Match the characteristics mentioned in Column II with the process in Column I. {:(,"Column I",,"Column II"),((A),LiF_((s))+AquararrLiF_((aq)),(p),"Exothermic"),((B),KF_((s))+AquararrKF_((aq)),(q),"Endothermic"),((C),O_((g))+e^(-)rarrO_((g))^(-),(r),"Positive affinity"),((D),O_((g))^(-)+e^(-)rarrO_((g))^(2-),(s),"Negative affinity"):}

Match the characteristics mentioned in Column II with the process in C

1.	Match the characteristics mentioned in Column II with the process in Column I. {:(,"Column I",,"Column II"),((A),LiF_((s))+AquararrLiF_((aq)),(p),"Exothermic"),((B),KF_((s))+AquararrKF_((aq)),(q),"Endothermic"),((C),O_((g))+e^(-)rarrO_((g))^(-),(r),"Positive affinity"),((D),O_((g))^(-)+e^(-)rarrO_((g))^(2-),(s),"Negative affinity"):}
Answer» Solution :`(A)DeltaH_("lattice")LiFltDeltaH_("hydration")(LI^(+))+DeltaH_("hydration")(F^(-)),` Hence, exothermic dissolution. `(B) DeltaH_("lattice")(KF)gtDeltaH_("hydration")(KF),` Hence, endothermic dissolution. `(C) O_((g))+E^(-)rarrO_((g))^(-),DeltaHlt0" (Exothermic)",` `(D) O_((g))^(-)+e^(-)rarrO_((g))^(2-), DELTAHGT0" (endothermic)", Hence negative affinity.