If for `2A_(2)B(g)hArr2A_(2)(g)+B_(2)(g),K_(P)="TOTAL PRESSURE" ("at equilibrium") " and starting the dissociation from" 4 "mol of" A_(2)B` then:A. degree of dissociation of `A_(2)B "will be" (2//3)`B. total no. of moles at equilibrium will be `(14//3)`.C. at equilibrium the no. of moles of `A_(2)B` are no equal to the no. of moles of `B_(2)`D. at equilibrium the no. of moles of `A_(2)B` are equal to the no. of moles of `A_(2)`

If for `2A_(2)B(g)hArr2A_(2)(g)+B_(2)(g),K_(P)="TOTAL PRESSURE" ("at e

1.	If for `2A_(2)B(g)hArr2A_(2)(g)+B_(2)(g),K_(P)="TOTAL PRESSURE" ("at equilibrium") " and starting the dissociation from" 4 "mol of" A_(2)B` then:A. degree of dissociation of `A_(2)B "will be" (2//3)`B. total no. of moles at equilibrium will be `(14//3)`.C. at equilibrium the no. of moles of `A_(2)B` are no equal to the no. of moles of `B_(2)`D. at equilibrium the no. of moles of `A_(2)B` are equal to the no. of moles of `A_(2)`
Answer» Correct Answer - A

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