D-glucose `overset(HO^(-))hArr A+B`, A and B are :

D-Mannose overset(HO^(-))hArr "D-Glucose" overset(HO^(-))hArr(A) , Product (A) of above reaction is

D-Mannose overset(HO^(-))hArr "D - Glucose" overset(HO^(-))hArr (A) , Product (A) of above reaction is

D - "glucose"overset("Tollen's reagent")rarr(A), D-"glucose"overset(Br_(2)-"water")rarr (B) (A) and (B) are :

D - "glucose"overset("Tollen's reagent")rarr(A), D-"glucose"overset(Br_(2)-"water")rarr (B) (A) and (B) are :

alpha - D glucose undergoes mütarotation to beta -D glucose in an aqueous solution. If at 298 K there is 60% conversion of alpha - D glucose overset(H_(2)O)(harr) beta -D glucose, then find correct statement

Mechanism of the reaction is: A_(2) overset(k_(2))hArr 2A A + B overset(k_(2))rarr C A_(2) + C overset(k)rarr D + A What is (a) (-d[A_(2)])/(dt) , (b) (-d[A])/(dt) , (c ) (d[C])/(d t) , (d) (d[D])/(dt) ?

Mechanism of the reaction is: A_(2) overset(k_(2))hArr 2A A + B overset(k_(2))rarr C A_(2) + C overset(k)rarr D + A What is (d[D])/(dt) ?

In the decay process: A overset(- alpha)rarr B overset(-beta)rarr C overset(-beta)rarr D a) A and B are isodiaphers b) A and C are isotones c) A and C are isotopes d) B, C and D are isobars

In the decay process: A overset(- alpha)rarr B overset(-beta)rarr C overset(-beta)rarr D a) A and B are isodiaphers b) A and C are isotones c) A and C are isotopes d) B, C and D are isobars