# Which Rate Law Is Bimolecular

A rate law is an equation that relates the rate of a reaction to the concentrations of the reactants. The rate law for a bimolecular reaction is rate = k[A][B]. This equation tells us that the rate of the reaction is proportional to the concentrations of reactants A and B. The rate constant k is a number that is specific to the reaction and is determined by the rate of the reaction.

This type of reaction is called bimolecular because it happens between two molecules. In a bimolecular reaction the molecules must collide in order for the reaction to occur. The rate of this type of reaction is affected by the concentrations of the reactants and the rate constant. The rate law for a bimolecular reaction is rate = k[A][B].

In a bimolecular reaction the rate is proportional to the concentrations of the reactants. The rate constant k is a number that is specific to the reaction and is determined by the rate of the reaction. The rate law for a bimolecular reaction is rate = k[A][B].

The rate of a bimolecular reaction is affected by the concentrations of the reactants and the rate constant. The rate law for a bimolecular reaction is rate = k[A][B]. This equation tells us that the rate of the reaction is proportional to the concentrations of reactants A and B. The rate constant k is a number that is specific to the reaction and is determined by the rate of the reaction.

In a bimolecular reaction the molecules must collide in order for the reaction to occur. The rate of this type of reaction is affected by the concentrations of the reactants and the rate constant. The rate law for a bimolecular reaction is rate = k[A][B]. This equation tells us that the rate of the reaction is proportional to the concentrations of reactants A and B. The rate constant k is a number that is specific to the reaction and is determined by the rate of the reaction.

## What is the rate law for a bimolecular reaction?

The rate law for a bimolecular reaction is rate = k[A][B].

## What is the order of a bimolecular reaction?

The order of a bimolecular reaction is two.

## What is the overall order of a bimolecular reaction?

The overall order of a bimolecular reaction is two.

## How does the concentration of reactants affect the rate of a bimolecular reaction?

The concentration of reactants affects the rate of a bimolecular reaction by increasing the rate as the concentration of reactants increases.

## How does the concentration of products affect the rate of a bimolecular reaction?

The concentration of products affects the rate of a bimolecular reaction by decreasing the rate as the concentration of products increases.

## What is the activation energy of a bimolecular reaction?

The activation energy of a bimolecular reaction is the energy needed to overcome the activation barrier.

## What is the rate constant for a bimolecular reaction?

The rate constant for a bimolecular reaction is a measure of the rate of the reaction and is dependent on the temperature.

## How does temperature affect the rate of a bimolecular reaction?

Temperature affects the rate of a bimolecular reaction by increasing the rate as the temperature increases.

## What is the Arrhenius equation?

The Arrhenius equation is an equation that relates the rate constant of a reaction to the temperature.

## What is the collision theory?

The collision theory is a theory that explains how reactions occur and how the rate of a reaction is affected by the collisions of particles.

## What is the activated complex?

The activated complex is the highest energy state that the reactants can reach before they can form the products.

## What is the transition state?

The transition state is the highest energy state that the reactants can reach before they can form the products.

## What is the activation energy?

The activation energy is the energy needed to overcome the activation barrier.

## What is the reaction rate?

The reaction rate is the speed at which a reaction occurs.

## What is the rate-determining step?

The rate-determining step is the slowest step in a reaction and determines the overall rate of the reaction.