X, Y and Z react in the `1:1:1` stoichiometric ratio.
The concentration of X, Y and Z we are found to vary with time as shown in the figure below:

The value of the equilibrium constant `(K_(c))` for the equilibrium represented the in above sketch will be

A,B and C react in the 1:1:1 stoichiometric ratio. The concentration of A,B and C where found to vary with time as shown in the figure below: The value of equilibrium repreasented in above sketch will be :

X, Y and Z react in the 1:1:1 stoichiometric ratio. The concentration of X, Y and Z we are found to vary with time as shown in the figure below: Which of the following equilibrium reaction represents the correct variation of concentration with time?

X, Y and Z react in the 1:1:1 stoichiometric ratio. The concentration of X, Y and Z we are found to vary with time as shown in the figure below: Which of the following equilibrium reaction represents the correct variation of concentration with time?

X, Y and Z react in the 1:1:1 stoichiometric ratio. The concentration of X, Y and Z we are found to vary with time as shown in the figure below: If the above equilibrium is established in a 2.0 L container by taking reactants in sufficient amount then how many moles of components Y must have reacted to establish the equilibrium?

X, Y and Z react in the 1:1:1 stoichiometric ratio. The concentration of X, Y and Z we are found to vary with time as shown in the figure below: If the above equilibrium is established in a 2.0 L container by taking reactants in sufficient amount then how many moles of components Y must have reacted to establish the equilibrium?

A,B and C react in the 1:1:1 stoichiometric ratio. The concentration of A,B and C where found to vary with time as shown in the figure below: Which of the following equilibrium reaction represents the correct variation of concentration with time?

5 mole of X are mixed with 3 moles of Y. At equilibrium for the reaction, X + Y rarr Z 2 moles of Z are formed. The equilibrium constant for the reaction will be

5 mole of X are mixed with 3 moles of Y. At equilibrium for the reaction, X + Y rarr Z 2 moles of Z are formed. The equilibrium constant for the reaction will be

In a chemical reaction , A+2Boverset(K)hArr2c+D, the initial concentration of B was 1.5 times of the concentrations of A , but the equilibrium concentrations of A and B were found to be equal . The equilibrium constant (K) for the aforesaid chemical reaction is :