(a) Interpretation: It is to be shown that thecatalyst increases the rates of both reactions by the same factor. Concept introduction: Arrhenius equation basically gives the dependence of the rate constant of chemical reactionat the absolute temperature T , pre-exponential factors, and other constants of the reaction. K=A .e -E a RT Where, K is the rate constant, A is nothing but the pre-exponential factor, T is the temperature in Kelvin, a constant for chemical reaction .
(a) Interpretation: It is to be shown that thecatalyst increases the rates of both reactions by the same factor. Concept introduction: Arrhenius equation basically gives the dependence of the rate constant of chemical reactionat the absolute temperature T , pre-exponential factors, and other constants of the reaction. K=A .e -E a RT Where, K is the rate constant, A is nothing but the pre-exponential factor, T is the temperature in Kelvin, a constant for chemical reaction .
Solution Summary: The author explains that the catalyst does not affect the value of equilibrium constant after summation of catalyst equilibrium.
Definition Definition State where the components involved in a reversible reaction, namely reactants and product, do not change concentration any further with time. Chemical equilibrium results when the rate of the forward reaction becomes equal to the rate of the reverse reaction.
Chapter 15, Problem 15.142SP
Interpretation Introduction
(a)
Interpretation:
It is to be shown that thecatalyst increases the rates of both reactions by the same factor.
Concept introduction:
Arrhenius equation basically gives the dependence of the rate constant of chemical reactionat the absolute temperature T, pre-exponential factors, and other constants of the reaction.
K=A.e-EaRT
Where, K is the rate constant, A is nothing but the pre-exponential factor, T is the temperature in Kelvin, a constant for chemical reaction.
Interpretation Introduction
(b)
Interpretation:
It is to be shown that the catalyst does not affect the value of the equilibrium constant by using relation between Kf and Kr.
Concept introduction:
Chemical equilibrium is simply a state in which the forward reaction equals the rate of the rate of reverse reaction.
Reaction kinetics or the chemical kinetics is basically the branch of physical chemistry which is concerned with understanding of the chemical reactions rates.
Use the observations about each chemical reaction in the table below to decide the sign (positive or negative) of the reaction enthalpy AH and reaction entropy
AS.
Note: if you have not been given enough information to decide a sign, select the "unknown" option.
reaction
observations
conclusions
ΔΗ is
(pick one)
A
This reaction is faster above 103. °C than
below.
AS is
(pick one)
ΔΗ is
(pick one)
B
This reaction is spontaneous only above
-9. °C.
AS is
(pick one)
ΔΗ is
(pick one)
C
The reverse of this reaction is always
spontaneous.
AS is
(pick one)
18
Ar
Use the observations about each chemical reaction in the table below to decide the sign (positive or negative) of the reaction enthalpy AH and reaction entropy
AS.
Note: if you have not been given enough information to decide a sign, select the "unknown" option.
reaction
observations
conclusions
A
The reverse of this reaction is always
spontaneous but proceeds slower at
temperatures below 41. °C.
ΔΗ is
(pick one)
AS is
(pick one)
ΔΗ is
(pick one)
B
This reaction is spontaneous except above
94. °C.
AS is
(pick one)
This reaction is always spontaneous, but
ΔΗ is
(pick one)
C
proceeds slower at temperatures below
−14. °C.
AS is
(pick one)
Х
00.
18
Ar
무ㅎ
B
1
1
Draw the product of the reaction shown below. Ignore inorganic
byproducts.
+
H
CH3CH2OH
HCI
Drawing
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