Section MATCH_PROGRAM_GENERIC.
Context {C F1 V1 F2 V2: Type} {LC: Linker C} {LF: Linker F1} {LV: Linker V1}.
Variable match_fundef: C -> F1 -> F2 -> Prop.
Variable match_varinfo: V1 -> V2 -> Prop.
Inductive match_globvar: globvar V1 -> globvar V2 -> Prop :=
| match_globvar_intro: forall i1 i2 init ro vo,
match_varinfo i1 i2 ->
match_globvar (mkglobvar i1 init ro vo) (mkglobvar i2 init ro vo).
Inductive match_globdef (ctx: C): globdef F1 V1 -> globdef F2 V2 -> Prop :=
| match_globdef_fun: forall ctx' f1 f2,
linkorder ctx' ctx ->
match_fundef ctx' f1 f2 ->
match_globdef ctx (Gfun f1) (Gfun f2)
| match_globdef_var: forall v1 v2,
match_globvar v1 v2 ->
match_globdef ctx (Gvar v1) (Gvar v2).
Definition match_ident_globdef
(ctx: C) (ig1: ident * globdef F1 V1) (ig2: ident * globdef F2 V2) : Prop :=
fst ig1 = fst ig2 /\ match_globdef ctx (snd ig1) (snd ig2).
Definition match_program_gen (ctx: C) (p1: program F1 V1) (p2: program F2 V2) : Prop :=
list_forall2 (match_ident_globdef ctx) p1.(prog_defs) p2.(prog_defs)
/\ p2.(prog_main) = p1.(prog_main)
/\ p2.(prog_public) = p1.(prog_public).

Theorem match_program_defmap:
forall ctx p1 p2, match_program_gen ctx p1 p2 ->
forall id, option_rel (match_globdef ctx) (prog_defmap p1)!id (prog_defmap p2)!id.