In the gaseous equilibrium `H_(2)X_(2)` + heat `hArr` 2HX, the formation of HX will be favoured by

In the gaseous equilibrium A+2B hArr C+"Heat" , the forward reaction is favoured:

In the gaseous equilibrium A+2B hArr C+"Heat" , the forward reaction is favoured:

In the gaseous phase reaction C_(2)H_(4) +H_(2) hArr C_(2)H_(6), the equilibrium constant can be expressed in the units to :

In the gaseous phase reaction C_(2)H_(4) +H_(2) hArr C_(2)H_(6), the equilibrium constant can be expressed in the units to :

For the equilibrium system 2HX(g) hArr H_(2)(g)+X_(2)(g) the equilibrium constant is 1.0xx10^(-5) . What is the concentration of HX if the equilibrium concentration of H_(2) and X_(2) are 1.2xx10^(-3) M, and 1.2xx10^(-4) M respectively?

For the equilibrium system 2HX(g) hArr H_(2)(g)+X_(2)(g) the equilibrium constant is 1.0xx10^(-5) . What is the concentration of HX if the equilibrium concentration of H_(2) and X_(2) are 1.2xx10^(-3) M, and 1.2xx10^(-4) M respectively?

The bond enthalpies of H_(2) , X_(2) and HX are in the ratio of 2 : 1 : 2 , if the enthalpy for formation of HX is -50 kJ mol^(-1) , the bond ethalpy of H_(2) is -

For the equilibrium system 2HX(g) hArr H_(2)(g)+X_(2)(g) the equilibrium constant is 1.0xx 10^(-5) . What is the equilibrium concentration of HX if the equilibrium concentrations of H_(2) and X_(2) are 1.2xx10^(-3) M and 1.2 xx 10^(-4) M respectively ?