(a) Interpretation: To determine the percentage of molecules whose speed is 0 ms-1. Concept introduction: Due to the larger number of molecules, the speed of the each of them cannot be calculated or known at the same time. The equation shown below can be used as it describes the distribution of speeds in molecules in a given sample of gas. F(u) = 4 π ( M 2 π RT ) 3 2 × u 2 e -Mu 2 2RT
(a) Interpretation: To determine the percentage of molecules whose speed is 0 ms-1. Concept introduction: Due to the larger number of molecules, the speed of the each of them cannot be calculated or known at the same time. The equation shown below can be used as it describes the distribution of speeds in molecules in a given sample of gas. F(u) = 4 π ( M 2 π RT ) 3 2 × u 2 e -Mu 2 2RT
Solution Summary: The author explains how the equation can be used to determine the percentage of molecules whose speed is 0 ms-1.
To determine the percentage of molecules whose speed is 0 ms-1.
Concept introduction:
Due to the larger number of molecules, the speed of the each of them cannot be calculated or known at the same time. The equation shown below can be used as it describes the distribution of speeds in molecules in a given sample of gas.
F(u)=4π(M2πRT)32×u2e-Mu22RT
Interpretation Introduction
(b)
Interpretation:
To determine the percentage of molecules whose speed is 500 ms-1.
Concept introduction:
The equilibrium constant K is used to express the relation between the reactants and the products of a given reaction at equilibrium with respect to some specific unit. The relation between Gibbs Free energy and the equilibrium constant is given by the equation:
ΔGο= -RTlnKeq
Interpretation Introduction
(c)
Interpretation:
To determine the percentage of molecules whose speed is 1000 ms-1.
Concept introduction:
The equilibrium constant K is used to express the relation between the reactants and the products of a given reaction at equilibrium with respect to some specific unit. The relation between Gibbs Free energy and the equilibrium constant is given by the equation:
ΔGο= -RTlnKeq
Interpretation Introduction
(d)
Interpretation:
To determine the percentage of molecules whose speed is 1500 ms-1.
Concept introduction:
The equilibrium constant K is used to express the relation between the reactants and the products of a given reaction at equilibrium with respect to some specific unit. The relation between Gibbs Free energy and the equilibrium constant is given by the equation:
ΔGο= -RTlnKeq
Interpretation Introduction
(e)
Interpretation:
To determine the percentage of molecules whose speed is 2000 ms-1.
Concept introduction:
The equilibrium constant K is used to express the relation between the reactants and the products of a given reaction at equilibrium with respect to some specific unit. The relation between Gibbs Free energy and the equilibrium constant is given by the equation:
ΔGο= -RTlnKeq
Interpretation Introduction
(f)
Interpretation:
To determine the percentage of molecules whose speed is 2500 ms-1.
Concept introduction:
The equilibrium constant K is used to express the relation between the reactants and the products of a given reaction at equilibrium with respect to some specific unit. The relation between Gibbs Free energy and the equilibrium constant is given by the equation:
ΔGο= -RTlnKeq
Interpretation Introduction
(g)
Interpretation:
To determine the percentage of molecules whose speed is 3500 ms-1 and graph should be drawn for obtained results.
Concept introduction:
The equilibrium constant K is used to express the relation between the reactants and the products of a given reaction at equilibrium with respect to some specific unit. The relation between Gibbs Free energy and the equilibrium constant is given by the equation:
Please correct answer and don't use hand rating and don't use Ai solution
Please correct answer and don't used hand raiting
14. Draw all of the products expected for the following reaction. Circle the products expected to
predominate when the reaction is heated to 40 °C. EXPLAIN your choice. (12 points)
HBr
?
Br
-11