ch. 12 Lab 20: Balanced Chemical Equations Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Ch. 12 Lab Practicals: Stoichiometry in a Reaction and Limiting Reagants Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Optional Lab Practicals: Quantitative Analysis Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Ch. 12 Quick Lab Record Sheet Curriculum Standards: Describe how chemists use balanced chemical equations. Describe the quantities you can use to interpret a balanced chemical equation. Identify the questions that are always conserved in chemical reactions. Explain how mole ratios are used in chemical calculations. Explain the general procedure for solving a stoichiometric problem. Explain how the amount of product in a reaction is affected by an insufficient quantity of any of the reactants. Explain what the percent yield of a reaction measures. Chapter 12 Editable Assessments Ch. 12 Core TR: Chapter Quiz Ch. 12 Core TR: Chapter Test A Ch. 12 Core TR: Chapter Test B Chapter 12 Additional Editable Resources Ch. 12 Core TR: Section 1 Review Ch. 12 Core TR: Section 2 Review Ch. 12 Core TR: Section 3 Review Ch. 12 Core TR: Practice Problems Ch. 12 Core TR: Interpreting Graphics Ch. 12 Core TR: Vocabulary Review Chapter 12 Image Library Image 1, p. 384 Figure 12.2 Figure 12.3 Figure 12.4 Figure 12.5 Figure 12.7 Figure 12.9_part1 Figure 12.9_part2 Figure 12.9_part3 Image 1, p. 409 Image 1, p. 412 Image 1, p. 413 Image 2, p. 413 Image 1, p. 414 Image 1, p. 417 Image 2, p. 417 Chapter 13: States of Matter Chapter-Level Activities Ch. 13 Math Tutorial: Reading Graphs Ch. 13 Concepts in Action: Brick and Mortar Crystal Palaces Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Ch. 13 Directed Virtual Lab: Ionic Compounds and Water Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Ch. 13 Allotrope Applications Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Ch 13 Problem Set Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13 Flash Cards 13.1 Nature of Gases 13.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. 13.1 Chemistry Tutorial: Converting Between Units of Pressure Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. 13.1 Foundations Chemistry Tutorial: Converting Between Units of Pressure Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. 13.2 Nature of Liquids 13.2 Kinetic Art: Evaporation Curriculum Standards: Interpret gas pressure in terms of kinetic theory. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. 13.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. 13.3 Nature of Solids 13.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. 13.4 Changes of States 13.4 Kinetic Art: Change In State Curriculum Standards: Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. 13.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13 Online Student Edition Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13.2 Online Student Edition: Evaporation Curriculum Standards: Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Ch. 13 Concepts in Action: Brick and Mortar Crystal Palaces Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. 13.4 Kinetic Art: Change In State Curriculum Standards: Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13.2 Online Student Edition: Boiling Point Curriculum Standards: Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Study WB Chapter 13 Lesson 1 Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Study WB Chapter 13 Lesson 2 Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. 13.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. 13.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. 13.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. 13.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13.3 Online Student Edition: A Model for Solids Curriculum Standards: Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Chapter 13.4 Online Student Edition: Sublimation Curriculum Standards: Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13.4 Online Student Edition: Phase Diagrams Curriculum Standards: Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13.1 Online Student Edition: Kinetic Energy and Temperature Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Chapter 13.2 Online Student Edition: Vapor Pressure Curriculum Standards: Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Chapter 13.2 Online Student Edition: A Model for Liquids Curriculum Standards: Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Chapter 13.1 Online Student Edition: Kinetic Theory and a Model for Gases Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Chapter 13.1 Online Student Edition: Kinetic Theory and a Model for Gases_1 Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Chapter 13 Pre-Test: States of Matter Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13 Post-Test: States of Matter Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13 Editable Study Workbook Study WB Chapter 13 Lesson 1 Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Study WB Chapter 13 Lesson 2 Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Study WB Chapter 13 Lesson 3 Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Study WB Chapter 13 Lesson 4 Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Foundations Study WB Chapter 13 Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13 Editable Labs Ch. 13 Lab 21: Allotropic Forms of Sulfur Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Ch. 13 Lab 22: Changes of Physical State Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Ch. 13 Lab Practicals: The States of Matter Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Ch. 13 Quick Lab Record Sheet Curriculum Standards: Describe the three assumptions of the kinetic theory as it applies to gases. Interpret gas pressure in terms of kinetic theory. Define the relationship between the temperature in kelvins and the average kinetic energy of particles. Identify the factors that determine physical properties of a liquid. Define evaporation in terms of kinetic energy. Define the conditions under which a dynamic equilibrium can exist between a liquid and its vapor. Identify the conditions under which boiling occurs. Describe how the structure and properties of solids are related. Identify the factors that determine the shape of a crystal. Identify the conditions necessary for sublimation. Determine how the conditions at which phases are in equilibrium are represented on a phase diagram. Chapter 13 Editable Assessments Ch. 13 Core TR: Chapter Quiz Ch. 13 Core TR: Chapter Test A Ch. 13 Core TR: Chapter Test B Chapter 13 Additional Editable Resources Ch. 13 Core TR: Section 1 Review Ch. 13 Core TR: Section 2 Review Ch. 13 Core TR: Section 3 Review Ch. 13 Core TR: Section 4 Review Ch. 13 Core TR: Practice Problems Ch. 13 Core TR: Interpreting Graphics Ch. 13 Core TR: Vocabulary Review Chapter 13 Image Library Image 1, p. 418 Figure 13.1_part1 Figure 13.1_part2 Figure 13.2 Figure 13.3 Figure 13.4 Figure 13.5_part1 Figure 13.5_part2 Figure 13.6_part1 Figure 13.6_part2 Figure 13.6_part3 Table 13.1 Figure 13.7_part1 Figure 13.7_part2 Figure 13.7_part3 Figure 13.8_part1 Figure 13.8_part2 Figure 13.8_part3 Figure 13.9 Table 13.2 Image 1, p. 431 Figure 13.11 Figure 13.12_part1 Figure 13.12_part2 Figure 13.12_part3 Figure 13.12_part4 Figure 13.12_part5 Figure 13.12_part6 Figure 13.12_part7 Figure 13.12_part8 Figure 13.13 Figure 13.14_part1 Figure 13.14_part2 Figure 13.14_part3 Figure 13.15_part1 Figure 13.15_part2 Figure 13.17 Figure 13.18 Image 1, p. 443 Image 1, p. 444 Image 2, p. 444 Image 1, p. 445 Image 1, p. 447 Image 2, p. 447 Chapter 14: The Behavior of Gases Chapter-Level Activities Ch. 14 Math Tutorial A: Multistep Equations Ch. 14 Math Tutorial A: Multistep Equations Ch. 14 Directed Virtual Lab: Comparing Real and Ideal Gases Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Ch. 14 Concepts in Action: Triathlons are a Gas! Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Ch. 14 Problem Set Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Ch. 14 A Fresh Look at Fresh Fruit Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Chapter 14 Flash Cards 14.1 Properties of Gases 14.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. 14.2 The Gas Laws 14.2 Chemistry Tutorial: Using the Gas Laws Curriculum Standards: Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. 14.2 Chemistry Tutorial: Using the Combined Gas Law Curriculum Standards: Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. 14.2 Kinetic Art: Charles's Law Curriculum Standards: Describe the relationships among pressure, volume, and temperature of a gas. 14.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the relationships among pressure, volume, and temperature of a gas. 14.2 Foundations Chemistry Tutorial: Using the Gas Laws Curriculum Standards: Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. 14.2 Foundations Chemistry Tutorial: Using the Combined Gas Law Curriculum Standards: Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. 14.3 Ideal Gases 14.3 Chemistry Tutorial: Using the Ideal Gas Law Curriculum Standards: Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. 14.3 Lesson Overview (PowerPoint file) Curriculum Standards: Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. 14.3 Foundations Chemistry Tutorial: Using the Ideal Gas Law Curriculum Standards: Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. 14.4 Gases: Mixtures and Movements 14.4 Chemistry Tutorial: Using Dalton's Law of Partial Pressures Curriculum Standards: Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. 14.4 Kinetic Art: Partial Pressure of Gases Curriculum Standards: Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. 14.4 Lesson Overview (PowerPoint file) Curriculum Standards: Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. 14.4 Foundations Chemistry Tutorial: Dalton's Law of Partial Pressures Curriculum Standards: Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Chapter 14 Online Student Edition Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Chapter 14.4 Online Student Edition: Graham's Law Curriculum Standards: Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Chapter 14.1 Online Student Edition: Compressibility Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Chapter 14.1 Online Student Edition: Compressibility_1 Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Ch. 14 Directed Virtual Lab: Comparing Real and Ideal Gases Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. 14.3 Chemistry Tutorial: Using the Ideal Gas Law Curriculum Standards: Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Ch. 14 Concepts in Action: Triathlons are a Gas! Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. 14.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. 14.3 Lesson Overview (PowerPoint file) Curriculum Standards: Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. 14.4 Chemistry Tutorial: Using Dalton's Law of Partial Pressures Curriculum Standards: Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. 14.4 Kinetic Art: Partial Pressure of Gases Curriculum Standards: Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. 14.2 Chemistry Tutorial: Using the Gas Laws Curriculum Standards: Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. 14.4 Lesson Overview (PowerPoint file) Curriculum Standards: Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. 14.2 Chemistry Tutorial: Using the Combined Gas Law Curriculum Standards: Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Chapter 14.3: Ideal Gases and Real Gases Curriculum Standards: Determine the conditions under which real gases are most likely to differ from ideal gases. Chapter 14 Pre-Test: The Behavior of Gases Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Chapter 14 Post-Test: The Behavior of Gases Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Chapter 14 Editable Study Workbook Study WB Chapter 14 Lesson 1 Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Study WB Chapter 14 Lesson 2 Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Study WB Chapter 14 Lesson 3 Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Study WB Chapter 14 Lesson 4 Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Foundations Study WB Chapter 14 Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Chapter 14 Editable Labs Ch. 14 Lab 23: Pressure-Volume Relationships of Gases Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Ch. 14 Lab 24: Temperature-Volume Relationships of Gases Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Ch. 14 Lab 25: Diffusion of Gases Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Ch. 14 Lab Practicals: The Behavior of Gases: Boyle's Law and Charles's Law Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Ch. 14 Quick Lab Record Sheet Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Chapter 14 Editable Assessments Ch. 14 Core TR: Chapter Quiz Ch. 14 Core TR: Ch. Test A Ch. 14 Core TR: Ch. Test B Chapter 14 Additional Editable Resources Ch. 14 Core TR: Section 1 Review Ch. 14 Core TR: Section 2 Review Ch. 14 Core TR: Section 3 Review Ch. 14 Core TR: Section 4 Review Ch. 14 Core TR: Practice Problems Ch. 14 Core TR: Interpreting Graphics Ch. 14 Core TR: Vocabulary Review Chapter 14 Image Library Image 1, p. 448 Figure 14.1 Figure 14.2 Figure 14.4 Figure 14.5 Figure 14.6 Figure 14.7 Figure 14.8 Figure 14.9_part1 Figure 14.9_part2 Figure 14.9_part3 Figure 14.10 Figure 14.11 Figure 14.13 Figure 14.14 Figure 14.15 Table 14.1 Figure 14.16 Figure 14.17_part1 Figure 14.17_part2 Figure 14.17_part3 Figure 14.18 Image 1, p. 480 Image 1, p. 481 Image 1, p. 482 Image 2, p. 482 Image 3, p. 482 Image 1, p. 483 Image 1, p. 484 Image 2, p. 484 Image 1, p. 485 Image 2, p. 485 Chapter 15: Water and Aqueous Systems Chapter-Level Activities Ch. 15 Concepts in Action: An Afternoon at Home, Emulsified Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Ch. 15 Directed Virtual Lab: The Conductivity of Electrolyte Solutions Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Ch. 15 S’mores the Merrier Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Ch. 15 Problem Set Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Chapter 15 Flash Cards 15.1 Water and Its Properties 15.1 Kinetic Art: Hydrogen Bonding Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. 15.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. 15.2 Homogeneous Aqueous Solutions 15.2 Chemistry Tutorial: Finding the Percent by Mass of Water in a Hydrate Curriculum Standards: Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. 15.2 Kinetic Art: Solvation of Ionic Compounds Curriculum Standards: Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. 15.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. 15.2 Foundations Chem Tutorial: Find % by Mass of Water in a Hydrate 15.2 Foundations Chem Tutorial: Find % by Mass of Water in a HydrateExplore the percent of water in a hydrate in this tutorial. Curriculum Standards: Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. 15.3 Heterogeneous Aqueous Systems 15.3 Lesson Overview (PowerPoint file) Curriculum Standards: Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Chapter 15 Online Student Edition Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Chapter 15.2 Online Student Edition: Hydrates Curriculum Standards: Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Chapter 15.3 Online Student Edition: Colloids Curriculum Standards: Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Ch. 15 Directed Virtual Lab: The Conductivity of Electrolyte Solutions Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. 15.3 Lesson Overview (PowerPoint file) Curriculum Standards: Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. 15.1 Kinetic Art: Hydrogen Bonding Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. 15.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. 15.2 Kinetic Art: Solvation of Ionic Compounds Curriculum Standards: Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. 15.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Study WB Chapter 15 Lesson 2 Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Chapter 15.1: Water in the Liquid State Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Chapter 15.3: Solutions Curriculum Standards: Distinguish between a suspension and a solution. Chapter 15 Pre-Test: Water and Aqueous Systems Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Chapter 15 Post-Test: Water and Aqueous Systems Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Chapter 15 Editable Study Workbook Study WB Chapter 15 Lesson 1 Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Study WB Chapter 15 Lesson 2 Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Study WB Chapter 15 Lesson 3 Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Foundations Study WB Chapter 15 Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Chapter 15 Editable Labs Ch. 15 Lab 27: The Solvent Properties of Water Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Ch. 15 Lab 28: Water of Hydration Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Ch. 15 Lab 29: Electrolytes and Nonelectrolytes Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Ch. 15 Lab Practicals: Water and Aqueous Systems Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Ch. 15 Quick Lab Record Sheet Curriculum Standards: Identify the factor that causes the high surface tension, low vapor pressure, and high boiling point of water. Describe the structure of ice. Identify the types of substances that dissolve most readily in water. Explain why all ionic compounds are electrolytes. Explain why hydrates easily lose and regain water. Distinguish between a suspension and a solution. Identify how to distinguish a colloid from a suspension and a solution. Chapter 15 Editable Assessments Ch. 15 Core TR: Chapter Quiz Ch. 15 Core TR: Chapter Test A Ch. 15 Core TR: Chapter Test B Chapter 15 Additional Editable Resources Ch. 15 Core TR: Section 1 Review Ch. 15 Core TR: Section 2 Review Ch. 15 Core TR: Section 3 Review Ch. 15 Core TR: Practice Problems Ch. 15 Core TR: Vocabulary Review Chapter 15 Image Library Figure 15.2 Figure 15.3 Figure 15.4_part1 Figure 15.4_part2 Table 15.1 Figure 15.6_part1 Figure 15.6_part2 Figure 15.7 Image 1, p. 494 Figure 15.8 Figure 15.10_part1 Figure 15.10_part2 Figure 15.10_part3 Figure 15.12_part1 Figure 15.12_part2 Figure 15.13 Table 15.2 Figure 15.14 Figure 15.15 Figure 15.16_part1 Figure 15.16_part2 Table 15.3 Figure 15.17_part1 Figure 15.17_part2 Table 15.4 Image 1, p. 511 Image 1, p. 512 Image 1, p. 513 Image 1, p. 514 Image 1, p. 515 Image 2, p. 515 Chapter 16: Solutions Chapter-Level Activities Ch. 16 Math Tutorial A: Converting Units Ch. 16 Math Tutorial B: Solving Equations Ch. 16 Concepts in Action: Sorbet Solutions Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Ch. 16 Directed Virtual Lab: Solutions Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Ch. 16 Problem Set Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Ch. 16 The Truth About Solutions Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 16 Flash Cards 16.1 Properties of Solutions 16.1 Chemistry Tutorial: Using Henry's Law Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. 16.1 Kinetic Art: Dynamic Equilibrium of Saturated Solutions Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. 16.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. 16.1 Foundations Chemistry Tutorial: Using Henrys Law Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. 16.2 Concentrations of Solutions 16.2 Chemistry Tutorial: Calculating Molarity Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. 16.2 Chemistry Tutorial: Preparing a Dilute Solution Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. 16.2 Lesson Overview (PowerPoint file) Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. 16.2 Foundations Chemistry Tutorial: Calculating Molarity Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. 16.2 Foundations Chemistry Tutorial: Preparing a Dilute Solution Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. 16.3 Colligative Properties 16.3 Kinetic Art: Vapor Pressure Curriculum Standards: Explain how colligative properties can be explained on a particle basis. 16.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how colligative properties can be explained on a particle basis. 16.4 Calculations Involving Colligative Properties 16.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. 16.4 Chemistry Tutorial: Calculating Freezing-Point Depression Curriculum Standards: Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. 16.4 Foundations Chem Tutorial: Calc. the Freezing-Point Depr. of Sol. Curriculum Standards: Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 16 Online Student Edition Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 16.1 Online Student Edition: Properties of Solutions Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Chapter 16.1 Online Student Edition: Solubility Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Chapter 16.2 Online Student Edition: Molarity Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Chapter 16.2 Online Student Edition: Molarity Chapter 16.2 Online Student Edition: MolarityThe Student eText presents the content necessary for a deep understanding of solutions. Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Chapter 16.4 Online Student Edition: Molality and Mole Fraction Curriculum Standards: Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. 16.4 Online Stu. Ed.: Freezing Point Depress. and Boiling-Point Elev. Curriculum Standards: Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 16.1 Online Student Edition: Solubility Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. 16.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. 16.2 Chemistry Tutorial: Calculating Molarity Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. 16.4 Chemistry Tutorial: Calculating Freezing-Point Depression Curriculum Standards: Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Ch. 16 Directed Virtual Lab: Solutions Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. 16.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how colligative properties can be explained on a particle basis. 16.1 Kinetic Art: Dynamic Equilibrium of Saturated Solutions Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. 16.2 Chemistry Tutorial: Preparing a Dilute Solution Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. 16.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. 16.2 Lesson Overview (PowerPoint file) Curriculum Standards: Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Chapter 16 Pre-Test: Solutions Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 16 Post-Test: Solutions Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 16 Editable Study Workbook Study WB Chapter 16 Lesson 1 Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Study WB Chapter 16 Lesson 2 Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Study WB Chapter 16 Lesson 3 Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Study WB Chapter 16 Lesson 4 Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Foundations Study WB Chapter 16 Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 16 Editable Labs Ch. 16 Lab 30: Factors Affecting Solution Formation Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Ch. 16 Lab 31: Supersaturation Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Ch. 16 Lab 33: Freezing Point Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Ch. 16 Quick Lab Record Sheet Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chs. 2 and 16 Lab Practicals: Chromatography Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 16 Editable Assessments Ch. 16 Core TR: Chapter Quiz Ch. 16 Core TR: Chapter Test A Ch. 16 Core TR: Chapter Test B Benchmark Test 3 Part A (follows Chapters 11-16) Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Benchmark Test 3 Part B (follows Chapters 11-16) Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 16 Image Library Figure 16.1_part1 Figure 16.1_part2 Figure 16.1_part3 Figure 16.2 Figure 16.3 Figure 16.4 Figure 16.5 Table 16.1 Figure 16.6_part1 Figure 16.6_part2 Figure 16.6_part3 Figure 16.6_part4 Figure 16.7 Figure 16.8_part1 Figure 16.8_part2 Figure 16.8_part3 Figure 16.9 Figure 16.10_part1 Figure 16.10_part2 Figure 16.10_part3 Figure 16.11 Figure 16.12_part1 Figure 16.12_part2 Figure 16.12_part3 Figure 16.12_part4 Figure 16.13_part1 Figure 16.13_part2 Figure 16.15 Figure 16.16 Table 16.2 Image 1, p. 549 Image 2, p. 549 Image 1, p. 550 Image 2, p. 550 Image 1, p. 551 Image 1, p. 552 Image 1, p. 553 Image 2, p. 553 Chapter 17: Thermochemistry Chapter-Level Activities Ch. 17 Math Tutorial: Solving Multistep Literal Equations Ch. 17 Math Tutorial: Solving Multistep Literal EquationsExplore multistep literal equations in this tutorial. Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Ch. 17 Concepts in Action: A Tremendous Capacity for Heat Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Ch. 17 Directed Virtual Lab: Heat of Combustion Ch. 17 Problem Set Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Ch. 17 Turning Up the Heat Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Chapter 17 Flash Cards 17.1 The Flow of Energy 17.1 Chemistry Tutorial: Calculating the Specific Heat of a Substance Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. 17.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. 17.1 Foundations Chem Tutorial: Calc. the Specific Heat of a Substance Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. 17.2 Measuring and Expressing Enthalpy Changes 17.2 Chemistry Tutorial: Enthalpy Change in a Calorimetry Experiment Curriculum Standards: Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. 17.2 Kinetic Art: Bomb Calorimeter Curriculum Standards: Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. 17.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. 17.2 Foundations Chemistry Tutorial: Enthalpy Change in a Calorimetry Experiment Curriculum Standards: Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. 17.3 Heat in Changes of State 17.3 Chemistry Tutorial: Using the Heat of Fusion and Vaporization in Phase-Change Calculations Curriculum Standards: Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. 17.3 Lesson Overview (PowerPoint file) Curriculum Standards: Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. 17.3Foundations Chemistry Tutorial: Using the Heat of Fusion and Vaporization Curriculum Standards: Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. 17.4 Calculating Heats of Reaction 17.4 Chemistry Tutorial: Calculating the Standard Heat of Reaction Curriculum Standards: Identify two ways that you can determine the heat of reaction when it cannot be directly measured. 17.4 Kinetic Art: Hess's Law Curriculum Standards: Identify two ways that you can determine the heat of reaction when it cannot be directly measured. 17.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify two ways that you can determine the heat of reaction when it cannot be directly measured. 17.4 Foundations Chem Tutorial: Calc. the Standard Heat of Reaction Curriculum Standards: Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Chapter 17 Online Student Edition Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Chapter 17.1 Online Student Edition: Heat Capacity and Specific Heat Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Chapter 17.3 Online Student Edition: Heats of Vaporization and Condensation Curriculum Standards: Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. 17.2 Chemistry Tutorial: Enthalpy Change in a Calorimetry Experiment Curriculum Standards: Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. 17.4 Chemistry Tutorial: Calculating the Standard Heat of Reaction Curriculum Standards: Identify two ways that you can determine the heat of reaction when it cannot be directly measured. 17.2 Kinetic Art: Bomb Calorimeter Curriculum Standards: Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. 17.4 Kinetic Art: Hess's Law Curriculum Standards: Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Ch. 17 Concepts in Action: A Tremendous Capacity for Heat Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. 17.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. 17.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. 17.3 Lesson Overview (PowerPoint file) Curriculum Standards: Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Chapter 17.1 Online Student Edition: The Flow of Energy Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Chapter 17.3 Online Student Edition: Thermochemical Equations Curriculum Standards: Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Chapter 17.4 Online Student Edition: Heats of Solution Curriculum Standards: Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Chapter 17.3 Online Student Edition: Heats of Fusion and Solidification Curriculum Standards: Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Chapter 17.1 Online Student Edition: The Flow of Energy_1 Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Chapter 17 Pre-Test: Thermochemistry Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Chapter 17 Post-Test: Thermochemistry Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Chapter 17 Editable Study Workbook Study WB Chapter 17 Lesson 1 Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Study WB Chapter 17 Lesson 2 Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Study WB Chapter 17 Lesson 3 Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Study WB Chapter 17 Lesson 4 Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Foundations Study WB Chapter 17 Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Chapter 17 Editable Labs Ch. 17 Lab 34: The Specific Heat of a Metal Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Ch. 17 Lab 35: Heats of Reaction Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Ch. 17 Lab Practicals: Thermochemistry: Specific Heat Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Ch. 17 Quick Lab Record Sheet Curriculum Standards: Explain the ways in which energy changes can occur. Explain how the energy of the universe before a chemical or physical process is related to the energy of the universe after a chemical or physical process. Identify two factors on which the heat capacity of an object depends. Describe how you measure the change in enthalpy of a reaction. Describe how you express the enthalpy change for a reaction in a chemical equation. Compare the quantity of heat absorbed by a melting solid to the quantity of heat released when the liquid solidifies. Compare the quantity of heat absorbed by a vaporizing liquid to the quantity of heat released when the vapor condenses. Describe thermochemical changes that occur when a solution forms. Identify two ways that you can determine the heat of reaction when it cannot be directly measured. Chapter 17 Editable Assessments Ch. 17 Core TR: Chapter Quiz Ch. 17 Core TR: Chapter Test A Ch. 17 Core TR: Chapter Test B Chapter 17 Additional Editable Resources Ch. 17 Core TR: Section 1 Review Ch. 17 Core TR: Section 2 Review Ch. 17 Core TR: Section 3 Review Ch. 17 Core TR: Section 4 Review Ch. 17 Core TR: Practice Problems Ch. 17 Core TR: Interpreting Graphics Ch. 17 Core TR: Vocabulary Review Chapter 17 Image Library Image 1, p. 556 Figure 17.2_part1 Figure 17.2_part2 Table 17.1 Figure 17.4 Figure 17.6 Figure 17.7 Figure 17.8_part1 Figure 17.8_part2 Figure 17.9_part1 Figure 17.9_part2 Figure 17.10 Table 17.2 Table 17.3 Figure 17.11 Figure 17.12 Figure 17.14 Figure 17.15 Table 17.4 Figure 17.16 Figure 17.17 Image 1, p. 587 Image 1, p. 589 Image 591.1_part1 Image 591.1_part2 Chapter 18: Reaction Rates and Equilibrium Chapter-Level Activities Ch. 18 Math Tutorial: Slope of a Curve Ch. 18 Concepts in Action: Entropy - Gone to the Dogs Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Ch. 18 Directed Virtual Lab: Enthalpy and Entropy Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Ch. 18 Problem Set Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Ch. 18 The Chemistry of Diabetes Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18 Flash Cards 18.1 Rates of Reaction 18.1 Kinetic Art: Collision Theory Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. 18.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. 18.2 The Progress of Chemical 18.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. 18.3 Reversible Reactions and Equilibrium 18.3 Chemistry Tutorial: Expressing and Calculating Keq Curriculum Standards: Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. 18.3 Kinetic Art: Reversible Reactions Curriculum Standards: Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. 18.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. 18.3 Foundations Chemistry Tutorial: Expressing and Calculating Keq Curriculum Standards: Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. 18.4 Solubility Equilibrium 18.4 Chem Tutorial: Finding Eq. Ion Conc. in Sat. Solution Curriculum Standards: Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. 18.4 Chem Tutorial: Find Eq Ion Conc. in the Presence of a Common Ion Curriculum Standards: Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. 18.4 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. 18.4 Foundations Chem Tutorial: Finding Eq. Ion Conc. in Sat. Solution Curriculum Standards: Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. 18.4 Foundations Chemistry Tutorial: Finding Equilibrium Ion Concentrations Curriculum Standards: Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. 18.5 Entropy and Free Energy 18.5 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18 Online Student Edition Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18.1 Online Student Edition: Describing Reaction Rates Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Chapter 18.2 Online Student Edition: Rate Laws Curriculum Standards: Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Ch. 18 Concepts in Action: Entropy - Gone to the Dogs Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. 18.3 Chemistry Tutorial: Expressing and Calculating Keq Curriculum Standards: Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Ch. 18 Directed Virtual Lab: Enthalpy and Entropy Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. 18.3 Kinetic Art: Reversible Reactions Curriculum Standards: Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. 18.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. 18.4 Chem Tutorial: Finding Eq. Ion Conc. in Sat. Solution Curriculum Standards: Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. 18.4 Chem Tutorial: Find Eq Ion Conc. in the Presence of a Common Ion Curriculum Standards: Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Study WB Chapter 18 Lesson 1 Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Study WB Chapter 18 Lesson 5 Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. 18.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. 18.5 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18.5 Online Student Edition: Entropy Curriculum Standards: Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18.5 Online Student Edition: Enthalpy and Entropy Curriculum Standards: Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18.3 Online Student Edition: Reversible Reactions Curriculum Standards: Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Chapter 18.4 Online Student Edition: Solubility Product Constant Curriculum Standards: Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Chapter 18.4 Online Student Edition: The Common Ion Effect Curriculum Standards: Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Chapter 18.5 Online Student Edition: Free Energy Change Curriculum Standards: Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. 18.3 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Chapter 18.2: The Progress of Chemical Reactions Curriculum Standards: Describe how most reactions progress from start to finish. Chapter 18.3: Factors Affecting Equilibrium: Le Chatelier's Principle Curriculum Standards: Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Chapter 18 Pre-Test: Reaction Rates and Equilibrium Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18 Post-Test: Reaction Rates and Equilibrium Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18 Editable Study Workbook Study WB Chapter 18 Lesson 1 Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Study WB Chapter 18 Lesson 2 Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Study WB Chapter 18 Lesson 3 Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Study WB Chapter 18 Lesson 4 Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Study WB Chapter 18 Lesson 5 Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Foundations Study WB Chapter 18 Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18 Editable Labs Ch. 18 Lab 36: Factors Affecting Reaction Rates Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Ch. 18 Lab 37: The Clock Reaction Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Ch. 18 Lab 38: Disturbing Equilibrium Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Ch. 18 Lab 39: A Solubility Product Constant Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Ch. 18 Lab Practicals: Reaction Rates and Equilibrium Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Ch. 18 Quick Lab Record Sheet Curriculum Standards: Describe how to express the rate of a chemical reaction. Identify four factors that influence the rate of a chemical reaction. Describe the relationship between the value of the specific rate constant and the speed of a chemical reaction. Describe how most reactions progress from start to finish. Describe what happens at the molecular level in a chemical system at equilibrium. Identify the three stresses that can cause aåÊchange in the equilibrium position of a chemical system. Describe what the size of an equilibrium constant indicates about a system at equilibrium. Describe the relationship between the solubility product constant and the solubility of a compound. Predict whether a precipitation will occur when two solutions are mixed. Identify the two characteristics of spontaneous reactions. Identify the part entropy plays in a chemical reaction. Identify the two factors that determine whether a reaction is spontaneous. Describe how the value of ‰ö G is related to the spontaneity of a reaction. Chapter 18 Editable Assessments Ch. 18 Core TR: Chapter Quiz Ch. 18 Core TR: Ch. Test A Ch. 18 Core TR: Ch. Test B Chapter 18 Additional Editable Resources Ch. 18 Core TR: Section 1 Review Ch. 18 Core TR: Section 2 Review Ch. 18 Core TR: Section 3 Review Ch. 18 Core TR: Section 4 Review Ch. 18 Core TR: Section 5 Review Ch. 18 Core TR: Practice Problems Ch. 18 Core TR: Interpreting Graphics Ch. 18 Core TR: Vocabulary Review Chapter 18 Image Library Figure 18.2 Figure 18.3 Figure 18.4 Figure 18.5_part1 Figure 18.5_part2 Figure 18.6_part1 Figure 18.6_part2 Figure 18.7 Figure 18.8 Figure 18.9 Figure 18.10 Image 1, p. 606 Figure 18.11 Figure 18.12 Figure 18.13 Figure 18.14 Figure 18.15_part1 Figure 18.15_part2 Figure 18.16 Figure 18.17 Table 18.1 Figure 18.18_part1 Figure 18.18_part2 Table 18.2 Figure 18.19_part1 Figure 18.19_part2 Figure 18.20 Figure 18.22 Figure 18.23_part1 Figure 18.23_part2 Figure 18.25 Table 18.3 Figure 18.26 Image 1, p. 639 Image 1, p. 640 Image 1, p. 641 Image 2, p. 641 Image 1, p. 643 Image 2, p. 643 Chapter 19: Acids, Bases, and Salts Chapter-Level Activities Ch. 19 Math Tutorial: Logarithmic Scale Ch. 19 Concepts in Action: Acid Clues to a Marble Mystery Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 Directed Virtual Lab: Acids and Bases Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 Problem Set Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 CO2 and Thinning Shells Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Chapter 19 Flash Cards 19.1 Acid-Base Theories 19.1 Lesson Overview (PowerPoint file) Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. 19.2 Hydrogen Ions and Acidity 19.2 Chemistry Tutorial: Calculating pH from [H+] and [OH-] Curriculum Standards: Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. 19.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. 19.2 Foundations Chemistry Tutorial: Calculating pH from H ion and OH ion. Curriculum Standards: Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. 19.3 Strengths of Acids and Bases 19.3 Chemistry Tutorial: Calculating a Dissociation Constant Curriculum Standards: Describe how acids and bases are classified as either strong or weak. 19.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how acids and bases are classified as either strong or weak. 19.3 Foundations Chemistry Tutorial: Calculating a Dissociation Constant Curriculum Standards: Describe how acids and bases are classified as either strong or weak. 19.4 Neutralization Reactions 19.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. 19.4 Chemistry Tutorial: Determining Concentration by Titration Curriculum Standards: Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. 19.5 Salts in Solution 19.5 Lesson Overview (PowerPoint file) Curriculum Standards: Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. 19.5 Chem Tutorial: Using Equations to Illustrate Buffers Curriculum Standards: Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. 19.5 Foundations Chem Tutorial: Using Eq. to Illustrate Buffers Curriculum Standards: Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Chapter 19 Online Student Edition Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Chapter 19.2 Online Student Edition: The pH concept Curriculum Standards: Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Chapter 19.2 Online Student Edition: Measuring pH Curriculum Standards: Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Chapter 19.3 Online Student Edition: Strenghts of Acids and Bases Curriculum Standards: Describe how acids and bases are classified as either strong or weak. 19.1 Lesson Overview (PowerPoint file) Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. 19.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. 19.4 Chemistry Tutorial: Determining Concentration by Titration Curriculum Standards: Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. 19.5 Chem Tutorial: Using Equations to Illustrate Buffers Curriculum Standards: Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 Directed Virtual Lab: Acids and Bases Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. 19.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how acids and bases are classified as either strong or weak. 19.5 Lesson Overview (PowerPoint file) Curriculum Standards: Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. 19.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Chapter 19.1 Online Student Edition: Arrhenius Acids and Bases Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Chapter 19.2 Online Student Edition: Hydrogen Ions from Water Curriculum Standards: Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Chapter 19.5 Online Student Edition: Salt Hydrolysis Curriculum Standards: Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Chapter 19.5 Online Student Edition: Buffers Curriculum Standards: Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Chapter 19.1 Online Student Edition: Bronsted-Lowry Acids and Bases Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. 19.2 Chemistry Tutorial: Calculating pH from [H+] and [OH-] Curriculum Standards: Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Chapter 19.1: Lewis Acids and Bases Curriculum Standards: Define an acid and a base according to Lewis. Chapter 19.4: Acid-Base Reactions Curriculum Standards: Identify the products that form when an acid and a base react. Chapter 19 Pre-Test: Acids, Bases, and Salts Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Chapter 19 Post-Test: Acids, Bases, and Salts Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Chapter 19 Editable Study Workbook Study WB Chapter 19 Lesson 1 Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Study WB Chapter 19 Lesson 2 Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Study WB Chapter 19 Lesson 3 Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Study WB Chapter 19 Lesson 4 Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Study WB Chapter 19 Lesson 5 Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Foundations Study WB Chapter 19 Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Chapter 19 Editable Labs Ch. 19 Lab 40: Estimation of pH Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 Lab 42: Neutralization Reactions Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 Lab 43: Acid-Base Titrations Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 Lab 44: Salt Hydrolysis Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 Lab 45: Buffers Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 Lab Practicals: Acids, Bases, and Salts Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Ch. 19 Quick Lab Record Sheet Curriculum Standards: Define an acid and a base according to Arrhenius. Distinguish an acid from a base in the BrÌünsted-Lowry theory. Define an acid and a base according to Lewis. Describe how [H+] and [OH+] are related in an aqueous solution. Classify a solution as neutral, acidic, or basic using pH. Identify two methods that are used to measure pH. Describe how acids and bases are classified as either strong or weak. Identify the products that form when an acid and a base react. Identify the point in a titration when neutralization will occur. Describe when a solution of a salt is acidic or basic. Identify the components of a buffer. Chapter 19 Editable Assessments Ch. 19 Core TR: Chapter Quiz Ch. 19 Core TR: Chapter Test A Ch. 19 Core TR: Chapter Test B Chapter 19 Additional Editable Resources Ch. 19 Core TR: Section 1 Review Ch. 19 Core TR: Section 2 Review Ch. 19 Core TR: Section 3 Review Ch. 19 Core TR: Section 4 Review Ch. 19 Core TR: Section 5 Review Ch. 19 Core TR: Practice Problems Ch. 19 Core TR: Interpreting Graphics Ch. 19 Core TR: Vocabulary Review Chapter 19 Image Library Table 19.1 Figure 19.2 Table 19.2 Figure 19.5 Figure 19.6 Table 19.3 Table 19.4 Table 19.5 Figure 19.8 Figure 19.9_part1 Figure 19.9_part2 Figure 19.10 Table 19.6 Figure 19.11 Table 19.7 Figure 19.12_part1 Figure 19.12_part2 Table 19.8 Figure 19.14_part1 Figure 19.14_part2 Figure 19.14_part3 Figure 19.15 Figure 19.16_part1 Figure 19.16_part2 Figure 19.16_part3 Figure 19.17 Figure 19.18_part1 Figure 19.18_part2 Table 19.9 Image 1, p. 685 Image 2, p. 685 Image 1, p. 686 Image 2, p. 686 Image 1, p. 687 Image 1, p. 688 Image 1, p. 689 Chapter 20: Oxidation-Reduction Reactions Chapter-Level Activities Ch. 20 Math Tutorial: Balanced Equations Ch. 20 Concepts in Action: Used Cars 101: Where your Car Used to Live Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Ch. 20 Directed Virtual Lab: Redox Titrations: Determine Sample Purity Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Ch. 20 Problem Set Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Ch. 20 Building Better Bridges Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Chapter 20 Flash Cards 20.1 Meaning of Oxidation and Reduction 20.1 Chemistry Tutorial: Identifying Oxidized and Reduced Reactants Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. 20.1 Kinetic Art: Corrosion Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. 20.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. 20.1 Foundations Chemistry Tutorial: Identifying Oxidized and Reduced Reactants Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. 20.2 Oxidation Numbers 20.2 Chemistry Tutorial: Assigning Oxidation Numbers to Atoms Curriculum Standards: State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. 20.2 Lesson Overview (PowerPoint file) 20.2 Lesson Overview (PowerPoint file)Lesson Overview is a PowerPoint presentation of each lesson for use as a presentation or study resource. Curriculum Standards: State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. 20.2 Foundations Chemistry Tutorial: Assigning Oxidation Numbers to Atoms Curriculum Standards: State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. 20.3 Describing Redox Equations 20.3 Chem Tutorial: Balancing Redox Eq. by Oxidation-Number Change Curriculum Standards: Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. 20.3 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Chapter 20 Online Student Edition Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. 20.2 Online Student Edition: Ox.-Number Changes in Chemical Rxns Curriculum Standards: State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Chapter 20.3 Online Student Edition: Balancing Redox Reactions Curriculum Standards: Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Ch. 20 Concepts in Action: Used Cars 101: Where your Car Used to Live Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. 20.1 Chemistry Tutorial: Identifying Oxidized and Reduced Reactants Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. 20.2 Chemistry Tutorial: Assigning Oxidation Numbers to Atoms Curriculum Standards: State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. 20.3 Chem Tutorial: Balancing Redox Eq. by Oxidation-Number Change Curriculum Standards: Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. 20.2 Lesson Overview (PowerPoint file) 20.2 Lesson Overview (PowerPoint file)Lesson Overview is a PowerPoint presentation of each lesson for use as a presentation or study resource. Curriculum Standards: State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. 20.3 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. 20.1 Kinetic Art: Corrosion Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. 20.1 Lesson Overview (PowerPoint file) Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. Chapter 20 Pre-Test: Oxidation-Reduction Reactions Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Chapter 20 Post-Test: Oxidation-Reduction Reactions Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Chapter 20 Editable Study Workbook Study WB Chapter 20 Lesson 1 Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Study WB Chapter 20 Lesson 2 Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Study WB Chapter 20 Lesson 3 Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Foundations Study WB Chapter 20 Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Chapter 20 Editable Labs Ch. 20 Lab 41: Reactions of Acids Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Ch. 20 Lab 46: Oxidation-Reduction Reactions Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Ch. 20 Lab 47: Corrosion Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Ch. 20 Lab Practicals: Oxidation-Reduction Reactions Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Ch. 20 Quick Lab Record Sheet Curriculum Standards: Describe what happens to a substance that undergoes oxidation and a substance that undergoes reduction. Explain how the presence of salts and acids accelerates the corrosion of metals. State the general rule for assigning oxidation numbers. Define oxidation and reduction in terms of a change in oxidation number. Identify the two classes of chemical reactions. Describe two different methods for balancing a redox equation. Chapter 20 Editable Assessments Ch. 20 Core TR: Chapter Quiz Ch. 20 Core TR: Chapter Test A Ch. 20 Core TR: Chapter Test B Chapter 20 Additional Editable Resources Ch. 20 Core TR: Section 1 Review Ch. 20 Core TR: Section 2 Review Ch. 20 Core TR: Section 3 Review Ch. 20 Core TR: Practice Problems Ch. 20 Core TR: Interpreting Graphics Ch. 20 Core TR: Vocabulary Review Chapter 20 Image Library Figure 20.1_part1 Figure 20.1_part2 Figure 20.2_part1 Figure 20.2_part2 Figure 20.2_part3 Figure 20.3 Figure 20.4 Table 20.1 Figure 20.6 Figure 20.8 Figure 20.9_part1 Figure 20.9_part2 Figure 20.10_part1 Figure 20.10_part2 Figure 20.11_part1 Figure 20.11_part2 Figure 20.12 Figure 20.13_part1 Figure 20.13_part2 Figure 20.13_part3 Figure 20.14 Table 20.2 Image 1, p. 718 Image 1, p. 721 Image 1, p. 724 Image 2, p. 724_part1 Image 2, p. 724_part2 Image 2, p. 724_part3 Image 1, p. 725 Image 2, p. 725 Chapter 21: Electrochemistry Chapter-Level Activities Ch. 21 Concepts in Action: Chemistry Lessons from Lasagne and Lemons Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Ch. 21 Directed Virtual Lab: Electrochemistry Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Ch. 21 Math Tutorial: Systems of Equations Ch. 21 Problem Set Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Ch. 21 Better Batteries Through Chemistry Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 21 Flash Cards 21.1 Electrochemical Cells 21.3 Kinetic Art: Voltaic Cell Curriculum Standards: Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. 21.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. 21.2 Half-Cells and Cell Potentials 21.2 Chemistry Tutorial: Writing the Cell Reaction Curriculum Standards: Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. 21.2 Chemistry Tutorial: Calculating the Standard Cell Potential Curriculum Standards: Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. 21.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. 21.3 Electrolytic Cells 21.3 Lesson Overview (PowerPoint file) Curriculum Standards: Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 21 Online Student Edition Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 21.2 Online Student Edition: Calculating Standard Cell Potentials Curriculum Standards: Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Chapter 21.3 Online Student Edition: Electrolytic vs. Voltaic Cells Curriculum Standards: Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Ch. 21 Concepts in Action: Chemistry Lessons from Lasagne and Lemons Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Ch. 21 Directed Virtual Lab: Electrochemistry Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. 21.3 Kinetic Art: Voltaic Cell Curriculum Standards: Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. 21.2 Chemistry Tutorial: Calculating the Standard Cell Potential Curriculum Standards: Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. 21.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. 21.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. 21.3 Lesson Overview (PowerPoint file) Curriculum Standards: Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 21.1 Online Student Edition: Using Voltaic Cells as Energy Sources Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Chapter 21.2 Online Student Edition: Standard Reduction Potentials Curriculum Standards: Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Chapter 21 Pre-Test: Electrochemistry Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 21 Post-Test: Electrochemistry Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 21 Editable Study Workbook Study WB Chapter 21 Lesson 1 Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Study WB Chapter 21 Lesson 2 Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Study WB Chapter 21 Lesson 3 Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Foundations Study WB Chapter 21 Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 21 Editable Labs Ch. 21 Lab 48: Electrochemistry Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Ch. 21 Lab Practicals: Electrochemistry Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Ch. 21 Quick Lab Record Sheet Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 21 Editable Assessments Ch. 21 Core TR: Chapter Quiz Ch. 21 Core TR: Chapter Test A Ch. 21 Core TR: Chapter Test B Benchmark Test 4 Part A (follows Chapters 17-21) Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Benchmark Test 4 Part B (follows Chapters 17-21) Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 21 Additional Editable Resources Ch. 21 Core TR: Section 1 Review Ch. 21 Core TR: Section 2 Review Ch. 21 Core TR: Section 3 Review Ch. 21 Core TR: Practice Problems Ch. 21 Core TR: Interpreting Graphics Ch. 21 Core TR: Vocabulary Review Chapter 21 Image Library Figure 21.1_part1 Figure 21.1_part2 Table 21.1 Figure 21.2 Figure 21.3 Figure 21.4_part1 Figure 21.4_part2 Figure 21.5_part1 Figure 21.5_part2 Figure 21.6 Figure 21.7_part1 Figure 21.7_part2 Figure 21.8 Figure 21.9 Table 21.2 Figure 21.11_part1 Figure 21.11_part2 Figure 21.12_part1 Figure 21.12_part2 Figure 21.13 Figure 21.14 Image 1, p. 754 Image 1, p. 755 Image 1, p. 756 Image 2, p. 756 Image 3, p. 756 Image 1, p. 757 Image 1, p. 759 Image 2, p. 759 Chapter 22: Hydrocarbon Compounds Chapter-Level Activities Ch. 22 Math Tutorial: Graphing Inequalities Ch. 22 Concepts in Action: Hydrocarbon Inferno Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Ch. 22 Problem Set Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Ch. 22 Directed Virtual Lab: Saturated and Unsaturated Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Ch. 22 Cracking the Crude Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Chapter 22 Flash Cards 22.1 Hydrocarbons 22.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. 22.1 Chemistry Tutorial: Naming Branched-Chain Alkanes Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. 22.2 Unsaturated Hydrocarbons 22.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. 22.3 Isomers 22.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. 22.3 Chemistry Tutorial: Identifying Asymmetric Carbon Atoms Curriculum Standards: Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. 22.3 Kinetic Art: Asymmetric Carbons Curriculum Standards: Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. 22.4 Hydrocarbon Rings 22.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. 22.5 Hydrocarbon's From Earth's Crust 22.5 Kinetic Art: Fractional Distillation of Hydrocarbons Curriculum Standards: Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. 22.5 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Chapter 22 Online Student Edition Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Chapter 22.4 Online Student Edition: Cyclic Hydrocarbons Curriculum Standards: Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. 22.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. 22.2 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. 22.3 Lesson Overview (PowerPoint file) Curriculum Standards: Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Ch. 22 Concepts in Action: Hydrocarbon Inferno Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Ch. 22 Directed Virtual Lab: Saturated and Unsaturated Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. 22.3 Chemistry Tutorial: Identifying Asymmetric Carbon Atoms Curriculum Standards: Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. 22.5 Kinetic Art: Fractional Distillation of Hydrocarbons Curriculum Standards: Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Study WB Chapter 22 Lesson 1 Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. 22.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Chapter 22.1 Online Student Edition: Alkane Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Chapter 22.2 Online Student Edition: Alkenes Curriculum Standards: Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Chapter 22.3 Online Student Edition: Constitutional Isomers Curriculum Standards: Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Chapter 22.5 Online Student Edition: Petroleum Curriculum Standards: Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Chapter 22 Pre-Test: Hydrocarbon Compounds Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Chapter 22 Post-Test: Hydrocarbon Compounds Chapter 22 Post-Test: Hydrocarbon Compounds Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Chapter 22 Editable Study Workbook Study WB Chapter 22 Lesson 1 Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Study WB Chapter 22 Lesson 2 Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Study WB Chapter 22 Lesson 3 Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Study WB Chapter 22 Lesson 4 Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Study WB Chapter 22 Lesson 5 Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Foundations Study WB Chapter 22 Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Chapter 22 Editable Labs Ch. 22 Lab 49: Hydrocarbons: A Structural Study Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Ch. 22 Lab Practicals: Hydrocarbon Compounds Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Ch. 22 Quick Lab Record Sheet Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Describe the structural characteristics of alkenes. Identify the structural characteristics of alkynes. Explain how the properties of constitutional isomers differ. Identify two types of stereoisomers. Identify the general structure of a cyclic hydrocarbon. Describe bonding in a benzene ring. Identify the hydrocarbons found in natural gas. Describe the first step in the refining of petroleum. Classify coal. Chapter 22 Editable Assessments Ch. 22 Core TR: Chapter Quiz Ch. 22 Core TR: Chapter Test A Ch. 22 Core TR: Chapter Test B Chapter 22 Additional Editable Resources Ch. 22 Core TR: Section 1 Review Ch. 22 Core TR: Section 2 Review Ch. 22 Core TR: Section 3 Review Ch. 22 Core TR: Section 4 Review Ch. 22 Core TR: Section 5 Review Ch. 22 Core TR: Practice Problems Ch. 22 Core TR: Interpreting Graphics Ch. 22 Core TR: Vocabulary Review Chapter 22 Image Library Table 22.1 Figure 22.1 Figure 22.2_part1 Figure 22.2_part2 Figure 22.2_part3 Figure 22.3 Table 22.2 Table 22.3 Figure 22.4_part1 Figure 22.4_part2 Figure 22.5 Figure 22.6 Figure 22.7 Figure 22.8 Figure 22.9 Figure 22.10 Figure 22.11 Figure 22.12 Figure 22.14 Figure 22.15 Figure 22.16_part1 Figure 22.16_part2 Figure 22.16_part3 Figure 22.16_part4 Figure 22.16_part5 Figure 22.17 Image 1, p. 791 Image 2, p. 791 Image 1, p. 792 Image 1, p. 793 Chapter 23: Functional Groups Chapter-Level Activities Ch. 23 Directed Virtual Lab: Properties of Organic Molecules Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Ch. 23 Problem Set Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Ch. 23 Concepts in Action: Organic Compounds Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Ch. 23 Protection From the Flames Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23 Flash Cards 23.1 Introduction to Functional Groups 23.1 Lesson Overview (PowerPoint file) Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. 23.2 Alcohols, Ethers, and Amines 23.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. 23.2 Kinetic Art: Hydration And Hydrogenation Curriculum Standards: Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. 23.3 Carbonyl Compounds 23.3 Kinetic Art: Redox Reactions Curriculum Standards: Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Explain why dehydrogenation is classified as an oxidation reaction. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Identify the general formula of an ester. 23.3 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. 23.4 Polymers 23.4 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23 Online Student Edition Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23.1 Online Student Edition: Halocarbons Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Ch. 23 Directed Virtual Lab: Properties of Organic Molecules Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. 23.2 Kinetic Art: Hydration And Hydrogenation Curriculum Standards: Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. 23.3 Kinetic Art: Redox Reactions Curriculum Standards: Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Explain why dehydrogenation is classified as an oxidation reaction. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Identify the general formula of an ester. Ch. 23 Concepts in Action: Organic Compounds Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23.2 Online Student Edition: Ethers Curriculum Standards: Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. 23.3 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. 23.1 Lesson Overview (PowerPoint file) Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. 23.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. 23.4 Lesson Overview (PowerPoint file) Curriculum Standards: Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23.3 Online Student Edition: Aldehydes and Ketones Curriculum Standards: Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Chapter 23.2 Online Student Edition: Amines Curriculum Standards: Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Chapter 23.3 Online Student Edition: Oxidation-Reduction Reactions Curriculum Standards: Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Chapter 23.3 Online Student Edition: Carbonyl Compounds Curriculum Standards: Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Chapter 23.4 Online Student Edition: Polymers Curriculum Standards: Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23.4 Online Student Edition: Condensation Polymers Curriculum Standards: Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23 Pre-Test: Functional Groups Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23 Post-Test: Functional Groups Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23 Editable Study Workbook Study WB Chapter 23 Lesson 1 Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Study WB Chapter 23 Lesson 2 Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Study WB Chapter 23 Lesson 3 Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Study WB Chapter 23 Lesson 4 Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Foundations Study WB Chapter 23 Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23 Editable Labs Ch. 23 Lab 50: Esters of Carboxylic Acids Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Ch. 23 Lab Practicals: Functional Groups Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Ch. 23 Quick Lab Record Sheet Curriculum Standards: Classify organic compounds. Identify the general formula of a halocarbon. Describe how substitution reactions are used in organic chemistry. Identify the general formula of an alcohol. Explain how addition reactions are used in organic chemistry. Identify the general formula of an ether. Identify the general formula of an amine. Identify the structural characteristic that an aldehyde and a ketone share. Identify the general formula of a carboxylic acid. Explain why dehydrogenation is classified as an oxidation reaction. Identify the general formula of an ester. Describe how addition polymers are formed. Describe how condensation polymers are formed. Chapter 23 Editable Assessments Ch. 23 Core TR: Chapter Quiz Ch. 23 Core TR: Chapter Test A Ch. 23 Core TR: Chapter Test B Chapter 23 Additional Editable Resources Ch. 23 Core TR: Section 1 Review Ch. 23 Core TR: Section 2 Review Ch. 23 Core TR: Section 3 Review Ch. 23 Core TR: Section 4 Review Ch. 23 Core TR: Practice Problems Ch. 23 Core TR: Interpreting Graphics Ch. 23 Core TR: Vocabulary Review Chapter 23 Image Library Table 23.1 Figure 23.2 Table 23.2 Table 23.3 Table 23.4 Figure 23.4_part1 Figure 23.4_part2 Figure 23.4_part3 Figure 23.5_part1 Figure 23.5_part2 Figure 23.6_part1 Figure 23.6_part2 Figure 23.6_part3 Figure 23.6_part4 Figure 23.7_part1 Figure 23.7_part2 Figure 23.8 Table 23.5 Table 23.6 Figure 23.10 Table 23.7 Figure 23.11_part1 Figure 23.11_part2 Figure 23.13 Figure 23.14_part1 Figure 23.14_part2 Figure 23.17_part1 Figure 23.17_part2 Figure 23.17_part3 Image 1, p. 829 Image 1, p. 831 Image 1, p. 832 Image 2, p. 832 Image 1, p. 835 Chapter 24: Chemistry of Life Chapter-Level Activities Ch. 24 Concepts in Action: A Fish's Life Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Ch. 24 Directed Virtual Lab: Food Calorimetry Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Ch. 24 The Secret’s in the Muscles Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Ch. 24 Problem Set Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Chapter 24 Flash Cards 24.1 A Basis for Life 24.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. 24.2 Carbohydrates 24.2 Lesson Overview (PowerPoint file) Curriculum Standards: Construct the general formula for carbohydrates. 24.3 Amino Acids and Their Polymers 24.3 Kinetic Art: Peptide Structures Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Diagram the general structure of an amino acid. Describe how enzymes affect the rates of reactions in living things. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? 24.3 Lesson Overview (PowerPoint file) Curriculum Standards: Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. 24.4 Lipids 24.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the physical property that distinguishes lipids from other biological molecules. 24.5 Nucleic Acids 24.5 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? 24.6 Metabolism 24.6 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. 24.6 Kinetic Art: The Nitrogen Cycle Chapter 24 Online Student Edition Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Chapter 24.5 Online Student Edition: DNA and RNA Curriculum Standards: Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Chapter 24.5 Online Student Edition: DNA Technologies Curriculum Standards: Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Chapter 24.6 Online Student Edition: Metabolism Reactions Curriculum Standards: Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Chapter 24.1 Online Student Edition: A Basis for Life Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Chapter 24.2 Online Student Edition: Classifying Carbohydrates Curriculum Standards: Construct the general formula for carbohydrates. Chapter 24.3 Online Student Edition: Amino Acids Curriculum Standards: Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Chapter 24.3 Online Student Edition: Peptides and Proteins Curriculum Standards: Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Chapter 24.3 Online Student Edition: Enzymes Curriculum Standards: Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Chapter 24.4 Online Student Edition: Describing Lipids Curriculum Standards: Identify the physical property that distinguishes lipids from other biological molecules. Chapter 24.5 Online Student Edition: DNA and RNA Curriculum Standards: Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Chapter 24.5 Online Student Edition: Gene Mutation Curriculum Standards: Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Chapter 24.6 Online Student Edition: ATP Curriculum Standards: Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. 24.3 Kinetic Art: Peptide Structures Curriculum Standards: Explain why a carbon atom forms four covalent bonds. Identify two possible arrangements of carbon atoms in an alkane. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Diagram the general structure of an amino acid. Describe how enzymes affect the rates of reactions in living things. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? 24.1 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. 24.2 Lesson Overview (PowerPoint file) Curriculum Standards: Construct the general formula for carbohydrates. 24.3 Lesson Overview (PowerPoint file) Curriculum Standards: Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. 24.4 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the physical property that distinguishes lipids from other biological molecules. 24.5 Lesson Overview (PowerPoint file) Curriculum Standards: Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? 24.6 Lesson Overview (PowerPoint file) Curriculum Standards: Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Ch. 24 Concepts in Action: A Fish's Life Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Study WB Chapter 24 Lesson 5 Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Study WB Chapter 24 Lesson 6 Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. 24.6 Kinetic Art: The Nitrogen Cycle Curriculum Standards: Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Chapter 24 Pre-Test: The Chemistry of Life Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Chapter 24 Post-Test: The Chemistry of Life Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Chapter 24 Editable Study Workbook Study WB Chapter 24 Lesson 1 Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Study WB Chapter 24 Lesson 2 Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Study WB Chapter 24 Lesson 3 Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Study WB Chapter 24 Lesson 4 Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Study WB Chapter 24 Lesson 5 Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Study WB Chapter 24 Lesson 6 Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Foundations Study WB Chapter 24 Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Chapter 24 Editable Labs Ch. 24 Lab 51: Preparation of Soap Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Ch. 24 Quick Lab Record Sheet Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. Chapter 24 Editable Assessments Ch. 24 Core TR: Chapter Quiz Ch. 24 Core TR: Chapter Test A Ch. 24 Core TR: Chapter Test B Chapter 24 Additional Editable Resources Ch. 24 Core TR: Section 1 Review Ch. 24 Core TR: Section 2 Review Ch. 24 Core TR: Section 3 Review Ch. 24 Core TR: Section 4 Review Ch. 24 Core TR: Section 5 Review Ch. 24 Core TR: Section 6 Review Ch. 24 Core TR: Interpreting Graphics Ch. 24 Core TR: Vocabulary Review Chapter 24 Image Library Figure 24.1 Figure 24.2_part1 Figure 24.2_part2 Figure 24.3 Figure 24.6 Table 24.1 Figure 24.8 Figure 24.9_part1 Figure 24.9_part2 Figure 24.10 Figure 24.11_part1 Figure 24.11_part2 Figure 24.14_part1 Figure 24.14_part2 Figure 24.14_part3 Figure 24.15 Figure 24.16_part1 Figure 24.16_part2 Figure 24.17_part1 Figure 24.17_part2 Figure 24.18_part1 Figure 24.18_part2 Table 24.2 Figure 24.19_part1 Figure 24.19_part2 Figure 24.21 Figure 24.22 Figure 24.24_part1 Figure 24.24_part2 Figure 24.25 Figure 24.27 Figure 24.28 Chapter 25: Nuclear Chemistry Chapter-Level Activities Ch. 25 Math Tutorial: Exponential Decay Ch. 25 Concepts in Action: Happy Birthday Half-Life Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Ch. 25 Directed Virtual Lab: Radiation Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Ch. 25 Curie’s Cures Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Ch. 25 Problem Set Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25 Flash Cards 25.1 Nuclear Radiation 25.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. 25.1 Kinetic Art: Alpha and Beta Decay Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. 25.2 Nuclear Transformations 25.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. 25.2 Chemistry Tutorial: Using Half-lives in Calculations Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. 25.2 Foundations Chemistry Tutorial: Using Half-lives in Calculations Curriculum Standards: Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. 25.3 Fission and Fusion 25.3 Kinetic Art: How a Nuclear Reactor Works Curriculum Standards: Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. 25.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. 25.4 Radiation in Your Life 25.4 Lesson Overview (PowerPoint file) Curriculum Standards: Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25 Online Student Edition Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25.2 Online Student Edition: Radioactivity Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. 25.2 Lesson Overview (PowerPoint file) Curriculum Standards: Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Ch. 25 Concepts in Action: Happy Birthday Half-Life Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Ch. 25 Directed Virtual Lab: Radiation Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. 25.3 Kinetic Art: How a Nuclear Reactor Works Curriculum Standards: Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. 25.1 Lesson Overview (PowerPoint file) Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. 25.3 Lesson Overview (PowerPoint file) Curriculum Standards: Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. 25.4 Lesson Overview (PowerPoint file) Curriculum Standards: Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25.2 Online Student Edition: Transmutattion Reactions Curriculum Standards: Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Chapter 25.3 Online Student Edition: Nuclear Fission Curriculum Standards: Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Chapter 25.4 Online Student Edition: Detecting Radiation Curriculum Standards: Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Chapter 25.4 Online Student Edition: Using Radiation Curriculum Standards: Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25.3 Online Student Edition: Nuclear Fusion Curriculum Standards: Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. 25.1 Kinetic Art: Alpha and Beta Decay Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. 25.2 Chemistry Tutorial: Using Half-lives in Calculations Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Chapter 25 Pre-Test: Nuclear Chemistry Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25 Post-Test: Nuclear Chemistry Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25 Editable Study Workbook Study WB Chapter 25 Lesson 1 Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Study WB Chapter 25 Lesson 2 Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Study WB Chapter 25 Lesson 3 Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Study WB Chapter 25 Lesson 4 Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Foundations Study WB Chapter 25 Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25 Editable Labs Ch. 25 Lab 52: Radioactivity and Radiation Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Ch. 25 Lab Practicals: Nuclear Chemistry Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Ch. 25 Quick Lab Record Sheet Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25 Editable Assessments Ch. 25 Core TR: Chapter Quiz Ch. 25 Core TR: Chapter Test A Ch. 25 Core TR: Chapter Test B Benchmark Test 5 Part A (follows Chapters 22-25) Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Benchmark Test 5 Part B (follows Chapters 22-25) Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Outcome Test Part A (administered at the end of the course) Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Outcome Test Part B (administered at the end of the course) Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Chapter 25 Additional Editable Resources Ch. 25 Core TR: Section 1 Review Ch. 25 Core TR: Section 2 Review Ch. 25 Core TR: Section 3 Review Ch. 25 Core TR: Section 4 Review Ch. 25 Core TR: Interpreting Graphics Ch. 25 Core TR: Vocabulary Review Chapter 25 Image Library Image 1, p. 874 Figure 25.1 Table 25.1 Figure 25.2 Figure 25.3 Figure 25.4 Figure 25.5 Figure 25.6 Figure 25.7 Table 25.2 Figure 25.8 Table 25.3 Figure 25.9 Figure 25.10 Figure 25.11 Figure 25.12 Figure 25.13 Figure 25.14 Figure 25.15 Figure 25.16 Figure 25.17 Figure 25.18 Image 1, p. 901 Image 1, p. 902 Image 2, p. 902 Image 1, p. 903 Image 1, p. 904 Image 1, p. 905 Image 2, p. 905 Editable SAT and ACT-type Tests SAT-like Practice Test 1 Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. SAT-like Practice Test 2 Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. ACT-like Practice Test Curriculum Standards: Explain the relationship between unstable isotopes and radioactivity. Describe three main types of nuclear radiation. Identify factors that determine the type of decay a radioisotope undergoes. Solve problems that involve half-life. Identify two ways transmutations can occur. Describe what happens in a nuclear chain reaction. Describe what happens to spent fuel rods. Distinguish fission reactions from fusion reactions. Compare three devices that are used to detect radiation. Describe some practical uses of radioisotopes. Probeware Lab Manual PASCO Starter Lab Data Studio Version (student) Xplorer GLX Version (student) SPARK Learning System Version (student) SPARKvue Version (student) Chapter Labs Chapter 8 lab: Properties of Ionic and Covalent Compounds (student) Chapter 14 lab: Ideal Gas Law (student) Chapter 16 lab: Concentration of a Solution: Beer’s Law (student) Chapter 21 lab: Electrochemical Battery: Energy from Electrons (student) Chapter 23 lab: Intermolecular Forces (student) Vernier Chapter 2 lab: Fractional Distillation (student) Curriculum Standards: Explain why all samples of a substance have the same intensive properties. Identify the three states of matter. Classify physical changes. Explain how mixtures are classified. Explain how mixtures can be separated. Explain the difference between an element and a compound. Distinguish between a substance and a mixture. Describe what chemists use to represent elements and compounds. Explain how a periodic table is useful. Describe what happens during a chemical change. Identify four possible clues that a chemical change has taken place. Describe how the mass of the reactants and the mass of the products of a chemical reaction are related. Chapter 14 lab: Boyle's Law (student) Curriculum Standards: Explain why gases are easier to compress than solids or liquids. Describe the three factors that affect gas pressure. Describe the relationships among pressure, volume, and temperature of a gas. Calculate the amount of a contained gas when the pressure, volume, and temperature are specified. Determine the conditions under which real gases are most likely to differ from ideal gases. Relate the total pressure of a mixture of gases to the partial pressures of the component gases. Explain how the molar mass of a gas affects the rate at which the gas diffuses and effuses. Chapter 16 lab: Determining the Concentration of a Solution: Beer's Law (student) Curriculum Standards: Identify the factors that affect how fast a substance dissolves. Describe the equilibrium in a saturated solution. Describe the factors that affect the solubility of a substance. Calculate the molarity of a solution. Describe the effect of dilution on the total moles of solute in solution. Express solution concentration as a percent by volume or percent by mass. Explain how colligative properties can be explained on a particle basis. Identify the two ways of expressing the ratio of solute to solvent in a solution. Describe how the freezing-point depression and boiling-point elevation are related to molality. Chapter 21 lab: Microvoltaic Cells (student) Curriculum Standards: Identify the type of chemical reaction that is involved in all electrochemical processes. Describe how a voltaic cell produces electrical energy. Identify the current applications that use electrochemical processes to produce electrical energy. Identify what causes the electrical potential of an electrochemical cell. Determine the standard reduction potential of a half-cell. Determine if a redox reaction is spontaneous or nonspontaneous. Distinguish between electrolytic and voltaic cells. Describe some applications that use electrolytic cells. Chapter 24 lab: Energy Content of Foods (student) Curriculum Standards: Identify the two major cell types that occur in nature. Identify the compound that is reduced during photosynthesis and the compounds formed. Construct the general formula for carbohydrates. Diagram the general structure of an amino acid. Identify what determines the differences in the chemical and physiological properties of peptides and proteins. Describe how enzymes affect the rates of reactions in living things. Identify the physical property that distinguishes lipids from other biological molecules. Identify the functions of DNA and RNA. Identify the number of bases of DNA required to specify one amino acid in a peptide chain. Define gene mutations. What are two examples of DNA technologies used today? Describe the function of ATP in the cell. Describe what happens to biological molecules and energy during catabolism and anabolism. Explain how nitrogen-fixing bacteria provide plants with a useable form of nitrogen. 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