> Teaching PowerPoint


Teaching PowerPoint


SelectViewDownload
Chapter 28
28.1 Introducing chemical cells
28.2 Primary cells
28.3 Secondary cells
28.4 Choosing the right chemical cell
28.5 Environmental impact of disposing of chemical cells
28.1 Introducing chemical cells (bilingual version)
28.2 Primary cells (bilingual version)
28.3 Secondary cells (bilingual version)
28.4 Choosing the right chemical cell (bilingual version)
28.5 Environmental impact of disposing of chemical cells (bilingual version)
Chemical cells in daily life (combined version)
Chemical cells in daily life (bilingual, combined version)
SelectViewDownload
Chapter 29
29.1 Simple chemical cells consisting of two metal electrodes and an electrolyte
29.2 Measuring voltages of chemical cells
29.3 The Electrochemical Series of metals
29.4 Simple chemical cells consisting of two metal-metal ion half cells and a salt bridge
29.5 Simple chemical cells consisting of two metal-metal ion half cells and a porous device
29.1 Simple chemical cells consisting of two metal electrodes and an electrolyte (bilingual version)
29.2 Measuring voltages of chemical cells (bilingual version)
29.3 The Electrochemical Series of metals (bilingual version)
29.4 Simple chemical cells consisting of two metal-metal ion half cells and a salt bridge (bilingual version)
29.5 Simple chemical cells consisting of two metal-metal ion half cells and a porous device (bilingual version)
Simple chemical cells (combined version)
Simple chemical cells (bilingual, combined version)
SelectViewDownload
Chapter 30
30.1 Oxidation and reduction in terms of gain or loss of oxygen
30.2 Oxidation and reduction in terms of gain or loss of hydrogen
30.3 Oxidation and reduction in terms of gain or loss of electrons
30.4 Trends of reducing power of metals and oxidizing power of metal ions
30.5 Oxidation and reduction in terms of changes in oxidation numbers
30.6 Common oxidizing agents and reducing agents
30.7 Balancing redox equations
30.8 Predicting the feasibility of a redox reaction
30.9 Chlorine as an oxidizing agent
30.10 Nitric acid of different concentrations as oxidizing agents
30.11 Concentrated sulphuric acid as an oxidizing agent
30.12 Aqueous solution of sulphur dioxide as a reducing agent
30.1 Oxidation and reduction in terms of gain or loss of oxygen (bilingual version)
30.2 Oxidation and reduction in terms of gain or loss of hydrogen (bilingual version)
30.3 Oxidation and reduction in terms of gain or loss of electrons (bilingual version)
30.4 Trends of reducing power of metals and oxidizing power of metal ions (bilingual version)
30.5 Oxidation and reduction in terms of changes in oxidation numbers (bilingual version)
30.6 Common oxidizing agents and reducing agents (bilingual version)
30.7 Balancing redox equations (bilingual version)
30.8 Predicting the feasibility of a redox reaction (bilingual version)
30.9 Chlorine as an oxidizing agent (bilingual version)
30.10 Nitric acid of different concentrations as oxidizing agents (bilingual version)
30.11 Concentrated sulphuric acid as an oxidizing agent (bilingual version)
30.12 Aqueous solution of sulphur dioxide as a reducing agent (bilingual version)
Redox reactions (combined version)
Redox reactions (bilingual, combined version)
SelectViewDownload
Chapter 31
31.1 Identifying the anode and cathode in chemical cells
31.2 Redox reactions in chemical cells with inert electrodes
31.3 Redox reactions in fuel cells
31.1 Identifying the anode and cathode in chemical cells (bilingual version)
31.2 Redox reactions in chemical cells with inert electrodes (bilingual version)
31.3 Redox reactions in fuel cells (bilingual version)
Redox reactions in chemical cells (combined version)
Redox reactions in chemical cells (bilingual, combined version)
SelectViewDownload
Chapter 32
32.1 Electrolysis — a process involving redox reactions
32.2 Electrolysis of molten sodium chloride
32.3 Electrolysis of sodium chloride solution
32.4 Electrolysis of copper(II) sulphate solution
32.5 Electrolysis of dilute sulphuric acid
32.6 Factors affecting preferential discharge of ions
32.7 Electroplating: an application of electrolysis
32.8 Environmental impact of the electroplating industry
32.1 Electrolysis — a process involving redox reactions (bilingual version)
32.2 Electrolysis of molten sodium chloride (bilingual version)
32.3 Electrolysis of sodium chloride solution (bilingual version)
32.4 Electrolysis of copper(II) sulphate solution (bilingual version)
32.5 Electrolysis of dilute sulphuric acid (bilingual version)
32.6 Factors affecting preferential discharge of ions (bilingual version)
32.7 Electroplating: an application of electrolysis (bilingual version)
32.8 Environmental impact of the electroplating industry (bilingual version)
Electrolysis (combined version)
Electrolysis (bilingual, combined version)
SelectViewDownload
Chapter 33
33.1 System, surroundings and the Law of conservation of energy
33.2 Enthalpy change of a reaction
33.3 Exothermic and endothermic reactions in terms of enthalpy change
33.4 Exothermic and endothermic reactions in terms of forming and breaking of chemical bonds
33.1 System, surroundings and the Law of conservation of energy (bilingual version)
33.2 Enthalpy change of a reaction (bilingual version)
33.3 Exothermic and endothermic reactions in terms of enthalpy change (bilingual version)
33.4 Exothermic and endothermic reactions in terms of forming and breaking of chemical bonds (bilingual version)
Energy changes in chemical reactions (combined version)
Energy changes in chemical reactions (bilingual, combined version)
SelectViewDownload
Chapter 34
34.1 Standard enthalpy change and thermochemical equation
34.2 Standard enthalpy change of combustion, ΔHcꝋ
34.3 Determining enthalpy changes of combustion using simple calorimetric methods
34.4 Standard enthalpy change of neutralization, ΔHnꝋ
34.5 Determining enthalpy changes of neutralization using simple calorimetric methods
34.6 Determining enthalpy change of reaction from experimental results
34.7 Standard enthalpy change of formation, ΔHfꝋ
34.1 Standard enthalpy change and thermochemical equation (bilingual version)
34.2 Standard enthalpy change of combustion, ΔHcꝋ (bilingual version)
34.3 Determining enthalpy changes of combustion using simple calorimetric methods (bilingual version)
34.4 Standard enthalpy change of neutralization, ΔHnꝋ (bilingual version)
34.5 Determining enthalpy changes of neutralization using simple calorimetric methods (bilingual version)
34.6 Determining enthalpy change of reaction from experimental results (bilingual version)
34.7 Standard enthalpy change of formation, ΔHfꝋ (bilingual version)
Standard enthalpy changes of reactions (combined version)
Standard enthalpy changes of reactions (bilingual, combined version)
SelectViewDownload
Chapter 35
35.1 Hess’s Law and enthalpy change cycle
35.2 Calculations involving enthalpy change cycle
35.3 Calculating the standard enthalpy change of a reaction from standard enthalpy changes of formation
35.4 Calculating the standard enthalpy change of a reaction from standard enthalpy changes of combustion
35.5 Calculating the standard enthalpy change of a reaction by summation of thermochemical equations
35.1 Hess’s Law and enthalpy change cycle (bilingual version)
35.2 Calculations involving enthalpy change cycle (bilingual version)
35.3 Calculating the standard enthalpy change of a reaction from standard enthalpy changes of formation (bilingual version)
35.4 Calculating the standard enthalpy change of a reaction from standard enthalpy changes of combustion (bilingual version)
35.5 Calculating the standard enthalpy change of a reaction by summation of thermochemical equations (bilingual version)
Hess’s Law (combined version)
Hess’s Law (bilingual, combined version)