Chapter 12, Problem 35E

(a)

Interpretation Introduction

Interpretation: The reactions for which $K$ is equal to $K_p$ are to be identified.

Concept introduction: The state when the reactants involved in a chemical reaction and the products formed in the reaction exist in concentrations having no further tendency to change is known as an equilibrium state of the reaction. When the equilibrium constant is expressed in terms of concentration, it is represented $K$. When the equilibrium constant is expressed in terms of pressure, it is represented $K_{\text{p}}$. The relation between ‘ $K$’ and ‘ $K_{\text{p}}$’ is, $K_{\text{p}}=K{\left(RT\right)}^{\Delta n}$.

To determine: If the given has reaction has $K$ equal to $K_p$.

(b)

Interpretation Introduction

Interpretation: The reactions for which $K$ is equal to $K_p$ are to be identified.

Concept introduction: The state when the reactants involved in a chemical reaction and the products formed in the reaction exist in concentrations having no further tendency to change is known as an equilibrium state of the reaction. When the equilibrium constant is expressed in terms of concentration, it is represented $K$. When the equilibrium constant is expressed in terms of pressure, it is represented $K_{\text{p}}$. The relation between ‘ $K$’ and ‘ $K_{\text{p}}$’ is, $K_{\text{p}}=K{\left(RT\right)}^{\Delta n}$.

To determine: If the given has reaction has $K$ equal to $K_p$.

(c)

Interpretation Introduction

Interpretation: The reactions for which $K$ is equal to $K_p$ are to be identified.

Concept introduction: The state when the reactants involved in a chemical reaction and the products formed in the reaction exist in concentrations having no further tendency to change is known as an equilibrium state of the reaction. When the equilibrium constant is expressed in terms of concentration, it is represented $K$. When the equilibrium constant is expressed in terms of pressure, it is represented $K_{\text{p}}$. The relation between ‘ $K$’ and ‘ $K_{\text{p}}$’ is, $K_{\text{p}}=K{\left(RT\right)}^{\Delta n}$.

To determine: If the given has reaction has $K$ equal to $K_p$.

(d)

Interpretation Introduction

Interpretation: The reactions for which $K$ is equal to $K_p$ are to be identified.

Concept introduction: The state when the reactants involved in a chemical reaction and the products formed in the reaction exist in concentrations having no further tendency to change is known as an equilibrium state of the reaction. When the equilibrium constant is expressed in terms of concentration, it is represented $K$. When the equilibrium constant is expressed in terms of pressure, it is represented $K_{\text{p}}$. The relation between ‘ $K$’ and ‘ $K_{\text{p}}$’ is, $K_{\text{p}}=K{\left(RT\right)}^{\Delta n}$.

To determine: If the given has reaction has $K$ equal to $K_p$.