For the reaction `Fe_2N(s)+(3/2)H_2(g)Leftrightarrow2Fe(s)+NH_3(g)`
A) `K_c=K_p(RT)^(1/2)`
B) `K_p=K_c(RT)^(-1/2)`
C) `K_c=K_p(RT)`
D) `K_c=K_p(RT)^(3/2)`

For the reaction: Fe_(2)N(s)+(3)/(2)H_(2)(g) hArr 2Fe(s)+NH_(3)(g) (A) K_(c)=K_(p)(RT) (B) K_(c)=K_(p)(RT)^(-1/2) (C) K_(c)=K_(p)(RT)^(1/2) (D) K_(c)=K_(p)(RT)^(3/2)

For the reaction: Fe_(2)N(s)+(3)/(2)H_(2)(g) hArr 2Fe(s)+NH_(3)(g) (A) K_(c)=K_(p)(RT) (B) K_(c)=K_(p)(RT)^(-1/2) (C) K_(c)=K_(p)(RT)^(1/2) (D) K_(c)=K_(p)(RT)^(3/2)

The value of K_c for the reaction N_(2(g))+ 3H_(2(g)) Leftrightarrow 2NH_(3(g)) depends on

For the reaction SO_(2(g))+(1)/(2)O_(2(g))hArrSO_(3(g)) , if K_(c)=K_(p)(RT)^(X) then the value of X is

For the reaction CO(g)+(1)/(2) O_(2)(g) hArr CO_(2)(g),K_(p)//K_(c) is

For the reaction, PCl_(3) (g)+Cl_(2) (g) Leftrightarrow PCl_(5) (g)" at "27^@C, K_p" is 0.41 atm"^(-1). Then K_c is :