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1 | 2705-2708 | 3
Depict the galvanic cell in which the reaction
Zn(s)+2Ag+(aq) ®Zn2+(aq)+2Ag(s) takes place Further show:
(i) Which of the electrode is negatively charged (ii) The carriers of the current in the cell (iii) Individual reaction at each electrode |
1 | 2706-2709 | Further show:
(i) Which of the electrode is negatively charged (ii) The carriers of the current in the cell (iii) Individual reaction at each electrode 2 |
1 | 2707-2710 | (ii) The carriers of the current in the cell (iii) Individual reaction at each electrode 2 4
Calculate the standard cell potentials of galvanic cell in which the following
reactions take place:
(i) 2Cr(s) + 3Cd2+(aq) ® 2Cr3+(aq) + 3Cd
(ii) Fe2+(aq) + Ag+(aq) ® Fe3+(aq) + Ag(s)
Calculate the DrGo and equilibrium constant of the reactions |
1 | 2708-2711 | (iii) Individual reaction at each electrode 2 4
Calculate the standard cell potentials of galvanic cell in which the following
reactions take place:
(i) 2Cr(s) + 3Cd2+(aq) ® 2Cr3+(aq) + 3Cd
(ii) Fe2+(aq) + Ag+(aq) ® Fe3+(aq) + Ag(s)
Calculate the DrGo and equilibrium constant of the reactions 2 |
1 | 2709-2712 | 2 4
Calculate the standard cell potentials of galvanic cell in which the following
reactions take place:
(i) 2Cr(s) + 3Cd2+(aq) ® 2Cr3+(aq) + 3Cd
(ii) Fe2+(aq) + Ag+(aq) ® Fe3+(aq) + Ag(s)
Calculate the DrGo and equilibrium constant of the reactions 2 5
Write the Nernst equation and emf of the following cells at 298 K:
(i) Mg(s)|Mg2+(0 |
1 | 2710-2713 | 4
Calculate the standard cell potentials of galvanic cell in which the following
reactions take place:
(i) 2Cr(s) + 3Cd2+(aq) ® 2Cr3+(aq) + 3Cd
(ii) Fe2+(aq) + Ag+(aq) ® Fe3+(aq) + Ag(s)
Calculate the DrGo and equilibrium constant of the reactions 2 5
Write the Nernst equation and emf of the following cells at 298 K:
(i) Mg(s)|Mg2+(0 001M)||Cu2+(0 |
1 | 2711-2714 | 2 5
Write the Nernst equation and emf of the following cells at 298 K:
(i) Mg(s)|Mg2+(0 001M)||Cu2+(0 0001 M)|Cu(s)
(ii) Fe(s)|Fe2+(0 |
1 | 2712-2715 | 5
Write the Nernst equation and emf of the following cells at 298 K:
(i) Mg(s)|Mg2+(0 001M)||Cu2+(0 0001 M)|Cu(s)
(ii) Fe(s)|Fe2+(0 001M)||H+(1M)|H2(g)(1bar)| Pt(s)
(iii) Sn(s)|Sn2+(0 |
1 | 2713-2716 | 001M)||Cu2+(0 0001 M)|Cu(s)
(ii) Fe(s)|Fe2+(0 001M)||H+(1M)|H2(g)(1bar)| Pt(s)
(iii) Sn(s)|Sn2+(0 050 M)||H+(0 |
1 | 2714-2717 | 0001 M)|Cu(s)
(ii) Fe(s)|Fe2+(0 001M)||H+(1M)|H2(g)(1bar)| Pt(s)
(iii) Sn(s)|Sn2+(0 050 M)||H+(0 020 M)|H2(g) (1 bar)|Pt(s)
(iv) Pt(s)|Br–(0 |
1 | 2715-2718 | 001M)||H+(1M)|H2(g)(1bar)| Pt(s)
(iii) Sn(s)|Sn2+(0 050 M)||H+(0 020 M)|H2(g) (1 bar)|Pt(s)
(iv) Pt(s)|Br–(0 010 M)|Br2(l )||H+(0 |
1 | 2716-2719 | 050 M)||H+(0 020 M)|H2(g) (1 bar)|Pt(s)
(iv) Pt(s)|Br–(0 010 M)|Br2(l )||H+(0 030 M)| H2(g) (1 bar)|Pt(s) |
1 | 2717-2720 | 020 M)|H2(g) (1 bar)|Pt(s)
(iv) Pt(s)|Br–(0 010 M)|Br2(l )||H+(0 030 M)| H2(g) (1 bar)|Pt(s) 2 |
1 | 2718-2721 | 010 M)|Br2(l )||H+(0 030 M)| H2(g) (1 bar)|Pt(s) 2 6
In the button cells widely used in watches and other devices the following
reaction takes place:
Zn(s) + Ag2O(s) + H2O(l) ® Zn2+(aq) + 2Ag(s) + 2OH–(aq)
Determine DrGo and Eo for the reaction |
1 | 2719-2722 | 030 M)| H2(g) (1 bar)|Pt(s) 2 6
In the button cells widely used in watches and other devices the following
reaction takes place:
Zn(s) + Ag2O(s) + H2O(l) ® Zn2+(aq) + 2Ag(s) + 2OH–(aq)
Determine DrGo and Eo for the reaction 2 |
1 | 2720-2723 | 2 6
In the button cells widely used in watches and other devices the following
reaction takes place:
Zn(s) + Ag2O(s) + H2O(l) ® Zn2+(aq) + 2Ag(s) + 2OH–(aq)
Determine DrGo and Eo for the reaction 2 7
Define conductivity and molar conductivity for the solution of an electrolyte |
1 | 2721-2724 | 6
In the button cells widely used in watches and other devices the following
reaction takes place:
Zn(s) + Ag2O(s) + H2O(l) ® Zn2+(aq) + 2Ag(s) + 2OH–(aq)
Determine DrGo and Eo for the reaction 2 7
Define conductivity and molar conductivity for the solution of an electrolyte Discuss their variation with concentration |
1 | 2722-2725 | 2 7
Define conductivity and molar conductivity for the solution of an electrolyte Discuss their variation with concentration 2 |
1 | 2723-2726 | 7
Define conductivity and molar conductivity for the solution of an electrolyte Discuss their variation with concentration 2 8
The conductivity of 0 |
1 | 2724-2727 | Discuss their variation with concentration 2 8
The conductivity of 0 20 M solution of KCl at 298 K is 0 |
1 | 2725-2728 | 2 8
The conductivity of 0 20 M solution of KCl at 298 K is 0 0248 S cm–1 |
1 | 2726-2729 | 8
The conductivity of 0 20 M solution of KCl at 298 K is 0 0248 S cm–1 Calculate
its molar conductivity |
1 | 2727-2730 | 20 M solution of KCl at 298 K is 0 0248 S cm–1 Calculate
its molar conductivity 2 |
1 | 2728-2731 | 0248 S cm–1 Calculate
its molar conductivity 2 9
The resistance of a conductivity cell containing 0 |
1 | 2729-2732 | Calculate
its molar conductivity 2 9
The resistance of a conductivity cell containing 0 001M KCl solution at 298
K is 1500 W |
1 | 2730-2733 | 2 9
The resistance of a conductivity cell containing 0 001M KCl solution at 298
K is 1500 W What is the cell constant if conductivity of 0 |
1 | 2731-2734 | 9
The resistance of a conductivity cell containing 0 001M KCl solution at 298
K is 1500 W What is the cell constant if conductivity of 0 001M KCl solution
at 298 K is 0 |
1 | 2732-2735 | 001M KCl solution at 298
K is 1500 W What is the cell constant if conductivity of 0 001M KCl solution
at 298 K is 0 146 × 10–3 S cm–1 |
1 | 2733-2736 | What is the cell constant if conductivity of 0 001M KCl solution
at 298 K is 0 146 × 10–3 S cm–1 Exercises
Exercises
Exercises
Exercises
Exercises
Rationalised 2023-24
60
Chemistry
Answers to Some Intext Questions
2 |
1 | 2734-2737 | 001M KCl solution
at 298 K is 0 146 × 10–3 S cm–1 Exercises
Exercises
Exercises
Exercises
Exercises
Rationalised 2023-24
60
Chemistry
Answers to Some Intext Questions
2 5 E(cell) = 0 |
1 | 2735-2738 | 146 × 10–3 S cm–1 Exercises
Exercises
Exercises
Exercises
Exercises
Rationalised 2023-24
60
Chemistry
Answers to Some Intext Questions
2 5 E(cell) = 0 91 V
2 |
1 | 2736-2739 | Exercises
Exercises
Exercises
Exercises
Exercises
Rationalised 2023-24
60
Chemistry
Answers to Some Intext Questions
2 5 E(cell) = 0 91 V
2 6
−
∆
o= −
1
rG
45 |
1 | 2737-2740 | 5 E(cell) = 0 91 V
2 6
−
∆
o= −
1
rG
45 54 kJ mol
, Kc = 9 |
1 | 2738-2741 | 91 V
2 6
−
∆
o= −
1
rG
45 54 kJ mol
, Kc = 9 62 ×107
2 |
1 | 2739-2742 | 6
−
∆
o= −
1
rG
45 54 kJ mol
, Kc = 9 62 ×107
2 9 0 |
1 | 2740-2743 | 54 kJ mol
, Kc = 9 62 ×107
2 9 0 114, 3 |
1 | 2741-2744 | 62 ×107
2 9 0 114, 3 67 × 10–4 mol L–1
2 |
1 | 2742-2745 | 9 0 114, 3 67 × 10–4 mol L–1
2 10
The conductivity of sodium chloride at 298 K has been determined at different
concentrations and the results are given below:
Concentration/M
0 |
1 | 2743-2746 | 114, 3 67 × 10–4 mol L–1
2 10
The conductivity of sodium chloride at 298 K has been determined at different
concentrations and the results are given below:
Concentration/M
0 001
0 |
1 | 2744-2747 | 67 × 10–4 mol L–1
2 10
The conductivity of sodium chloride at 298 K has been determined at different
concentrations and the results are given below:
Concentration/M
0 001
0 010
0 |
1 | 2745-2748 | 10
The conductivity of sodium chloride at 298 K has been determined at different
concentrations and the results are given below:
Concentration/M
0 001
0 010
0 020
0 |
1 | 2746-2749 | 001
0 010
0 020
0 050
0 |
1 | 2747-2750 | 010
0 020
0 050
0 100
102 × k/S m–1
1 |
1 | 2748-2751 | 020
0 050
0 100
102 × k/S m–1
1 237
11 |
1 | 2749-2752 | 050
0 100
102 × k/S m–1
1 237
11 85
23 |
1 | 2750-2753 | 100
102 × k/S m–1
1 237
11 85
23 15
55 |
1 | 2751-2754 | 237
11 85
23 15
55 53 106 |
1 | 2752-2755 | 85
23 15
55 53 106 74
Calculate Λm for all concentrations and draw a plot between Λm and c½ |
1 | 2753-2756 | 15
55 53 106 74
Calculate Λm for all concentrations and draw a plot between Λm and c½ Find the value of
0
m |
1 | 2754-2757 | 53 106 74
Calculate Λm for all concentrations and draw a plot between Λm and c½ Find the value of
0
m 2 |
1 | 2755-2758 | 74
Calculate Λm for all concentrations and draw a plot between Λm and c½ Find the value of
0
m 2 11
Conductivity of 0 |
1 | 2756-2759 | Find the value of
0
m 2 11
Conductivity of 0 00241 M acetic acid is 7 |
1 | 2757-2760 | 2 11
Conductivity of 0 00241 M acetic acid is 7 896 × 10–5 S cm–1 |
1 | 2758-2761 | 11
Conductivity of 0 00241 M acetic acid is 7 896 × 10–5 S cm–1 Calculate its
molar conductivity |
1 | 2759-2762 | 00241 M acetic acid is 7 896 × 10–5 S cm–1 Calculate its
molar conductivity If
0
m
for acetic acid is 390 |
1 | 2760-2763 | 896 × 10–5 S cm–1 Calculate its
molar conductivity If
0
m
for acetic acid is 390 5 S cm2 mol–1, what is its
dissociation constant |
1 | 2761-2764 | Calculate its
molar conductivity If
0
m
for acetic acid is 390 5 S cm2 mol–1, what is its
dissociation constant 2 |
1 | 2762-2765 | If
0
m
for acetic acid is 390 5 S cm2 mol–1, what is its
dissociation constant 2 12
How much charge is required for the following reductions:
(i) 1 mol of Al3+ to Al |
1 | 2763-2766 | 5 S cm2 mol–1, what is its
dissociation constant 2 12
How much charge is required for the following reductions:
(i) 1 mol of Al3+ to Al (ii) 1 mol of Cu2+ to Cu |
1 | 2764-2767 | 2 12
How much charge is required for the following reductions:
(i) 1 mol of Al3+ to Al (ii) 1 mol of Cu2+ to Cu (iii) 1 mol of MnO4
– to Mn2+ |
1 | 2765-2768 | 12
How much charge is required for the following reductions:
(i) 1 mol of Al3+ to Al (ii) 1 mol of Cu2+ to Cu (iii) 1 mol of MnO4
– to Mn2+ 2 |
1 | 2766-2769 | (ii) 1 mol of Cu2+ to Cu (iii) 1 mol of MnO4
– to Mn2+ 2 13
How much electricity in terms of Faraday is required to produce
(i) 20 |
1 | 2767-2770 | (iii) 1 mol of MnO4
– to Mn2+ 2 13
How much electricity in terms of Faraday is required to produce
(i) 20 0 g of Ca from molten CaCl2 |
1 | 2768-2771 | 2 13
How much electricity in terms of Faraday is required to produce
(i) 20 0 g of Ca from molten CaCl2 (ii) 40 |
1 | 2769-2772 | 13
How much electricity in terms of Faraday is required to produce
(i) 20 0 g of Ca from molten CaCl2 (ii) 40 0 g of Al from molten Al2O3 |
1 | 2770-2773 | 0 g of Ca from molten CaCl2 (ii) 40 0 g of Al from molten Al2O3 2 |
1 | 2771-2774 | (ii) 40 0 g of Al from molten Al2O3 2 14
How much electricity is required in coulomb for the oxidation of
(i) 1 mol of H2O to O2 |
1 | 2772-2775 | 0 g of Al from molten Al2O3 2 14
How much electricity is required in coulomb for the oxidation of
(i) 1 mol of H2O to O2 (ii) 1 mol of FeO to Fe2O3 |
1 | 2773-2776 | 2 14
How much electricity is required in coulomb for the oxidation of
(i) 1 mol of H2O to O2 (ii) 1 mol of FeO to Fe2O3 2 |
1 | 2774-2777 | 14
How much electricity is required in coulomb for the oxidation of
(i) 1 mol of H2O to O2 (ii) 1 mol of FeO to Fe2O3 2 15
A solution of Ni(NO3)2 is electrolysed between platinum electrodes using a
current of 5 amperes for 20 minutes |
1 | 2775-2778 | (ii) 1 mol of FeO to Fe2O3 2 15
A solution of Ni(NO3)2 is electrolysed between platinum electrodes using a
current of 5 amperes for 20 minutes What mass of Ni is deposited at the
cathode |
1 | 2776-2779 | 2 15
A solution of Ni(NO3)2 is electrolysed between platinum electrodes using a
current of 5 amperes for 20 minutes What mass of Ni is deposited at the
cathode 2 |
1 | 2777-2780 | 15
A solution of Ni(NO3)2 is electrolysed between platinum electrodes using a
current of 5 amperes for 20 minutes What mass of Ni is deposited at the
cathode 2 16
Three electrolytic cells A,B,C containing solutions of ZnSO4, AgNO3 and CuSO4,
respectively are connected in series |
1 | 2778-2781 | What mass of Ni is deposited at the
cathode 2 16
Three electrolytic cells A,B,C containing solutions of ZnSO4, AgNO3 and CuSO4,
respectively are connected in series A steady current of 1 |
1 | 2779-2782 | 2 16
Three electrolytic cells A,B,C containing solutions of ZnSO4, AgNO3 and CuSO4,
respectively are connected in series A steady current of 1 5 amperes was
passed through them until 1 |
1 | 2780-2783 | 16
Three electrolytic cells A,B,C containing solutions of ZnSO4, AgNO3 and CuSO4,
respectively are connected in series A steady current of 1 5 amperes was
passed through them until 1 45 g of silver deposited at the cathode of cell B |
1 | 2781-2784 | A steady current of 1 5 amperes was
passed through them until 1 45 g of silver deposited at the cathode of cell B How long did the current flow |
1 | 2782-2785 | 5 amperes was
passed through them until 1 45 g of silver deposited at the cathode of cell B How long did the current flow What mass of copper and zinc were deposited |
1 | 2783-2786 | 45 g of silver deposited at the cathode of cell B How long did the current flow What mass of copper and zinc were deposited 2 |
1 | 2784-2787 | How long did the current flow What mass of copper and zinc were deposited 2 17
Using the standard electrode potentials given in Table 3 |
1 | 2785-2788 | What mass of copper and zinc were deposited 2 17
Using the standard electrode potentials given in Table 3 1, predict if the
reaction between the following is feasible:
(i) Fe3+(aq) and I–(aq)
(ii) Ag+ (aq) and Cu(s)
(iii) Fe3+ (aq) and Br– (aq)
(iv) Ag(s) and Fe
3+ (aq)
(v) Br2 (aq) and Fe2+ (aq) |
1 | 2786-2789 | 2 17
Using the standard electrode potentials given in Table 3 1, predict if the
reaction between the following is feasible:
(i) Fe3+(aq) and I–(aq)
(ii) Ag+ (aq) and Cu(s)
(iii) Fe3+ (aq) and Br– (aq)
(iv) Ag(s) and Fe
3+ (aq)
(v) Br2 (aq) and Fe2+ (aq) 2 |
1 | 2787-2790 | 17
Using the standard electrode potentials given in Table 3 1, predict if the
reaction between the following is feasible:
(i) Fe3+(aq) and I–(aq)
(ii) Ag+ (aq) and Cu(s)
(iii) Fe3+ (aq) and Br– (aq)
(iv) Ag(s) and Fe
3+ (aq)
(v) Br2 (aq) and Fe2+ (aq) 2 18
Predict the products of electrolysis in each of the following:
(i) An aqueous solution of AgNO3 with silver electrodes |
1 | 2788-2791 | 1, predict if the
reaction between the following is feasible:
(i) Fe3+(aq) and I–(aq)
(ii) Ag+ (aq) and Cu(s)
(iii) Fe3+ (aq) and Br– (aq)
(iv) Ag(s) and Fe
3+ (aq)
(v) Br2 (aq) and Fe2+ (aq) 2 18
Predict the products of electrolysis in each of the following:
(i) An aqueous solution of AgNO3 with silver electrodes (ii) An aqueous solution of AgNO3 with platinum electrodes |
1 | 2789-2792 | 2 18
Predict the products of electrolysis in each of the following:
(i) An aqueous solution of AgNO3 with silver electrodes (ii) An aqueous solution of AgNO3 with platinum electrodes (iii) A dilute solution of H2SO4 with platinum electrodes |
1 | 2790-2793 | 18
Predict the products of electrolysis in each of the following:
(i) An aqueous solution of AgNO3 with silver electrodes (ii) An aqueous solution of AgNO3 with platinum electrodes (iii) A dilute solution of H2SO4 with platinum electrodes (iv) An aqueous solution of CuCl2 with platinum electrodes |
1 | 2791-2794 | (ii) An aqueous solution of AgNO3 with platinum electrodes (iii) A dilute solution of H2SO4 with platinum electrodes (iv) An aqueous solution of CuCl2 with platinum electrodes Rationalised 2023-24
Chemistry, by its very nature, is concerned with change |
1 | 2792-2795 | (iii) A dilute solution of H2SO4 with platinum electrodes (iv) An aqueous solution of CuCl2 with platinum electrodes Rationalised 2023-24
Chemistry, by its very nature, is concerned with change Substances with well defined properties are converted
by chemical reactions into other substances with
different properties |
1 | 2793-2796 | (iv) An aqueous solution of CuCl2 with platinum electrodes Rationalised 2023-24
Chemistry, by its very nature, is concerned with change Substances with well defined properties are converted
by chemical reactions into other substances with
different properties For any chemical reaction, chemists
try to find out
(a) the feasibility of a chemical reaction which can be
predicted by thermodynamics ( as you know that a
reaction with DG < 0, at constant temperature and
pressure is feasible);
(b) extent to which a reaction will proceed can be
determined from chemical equilibrium;
(c) speed of a reaction i |
1 | 2794-2797 | Rationalised 2023-24
Chemistry, by its very nature, is concerned with change Substances with well defined properties are converted
by chemical reactions into other substances with
different properties For any chemical reaction, chemists
try to find out
(a) the feasibility of a chemical reaction which can be
predicted by thermodynamics ( as you know that a
reaction with DG < 0, at constant temperature and
pressure is feasible);
(b) extent to which a reaction will proceed can be
determined from chemical equilibrium;
(c) speed of a reaction i e |
1 | 2795-2798 | Substances with well defined properties are converted
by chemical reactions into other substances with
different properties For any chemical reaction, chemists
try to find out
(a) the feasibility of a chemical reaction which can be
predicted by thermodynamics ( as you know that a
reaction with DG < 0, at constant temperature and
pressure is feasible);
(b) extent to which a reaction will proceed can be
determined from chemical equilibrium;
(c) speed of a reaction i e time taken by a reaction to
reach equilibrium |
1 | 2796-2799 | For any chemical reaction, chemists
try to find out
(a) the feasibility of a chemical reaction which can be
predicted by thermodynamics ( as you know that a
reaction with DG < 0, at constant temperature and
pressure is feasible);
(b) extent to which a reaction will proceed can be
determined from chemical equilibrium;
(c) speed of a reaction i e time taken by a reaction to
reach equilibrium Along with feasibility and extent, it is equally
important to know the rate and the factors controlling
the rate of a chemical reaction for its complete
understanding |
1 | 2797-2800 | e time taken by a reaction to
reach equilibrium Along with feasibility and extent, it is equally
important to know the rate and the factors controlling
the rate of a chemical reaction for its complete
understanding For example, which parameters
determine as to how rapidly food gets spoiled |
1 | 2798-2801 | time taken by a reaction to
reach equilibrium Along with feasibility and extent, it is equally
important to know the rate and the factors controlling
the rate of a chemical reaction for its complete
understanding For example, which parameters
determine as to how rapidly food gets spoiled How
to design a rapidly setting material for dental filling |
1 | 2799-2802 | Along with feasibility and extent, it is equally
important to know the rate and the factors controlling
the rate of a chemical reaction for its complete
understanding For example, which parameters
determine as to how rapidly food gets spoiled How
to design a rapidly setting material for dental filling Or what controls the rate at which fuel burns in an
auto engine |
1 | 2800-2803 | For example, which parameters
determine as to how rapidly food gets spoiled How
to design a rapidly setting material for dental filling Or what controls the rate at which fuel burns in an
auto engine All these questions can be answered by
the branch of chemistry, which deals with the study
of reaction rates and their mechanisms, called
chemical kinetics |
1 | 2801-2804 | How
to design a rapidly setting material for dental filling Or what controls the rate at which fuel burns in an
auto engine All these questions can be answered by
the branch of chemistry, which deals with the study
of reaction rates and their mechanisms, called
chemical kinetics The word kinetics is derived from
the Greek word ‘kinesis’ meaning movement |
1 | 2802-2805 | Or what controls the rate at which fuel burns in an
auto engine All these questions can be answered by
the branch of chemistry, which deals with the study
of reaction rates and their mechanisms, called
chemical kinetics The word kinetics is derived from
the Greek word ‘kinesis’ meaning movement Thermodynamics tells only about the feasibility of a
reaction whereas chemical kinetics tells about the rate
of a reaction |
1 | 2803-2806 | All these questions can be answered by
the branch of chemistry, which deals with the study
of reaction rates and their mechanisms, called
chemical kinetics The word kinetics is derived from
the Greek word ‘kinesis’ meaning movement Thermodynamics tells only about the feasibility of a
reaction whereas chemical kinetics tells about the rate
of a reaction For example, thermodynamic data
indicate that diamond shall convert to graphite but
in reality the conversion rate is so slow that the change
is not perceptible at all |
1 | 2804-2807 | The word kinetics is derived from
the Greek word ‘kinesis’ meaning movement Thermodynamics tells only about the feasibility of a
reaction whereas chemical kinetics tells about the rate
of a reaction For example, thermodynamic data
indicate that diamond shall convert to graphite but
in reality the conversion rate is so slow that the change
is not perceptible at all Therefore, most people think
After studying this Unit, you will be
able to
·
define
the
average
and
instantaneous rate of a reaction;
·
express the rate of a reaction in
terms of change in concentration
of either of the reactants or
products with time;
·
distinguish between elementary
and complex reactions;
·
differentiate
between
the
molecularity and order of a
reaction;
·
define rate constant;
·
discuss the dependence of rate of
reactions
on
concentration,
temperature and catalyst;
·
derive integrated rate equations
for the zero and first order
reactions;
·
determine the rate constants for
zeroth and first order reactions;
·
describe collision theory |
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