Question

For the reaction h,(g) + 1,(g) 2hi(g) at 721k the value of equilibrium constant (k) is 50. When the equilibrium concentration of both is 0.5m, the value of k under the same conditions will be

Answer 1

Answer:

The value of k under the same conditions will be 50.0.

Explanation:

The equilibrium reaction is H

The equilibrium reaction is H 2

The equilibrium reaction is H 2

The equilibrium reaction is H 2 (g)+I

The equilibrium reaction is H 2 (g)+I 2

The equilibrium reaction is H 2 (g)+I 2

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT)

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn .

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn .For the equilibrium reaction, Δn=2−(1+1)=0.

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn .For the equilibrium reaction, Δn=2−(1+1)=0.Hence, K

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn .For the equilibrium reaction, Δn=2−(1+1)=0.Hence, K p

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn .For the equilibrium reaction, Δn=2−(1+1)=0.Hence, K p

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn .For the equilibrium reaction, Δn=2−(1+1)=0.Hence, K p =K

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn .For the equilibrium reaction, Δn=2−(1+1)=0.Hence, K p =K c

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn .For the equilibrium reaction, Δn=2−(1+1)=0.Hence, K p =K c

The equilibrium reaction is H 2 (g)+I 2 (g)⇔2HI(g).The relationship between K p and K c is K p =K c (RT) Δn .For the equilibrium reaction, Δn=2−(1+1)=0.Hence, K p =K c =50.