Section TotalMapSimulations.
Context {base_fst : BaseParams}.
Context {base_snd : BaseParams}.
Context {multi_fst : MultiParams base_fst}.
Context {multi_snd : MultiParams base_snd}.
Context {base_map : BaseParamsTotalMap base_fst base_snd}.
Context {name_map : MultiParamsNameTotalMap multi_fst multi_snd}.
Context {msg_map : MultiParamsMsgTotalMap multi_fst multi_snd}.
Context {name_map_bijective : MultiParamsNameTotalMapBijective name_map}.
Context {multi_map_congr : MultiParamsTotalMapCongruency base_map name_map msg_map}.
Definition tot_map_trace_occ (e : @name _ multi_fst * (@input base_fst + list (@output base_fst))) :=
match e with
| (n, inl io) => (tot_map_name n, inl (tot_map_input io))
| (n, inr lo) => (tot_map_name n, inr (map tot_map_output lo))
end.
Definition tot_map_packet (p : @packet base_fst multi_fst)  :=
match p with
| mkPacket src dst m =>
mkPacket (tot_map_name src) (tot_map_name dst) (tot_map_msg m)
end.
Definition tot_map_net (net : @network _ multi_fst) : @network _ multi_snd :=
{| nwPackets := map tot_map_packet net.(nwPackets) ;
nwState := fun n => tot_map_data (net.(nwState) (tot_map_name_inv n)) |}.
Proof using name_map_bijective.
move => net d h.
apply functional_extensionality => n.
rewrite /update /=.
repeat break_match => //.
- by find_reverse_rewrite; find_rewrite_lem tot_map_name_inverse_inv.
- by find_rewrite; find_rewrite_lem tot_map_name_inv_inverse.
Qed.
Proof using name_map_bijective.
move => f.
case => src dst m d.
exact: tot_map_update_eq.
Qed.
Proof using.
elim => //=.
case => /= n m' l IH h.
by rewrite IH.
Qed.
Proof using name_map_bijective multi_map_congr msg_map.
apply functional_extensionality => n.
by rewrite tot_init_handlers_eq tot_map_name_inverse_inv.
Qed.
Proof using.
case => //=.
case.
move => n ol tr n' lo H_eq.
case: tr H_eq => //=.
case: ol => //=.
move => out H_eq.
exists n; exists out.
split => //.
by inversion H_eq.
Qed.
Proof using name_map_bijective.
case => //=.
case.
move => h.
case => //.
move => inp.
case => //.
case.
move => h'.
case => //.
move => out.
case => //=.
move => h0.
move => inp' out' H_eq.
inversion H_eq.
find_apply_lem_hyp tot_map_name_injective.
repeat find_rewrite.
by exists h; exists inp; exists out.
Qed.
Proof using name_map_bijective multi_map_congr.
move => net net' tr.
case => {net net' tr}.
- move => net net' p ms ms' out d l H_eq H_hnd H_eq'.
rewrite /tot_map_trace_occ /=.
have ->: tot_map_name (pDst p) = pDst (tot_map_packet p) by case: p H_eq H_hnd H_eq' => src dst m H_eq H_hnd H_eq'.
apply (@StepAsync_deliver _ _ _ _ _ (map tot_map_packet ms) (map tot_map_packet ms') (map tot_map_output out) (tot_map_data d) (tot_map_name_msgs l)).
* by rewrite /tot_map_net /= H_eq /= map_app.
* rewrite /=.
case: p H_eq H_hnd H_eq' => /= src dst m H_eq H_hnd H_eq'.
have H_q := tot_net_handlers_eq dst src m (nwState net dst).
rewrite /tot_mapped_net_handlers in H_q.
rewrite H_hnd in H_q.
rewrite H_q.
by rewrite tot_map_name_inv_inverse.
* rewrite /= H_eq' /= /tot_map_net /=.
rewrite -tot_map_update_packet_eq.
rewrite 2!map_app.
destruct p.
by rewrite tot_map_packet_map_eq.
- move => h net net' out inp d l H_hnd H_eq.
apply (@StepAsync_input _ _ _ _ _ _ _ (tot_map_data d) (tot_map_name_msgs l)).
rewrite /=.
have H_q := tot_input_handlers_eq h inp (nwState net h).
rewrite /tot_mapped_input_handlers /= in H_q.
rewrite H_hnd in H_q.
rewrite H_q.
by rewrite tot_map_name_inv_inverse.
rewrite /= H_eq /= /tot_map_net /=.
by rewrite -tot_map_update_eq map_app tot_map_packet_map_eq.
Qed.
Proof using name_map_bijective multi_map_congr.
move => net tr H_step.
remember step_async_init as y in *.
move: Heqy.
induction H_step using refl_trans_1n_trace_n1_ind => H_init /=.
rewrite H_init /step_async_init /= /tot_map_net /=.
rewrite tot_init_handlers_fun_eq.
exact: RT1nTBase.
concludes.
repeat find_rewrite.
find_apply_lem_hyp step_async_tot_mapped_simulation_1.
rewrite map_app.
match goal with
| H : step_async_star _ _ _ |- _ => apply: (refl_trans_1n_trace_trans H)
end.
rewrite (app_nil_end (map _ _)).
apply: (@RT1nTStep _ _ _ _ (tot_map_net x'')) => //.
exact: RT1nTBase.
Qed.
Hypothesis tot_map_output_injective :
forall o o', tot_map_output o = tot_map_output o' -> o = o'.
Proof using tot_map_output_injective name_map_bijective multi_map_congr.
move => net net' out mnet mout H_step H_eq H_eq'.
invcs H_step.
- destruct p.
rewrite /tot_map_net /=.
destruct mnet.
rewrite /=.
match goal with
| H : map tot_map_packet _ = _ |- _ =>
have [pks1 [pks2 [H_eq_pks [H_eq_pks1 H_eq_pks2]]]] := map_eq_inv _ _ _ _ H
end.
case: pks2 H_eq_pks H_eq_pks2 => //= p pks2 H_eq_pks H_eq_pks2.
rewrite H_eq_pks.
inversion H_eq_pks2.
case H_hnd': (net_handlers (Net.pDst p) (Net.pSrc p) (Net.pBody p) (nwState (Net.pDst p))) => [dout l'].
case: dout H_hnd' => out' d' H_hnd'.
rewrite -H_eq_pks1.
exists {| nwPackets := send_packets (Net.pDst p) l' ++ pks1 ++ pks2 ; nwState := update name_eq_dec nwState (Net.pDst p) d' |}.
split.
* match goal with
| H : _ = map tot_map_trace_occ _ |- _ =>
have [n' [lo [H_eq_mout [H_eq_n H_eq_lo]]]] := tot_map_trace_occ_inv _ (eq_sym H)
end.
rewrite H_eq_mout.
have H_eq_dst: n' = Net.pDst p.
rewrite -(tot_map_name_inv_inverse n') H_eq_n.
destruct p.
find_inversion.
by rewrite tot_map_name_inv_inverse.
rewrite H_eq_dst.
apply (@StepAsync_deliver _ _ _ _ _ pks1 pks2 _ d' l') => //=.
suff H_suff: lo = out' by rewrite H_suff.
have H_eq_hnd := @tot_net_handlers_eq _ _ _ _ _ _ _ multi_map_congr (Net.pDst p) (Net.pSrc p) (Net.pBody p) (nwState (Net.pDst p)).
rewrite /tot_mapped_net_handlers /= in H_eq_hnd.
repeat break_let.
inversion H_hnd'.
simpl in *.
have H_eq_src: tot_map_name (Net.pSrc p) = pSrc by destruct p; simpl in *; find_inversion.
rewrite H_eq_src /= {H_eq_src} in H_eq_hnd.
have H_eq_body: tot_map_msg (Net.pBody p) = pBody by destruct p; simpl in *; find_inversion.
rewrite H_eq_body in H_eq_hnd.
match goal with
| H: net_handlers _ _ _ (tot_map_data (_ (tot_map_name_inv pDst))) = _ |- _ =>
rewrite -H_eq_n tot_map_name_inv_inverse H_eq_dst in H ;
rewrite H in H_eq_hnd
end.
find_inversion.
find_apply_lem_hyp map_eq_inv_eq; last exact: tot_map_output_injective.
by symmetry.
* rewrite /= /update /=.
have H_eq_dst: tot_map_name (Net.pDst p) = pDst by destruct p; find_inversion.
have H_eq_src: tot_map_name (Net.pSrc p) = pSrc by destruct p; find_inversion.
have H_eq_body: tot_map_msg (Net.pBody p) = pBody by destruct p; find_inversion.
rewrite 2!map_app.
have H_eq_hnd := @tot_net_handlers_eq _ _ _ _ _ _ _ multi_map_congr (Net.pDst p) (Net.pSrc p) (Net.pBody p) (nwState (Net.pDst p)).
rewrite /tot_mapped_net_handlers /= in H_eq_hnd.
repeat break_let.
inversion H_hnd'.
rewrite H_eq_dst H_eq_src H_eq_body in H_eq_hnd.
simpl in *.
match goal with
| H: net_handlers _ _ _ (tot_map_data (_ (tot_map_name_inv pDst))) = _ |- _ =>
rewrite -{2}H_eq_dst tot_map_name_inv_inverse in H;
rewrite H in H_eq_hnd
end.
find_inversion; clean.
set nwP1 := map tot_map_packet _.
set nwP2 := map (fun _ => _) (tot_map_name_msgs _).
set nwS1 := fun _ => _.
set nwS2 := fun _ => _.
have H_eq_nw: nwP1 = nwP2.
rewrite /nwP1 /nwP2.
elim l' => //=.
case => /= n' m' l0 IH.
rewrite IH.
by find_rewrite.
rewrite -H_eq_nw /nwP1 {H_eq_nw nwP1 nwP2}.
have H_eq_sw: nwS1 = nwS2.
rewrite /nwS1 /nwS2.
apply functional_extensionality => n'.
repeat break_if => //.
+ find_reverse_rewrite.
by find_rewrite_lem tot_map_name_inverse_inv.
+ find_rewrite.
by find_rewrite_lem tot_map_name_inv_inverse.
by rewrite H_eq_sw.
- rewrite /tot_map_net /=.
destruct mnet.
simpl in *.
match goal with
| H: _ = map tot_map_trace_occ _ |- _ =>
have [h' [inp' [out' [H_eq_mout [H_eq_n [H_eq_out H_eq_inp]]]]]] := tot_map_trace_occ_in_inv _ (eq_sym H)
end.
have H_q := @tot_input_handlers_eq _ _ _ _ _ _ _ multi_map_congr h' inp' (nwState h').
rewrite /tot_mapped_input_handlers in H_q.
repeat break_let.
rewrite H_eq_n H_eq_inp in H_q.
match goal with
| H: input_handlers _ _ (tot_map_data (_ (tot_map_name_inv h))) = _ |- _ =>
rewrite -{2}H_eq_n tot_map_name_inv_inverse in H;
rewrite H in H_q
end.
find_inversion.
find_inversion.
exists ({| nwPackets := send_packets h' l0 ++ nwPackets ; nwState := update name_eq_dec nwState h' d0 |}).
split.
* apply (@StepAsync_input _ _ _ _ _ _ _ d0 l0) => //=.
find_rewrite.
suff H_suff: l1 = out' by rewrite H_suff.
by find_apply_lem_hyp map_eq_inv_eq; last exact: tot_map_output_injective.
* rewrite /= map_app.
set nwP1 := map tot_map_packet _.
set nwP2 := map (fun _ => _) (tot_map_name_msgs _).
set nwS1 := fun _ => _.
set nwS2 := update _ _ _ _.
have H_eq_nwp: nwP1 = nwP2.
rewrite /nwP1 /nwP2 {nwP1 nwP2}.
elim l0 => //=.
case => /= n m l' IH.
by rewrite IH.
have H_eq_nws: nwS1 = nwS2.
rewrite /nwS1 /nwS2.
rewrite /update /=.
apply functional_extensionality => n.
repeat break_if => //.
+ find_reverse_rewrite.
by find_rewrite_lem tot_map_name_inverse_inv.
+ find_rewrite.
by find_rewrite_lem tot_map_name_inv_inverse.
by rewrite H_eq_nwp H_eq_nws.
Qed.
Context {fail_fst : FailureParams multi_fst}.
Context {fail_snd : FailureParams multi_snd}.
Context {fail_map_congr : FailureParamsTotalMapCongruency fail_fst fail_snd base_map}.
Proof using name_map_bijective.
move => n.
elim => //=.
move => n' failed IH H_in H_in'.
case: H_in' => H_in'.
case: H_in.
left.
rewrite -(tot_map_name_inv_inverse n').
rewrite H_in'.
exact: tot_map_name_inv_inverse.
contradict H_in'.
apply: IH.
move => H_in'.
case: H_in.
by right.
Qed.
Proof using.
move => n.
elim => //.
move => n' l IH H_in.
case: H_in => H_in.
rewrite H_in.
by left.
right.
exact: IH.
Qed.
Proof using name_map_bijective.
move => h.
elim => //=.
move => n failed IH.
repeat break_if => //.
- by find_rewrite.
- by find_apply_lem_hyp tot_map_name_injective.
- by rewrite /= IH.
Qed.
Proof using name_map_bijective multi_map_congr fail_map_congr.
move => net net' failed failed' tr H_step.
invcs H_step.
- have ->: tot_map_name (pDst p) = pDst (tot_map_packet p) by destruct p.
apply (@StepFailure_deliver _ _ _ _ _ _ _ (map tot_map_packet xs) (map tot_map_packet ys) _ (tot_map_data d) (tot_map_name_msgs l)).
* rewrite /tot_map_net /=.
find_rewrite.
by rewrite map_app.
* destruct p.
exact: not_in_failed_not_in.
* destruct p.
simpl in *.
have H_q := tot_net_handlers_eq pDst pSrc pBody (nwState net pDst).
rewrite /tot_mapped_net_handlers in H_q.
find_rewrite.
rewrite H_q.
by rewrite tot_map_name_inv_inverse.
* rewrite /= -tot_map_update_packet_eq /= /tot_map_net /=.
destruct p.
by rewrite 2!map_app tot_map_packet_map_eq.
- apply (@StepFailure_input _ _ _ _ _ _ _ _ _ (tot_map_data d) (tot_map_name_msgs l)).
* exact: not_in_failed_not_in.
* rewrite /=.
have H_q := tot_input_handlers_eq h inp (nwState net h).
rewrite /tot_mapped_input_handlers /= in H_q.
find_rewrite.
rewrite H_q.
by rewrite tot_map_name_inv_inverse.
* rewrite /= /tot_map_net /= -tot_map_update_eq.
by rewrite map_app tot_map_packet_map_eq.
- apply (@StepFailure_drop _ _ _ _ _ _ (tot_map_packet p) (map tot_map_packet xs) (map tot_map_packet ys)).
* rewrite /tot_map_net /=.
find_rewrite.
by rewrite map_app.
* by rewrite /tot_map_net /= map_app.
- apply (@StepFailure_dup _ _ _ _ _ _ (tot_map_packet p) (map tot_map_packet xs) (map tot_map_packet ys)).
* rewrite /tot_map_net /=.
find_rewrite.
by rewrite map_app.
* by rewrite /tot_map_net /= map_app.
- exact: StepFailure_fail.
- eapply (@StepFailure_reboot _ _ _ (tot_map_name h)).
* exact: in_failed_in.
* by rewrite remove_tot_map_eq.
* by rewrite /tot_map_net /= tot_map_update_eq tot_reboot_eq tot_map_name_inv_inverse.
Qed.
Proof using name_map_bijective multi_map_congr fail_map_congr.
move => net failed tr H_step.
remember step_failure_init as y in *.
change failed with (fst (failed, net)).
change net with (snd (failed, net)) at 2.
move: Heqy.
induction H_step using refl_trans_1n_trace_n1_ind => H_init /=.
rewrite H_init /step_failure_init /= /step_async_init /tot_map_net /= tot_init_handlers_fun_eq.
exact: RT1nTBase.
concludes.
repeat find_rewrite.
destruct x'.
destruct x''.
rewrite /=.
find_apply_lem_hyp step_failure_tot_mapped_simulation_1.
rewrite map_app.
match goal with
| H : step_failure_star _ _ _ |- _ => apply: (refl_trans_1n_trace_trans H)
end.
rewrite (app_nil_end (map tot_map_trace_occ _)).
apply (@RT1nTStep _ _ _ _ (map tot_map_name l0, tot_map_net n0)) => //.
exact: RT1nTBase.
Qed.
Proof using name_map_bijective.
elim.
case => //=.
move => n l IH.
case => //=.
move => n' l' H_eq.
inversion H_eq.
find_apply_lem_hyp tot_map_name_injective.
find_eapply_lem_hyp IH.
by repeat find_rewrite.
Qed.
Proof using tot_map_output_injective name_map_bijective multi_map_congr fail_map_congr.
move => net net' failed failed' out mnet mfailed mfailed' mout H_step H_eq_net H_eq_f H_eq_f' H_eq_out.
invcs H_step.
- destruct p.
rewrite /tot_map_net /=.
destruct mnet.
simpl in *.
match goal with
| H : map tot_map_packet _ = _ |- _ =>
have [pks1 [pks2 [H_eq_pks [H_eq_pks1 H_eq_pks2]]]] := map_eq_inv _ _ _ _ H
end.
case: pks2 H_eq_pks H_eq_pks2 => //= p pks2 H_eq_pks H_eq_pks2.
rewrite H_eq_pks.
inversion H_eq_pks2.
case H_hnd': (net_handlers (Net.pDst p) (Net.pSrc p) (Net.pBody p) (nwState (Net.pDst p))) => [dout l'].
case: dout H_hnd' => out' d' H_hnd'.
rewrite -H_eq_pks1.
exists {| nwPackets := send_packets (Net.pDst p) l' ++ pks1 ++ pks2 ; nwState := update name_eq_dec nwState (Net.pDst p) d' |}.
split.
* match goal with
| H : _ = map tot_map_trace_occ _ |- _ =>
have [n' [lo [H_eq_mout [H_eq_n H_eq_lo]]]] := tot_map_trace_occ_inv _ (eq_sym H)
end.
rewrite H_eq_mout.
have H_eq_dst: n' = Net.pDst p.
rewrite -(tot_map_name_inv_inverse n') H_eq_n.
destruct p.
simpl in *.
find_inversion.
by rewrite tot_map_name_inv_inverse.
rewrite H_eq_dst.
match goal with
| H: map tot_map_name _ = map tot_map_name _ |- _ =>
apply map_eq_name_eq_eq in H; rewrite H
end.
apply (@StepFailure_deliver _ _ _ _ _ _ _ pks1 pks2 _ d' l') => //=.
rewrite -H_eq_dst => H_in.
find_apply_lem_hyp in_failed_in.
by find_rewrite_lem H_eq_n.
suff H_suff: lo = out' by rewrite H_suff.
have H_eq_hnd := @tot_net_handlers_eq _ _ _ _ _ _ _ multi_map_congr (Net.pDst p) (Net.pSrc p) (Net.pBody p) (nwState (Net.pDst p)).
rewrite /tot_mapped_net_handlers /= in H_eq_hnd.
repeat break_let.
inversion H_hnd'.
have H_eq_src: tot_map_name (Net.pSrc p) = pSrc by destruct p; simpl in *; find_inversion.
rewrite H_eq_src /= {H_eq_src} in H_eq_hnd.
have H_eq_body: tot_map_msg (Net.pBody p) = pBody by destruct p; simpl in *; find_inversion.
rewrite H_eq_body in H_eq_hnd.
match goal with
| H: net_handlers _ _ _ (tot_map_data (_ (tot_map_name_inv pDst))) = _ |- _ =>
rewrite -H_eq_n tot_map_name_inv_inverse H_eq_dst in H ;
rewrite H in H_eq_hnd
end.
find_inversion.
find_apply_lem_hyp map_eq_inv_eq; last exact: tot_map_output_injective.
by symmetry.
* rewrite /= /update /=.
have H_eq_dst: tot_map_name (Net.pDst p) = pDst by destruct p; simpl in *; find_inversion.
have H_eq_src: tot_map_name (Net.pSrc p) = pSrc by destruct p; simpl in *; find_inversion.
have H_eq_body: tot_map_msg (Net.pBody p) = pBody by destruct p; simpl in *; find_inversion.
rewrite 2!map_app.
have H_eq_hnd := @tot_net_handlers_eq _ _ _ _ _ _ _ multi_map_congr (Net.pDst p) (Net.pSrc p) (Net.pBody p) (nwState (Net.pDst p)).
rewrite /tot_mapped_net_handlers /= in H_eq_hnd.
repeat break_let.
inversion H_hnd'.
rewrite H_eq_dst H_eq_src H_eq_body in H_eq_hnd.
simpl in *.
match goal with
| H: net_handlers _ _ _ (tot_map_data (_ (tot_map_name_inv pDst))) = _ |- _ =>
rewrite -{2}H_eq_dst tot_map_name_inv_inverse in H;
rewrite H in H_eq_hnd
end.
find_inversion; clean.
set nwP1 := map tot_map_packet _.
set nwP2 := map (fun _ => _) (tot_map_name_msgs _).
set nwS1 := fun _ => _.
set nwS2 := fun _ => _.
have H_eq_nw: nwP1 = nwP2.
rewrite /nwP1 /nwP2.
elim l' => //=.
case => /= n' m' l0 IH.
rewrite IH.
by find_rewrite.
rewrite -H_eq_nw /nwP1 {H_eq_nw nwP1 nwP2}.
have H_eq_sw: nwS1 = nwS2.
rewrite /nwS1 /nwS2.
apply functional_extensionality => n'.
repeat break_if => //.
+ find_reverse_rewrite.
by find_rewrite_lem tot_map_name_inverse_inv.
+ find_rewrite.
by find_rewrite_lem tot_map_name_inv_inverse.
by rewrite H_eq_sw.
- rewrite /tot_map_net /=.
destruct mnet.
match goal with
| H: _ = map tot_map_trace_occ _ |- _ =>
have [h' [inp' [out' [H_eq_mout [H_eq_n [H_eq_out H_eq_inp]]]]]] := tot_map_trace_occ_in_inv _ (eq_sym H)
end.
have H_q := @tot_input_handlers_eq _ _ _ _ _ _ _ multi_map_congr h' inp' (nwState h').
rewrite /tot_mapped_input_handlers in H_q.
repeat break_let.
rewrite H_eq_n H_eq_inp in H_q.
match goal with
| H: input_handlers _ _ (tot_map_data (_ (tot_map_name_inv h))) = _ |- _ =>
rewrite -{2}H_eq_n tot_map_name_inv_inverse in H ;
rewrite H in H_q
end.
inversion H_q.
simpl in *.
find_apply_lem_hyp map_eq_name_eq_eq.
exists ({| nwPackets := send_packets h' l0 ++ nwPackets ; nwState := update name_eq_dec nwState h' d0 |}).
split.
* rewrite H_eq_mout.
match goal with
| H: mfailed = _ |- _ => rewrite H
end.
apply (@StepFailure_input _ _ _ _ _ _ _ _ _ d0 l0) => //.
move => H_in.
apply in_failed_in in H_in.
by rewrite H_eq_n in H_in.
rewrite /= Heqp.
suff H_suff: l1 = out' by rewrite H_suff.
match goal with
| H: map tot_map_output _ = _ |- _ => rewrite -H_eq_out in H
end.
by find_apply_lem_hyp map_eq_inv_eq; last exact: tot_map_output_injective.
* rewrite /= map_app.
set nwP1 := map tot_map_packet _.
set nwP2 := map (fun _ => _) (tot_map_name_msgs _).
set nwS1 := fun _ => _.
set nwS2 := update _ _ _ _.
have H_eq_nwp: nwP1 = nwP2.
rewrite /nwP1 /nwP2 {Heqp H_q nwP1 nwP2}.
elim l0 => //=.
case => /= n m l' IH.
by rewrite H_eq_n IH.
have H_eq_nws: nwS1 = nwS2.
rewrite /nwS1 /nwS2.
rewrite /update /=.
apply functional_extensionality => n.
rewrite -H_eq_n.
repeat break_if => //.
+ match goal with
| H: _ = h' , H': _ <> tot_map_name h' |- _ =>
rewrite -H in H'
end.
by find_rewrite_lem tot_map_name_inverse_inv.
+ match goal with
| H: n = _ , H': tot_map_name_inv n <> _ |- _ =>
rewrite H in H'
end.
by find_rewrite_lem tot_map_name_inv_inverse.
by rewrite H_eq_nwp H_eq_nws.
- destruct mout => //.
find_apply_lem_hyp map_eq_name_eq_eq.
find_reverse_rewrite.
match goal with
| H : map tot_map_packet _ = _ |- _ =>
have [pks1 [pks2 [H_eq_pks [H_eq_pks1 H_eq_pks2]]]] := map_eq_inv _ _ _ _ H
end.
case: pks2 H_eq_pks H_eq_pks2 => //= p' pks2 H_eq_pks H_eq_pks2.
inversion H_eq_pks2.
rewrite -H_eq_pks1.
exists {| nwPackets := pks1 ++ pks2 ; nwState := nwState mnet |}.
split; first exact: (@StepFailure_drop _ _ _ _ _ _ p' pks1 pks2).
by rewrite /tot_map_net /= map_app.
- destruct mout => //.
find_apply_lem_hyp map_eq_name_eq_eq.
find_rewrite.
match goal with
| H : map tot_map_packet _ = _ |- _ =>
have [pks1 [pks2 [H_eq_pks [H_eq_pks1 H_eq_pks2]]]] := map_eq_inv _ _ _ _ H
end.
case: pks2 H_eq_pks H_eq_pks2 => //= p' pks2 H_eq_pks H_eq_pks2.
inversion H_eq_pks2.
rewrite -H_eq_pks1.
exists {| nwPackets := p' :: pks1 ++ p' :: pks2 ; nwState := nwState mnet |}.
split; first exact: (@StepFailure_dup _ _ _ _ _ _ p' pks1 pks2).
by rewrite /tot_map_net /= map_app.
- destruct mout => //.
destruct mfailed' => //.
simpl in *.
find_inversion.
find_apply_lem_hyp map_eq_name_eq_eq.
find_rewrite.
exists mnet => //.
split => //.
exact: StepFailure_fail.
- destruct mout => //.
find_copy_apply_lem_hyp in_split.
break_exists.
match goal with
| H: map tot_map_name _ = _ |- _ =>
have [mns1 [mns2 [H_eq_mns [H_eq_mns1 H_eq_mns2]]]] := map_eq_inv _ _ _ _ H
end.
destruct mns2 => //.
exists {| nwPackets := nwPackets mnet ;
nwState := update name_eq_dec (nwState mnet) n (reboot (nwState mnet n)) |}.
split.
* apply (@StepFailure_reboot _ _ _ n) => //.
+ rewrite H_eq_mns.
apply in_or_app.
by right; left.
+ inversion H_eq_mns2.
have H_eq: remove name_eq_dec h (map tot_map_name mfailed) = map tot_map_name (remove name_eq_dec n mfailed).
elim mfailed => //=.
move => n' l IH.
repeat break_if => //.
+ by find_reverse_rewrite; find_apply_lem_hyp tot_map_name_injective.
+ by find_reverse_rewrite; find_reverse_rewrite.
+ by rewrite /= IH.
match goal with
| H: _ = remove _ _ _ |- _ => rewrite H_eq in H
end.
by find_apply_lem_hyp map_eq_name_eq_eq.
* rewrite /tot_map_net /=.
inversion H_eq_mns2.
by rewrite tot_map_update_eq tot_map_name_inv_inverse tot_reboot_eq.
Qed.
Proof using name_map_bijective.
elim => /=; first by move => H_nd; exact: NoDup_nil.
move => n ns IH H_nd.
inversion H_nd.
find_apply_lem_hyp IH.
by apply NoDup_cons; first exact: not_in_failed_not_in.
Qed.
Proof using name_map_bijective.
apply: NoDup_Permutation; last split.
- exact: no_dup_nodes.
- apply nodup_to_map_name.
exact: no_dup_nodes.
- move => H_in.
set x' := tot_map_name_inv x.
have H_in' := all_names_nodes x'.
apply in_split in H_in'.
move: H_in' => [ns1 [ns2 H_eq]].
rewrite H_eq map_app /= /x'.
apply in_or_app.
right; left.
by rewrite tot_map_name_inverse_inv.
- move => H_in.
exact: all_names_nodes.
Qed.
Context {overlay_fst : NameOverlayParams multi_fst}.
Context {overlay_snd : NameOverlayParams multi_snd}.
Context {overlay_map_congr : NameOverlayParamsTotalMapCongruency overlay_fst overlay_snd name_map}.
Proof using.
move => h m.
elim => //=.
move => n ns IH.
case (adjacent_to_dec _ _) => H_dec /=.
case => n' m' H_in.
case: H_in => H_in.
by inversion H_in.
exact: IH.
exact: IH.
Qed.
Proof using name_map_bijective.
move => n m.
elim => //=.
case => /= n' m' l IH H_eq H_in.
move => H_in'.
case: H_in' => H_in'.
inversion H_in'.
have H_nm := H_eq (n', m').
rewrite /= in H_nm.
case: H_in.
left.
apply tot_map_name_injective in H0.
rewrite H0.
rewrite H_nm //.
by left.
contradict H_in'.
apply: IH.
move => nm H_in_nm.
apply: H_eq.
by right.
move => H_in_nm.
case: H_in.
by right.
Qed.
Proof using.
move => m.
elim => //=.
case => /= n m' l IH n' m0 H_in H_in_map.
have H_in_f := H_in (n, m').
rewrite /= in H_in_f.
case: H_in_map => H_in_map.
inversion H_in_map.
rewrite H_in_f //.
by left.
move: H_in_map.
apply: IH.
move => nm H_in'.
apply: H_in.
by right.
Qed.
Proof using name_map_bijective.
move => m'.
elim => /=.
move => H_fail H_nd.
exact: NoDup_nil.
case => n m l IH H_fail H_nd.
inversion H_nd.
rewrite /=.
apply NoDup_cons.
have H_f := H_fail (n, m).
rewrite /= in H_f.
move => H_in.
have H_inf := @msg_in_map m' _ _ _ _ H_in.
rewrite H_inf in H_in.
contradict H_in.
apply tot_map_in_in.
move => nm H_in_nm.
apply: H_fail.
by right.
rewrite H_f // in H1.
by left.
move => nm H_in_f.
apply: H_fail.
by right.
apply: IH => //.
move => nm H_in_nm.
apply: H_fail.
by right.
Qed.
Proof using name_map_bijective.
move => m.
elim => //=.
case => /= n m' l IH n' H_in H_in'.
case: H_in' => H_in'.
inversion H_in'.
rewrite tot_map_name_inv_inverse.
have H_nm := H_in (n, m').
rewrite -H_nm /=; first by left.
by left.
right.
apply: IH => //.
move => nm H_inn.
apply: H_in.
by right.
Qed.
Proof using.
move => m.
elim => //= [|n l IH] failed h n'; first by rewrite remove_all_nil.
have H_cn := remove_all_cons name_eq_dec failed n l.
break_or_hyp; break_and; find_rewrite; first exact: IH.
rewrite /=.
case (adjacent_to_dec _ _) => H_dec' /=.
move => H_in.
case: H_in => H_in.
inversion H_in.
by left.
right.
exact: IH.
exact: IH.
Qed.
Proof using.
elim => [|n l IH] failed n' h; first by rewrite remove_all_nil.
have H_cn := remove_all_cons name_eq_dec failed n l.
break_or_hyp; break_and; find_rewrite; first exact: IH.
rewrite /=.
case (adjacent_to_dec _ _) => /= H_dec'.
move => H_in.
case: H_in => H_in.
rewrite {1}H_in -{4}H_in.
split => //.
by left.
apply IH in H_in.
move: H_in => [H_eq H_in].
split => //.
by right.
move => H_in.
apply IH in H_in.
move: H_in => [H_eq H_in].
split => //.
by right.
Qed.
Proof using.
elim => [|n ns IH] failed n'; first by rewrite remove_all_nil.
have H_cn := remove_all_cons name_eq_dec failed n ns.
break_or_hyp; break_and; find_rewrite.
move => H_in.
apply IH in H_in.
move: H_in => [H_in H_in'].
split => //.
by right.
move => H_in.
case: H_in => H_in.
rewrite -{1}H_in {2}H_in.
split => //.
by left.
apply IH in H_in.
move: H_in => [H_in H_in'].
split => //.
by right.
Qed.
Proof using.
move => m.
elim => //=.
move => n ns IH failed n' h.
set mfailed := map _ failed.
move => H_in H_in' H_adj.
have H_cn := remove_all_cons name_eq_dec mfailed n ns.
break_or_hyp; break_and; find_rewrite.
break_or_hyp => //.
exact: IH.
case: H_in => H_in.
rewrite H_in.
rewrite /=.
case (adjacent_to_dec _ _) => H_dec' //.
rewrite /=.
by left.
rewrite /=.
case (adjacent_to_dec _ _) => H_dec'.
rewrite /=.
right.
exact: IH.
exact: IH.
Qed.
Proof using.
elim => [|n ns IH] n' failed; first by rewrite remove_all_nil.
set mfailed := map _ failed.
have H_cn := remove_all_cons name_eq_dec mfailed n ns.
break_or_hyp; break_and; find_rewrite.
move => H_in.
apply IH in H_in.
move: H_in => [H_nin H_in].
split => //.
by right.
rewrite /=.
move => H_in.
case: H_in => H_in.
rewrite H_in.
subst.
split => //.
by left.
apply IH in H_in.
move: H_in => [H_nin H_in].
split => //.
by right.
Qed.
Proof using name_map_bijective.
elim => //=.
move => n ns IH n' H_in H_in'.
case: H_in' => H_in'.
case: H_in.
left.
by rewrite H_in' tot_map_name_inverse_inv.
contradict H_in'.
apply: IH.
move => H_in'.
case: H_in.
by right.
Qed.
Proof using name_map_bijective.
move => m.
elim => //=.
case => n m' /= l IH n' H_in H_in'.
case: H_in' => H_in'.
inversion H_in'.
left.
by rewrite tot_map_name_inverse_inv.
right.
apply: IH => //.
move => nm H_inn.
apply: H_in.
by right.
Qed.
Proof using.
move => m.
elim => //=.
move => n ns IH n' h H_adj H_in.
case (adjacent_to_dec _ _) => H_dec; case: H_in => H_in.
- rewrite /=.
left.
by rewrite H_in.
- rewrite /=.
right.
exact: IH.
- by rewrite H_in in H_dec.
- exact: IH.
Qed.
Proof using.
elim => //=.
move => n ns IH n' failed H_in H_in'.
have H_cn := remove_all_cons name_eq_dec failed n ns.
break_or_hyp; break_and; find_rewrite; break_or_hyp => //=.
- exact: IH.
- by left.
- right; exact: IH.
Qed.
Proof using name_map_bijective.
elim => //=.
move => n' ns IH n H_in.
case: H_in => H_in.
left.
exact: tot_map_name_injective.
right.
exact: IH.
Qed.
Proof using overlay_map_congr name_map_bijective.
move => h m failed ns ns' H_nd H_pm.
apply NoDup_Permutation; last split.
- apply (@nodup_tot_map m); first exact: in_map2snd_snd.
apply NoDup_map2snd.
by apply NoDup_remove_all.
- apply NoDup_map2snd.
apply NoDup_remove_all.
move: H_pm.
apply: NoDup_Permutation_NoDup.
exact: nodup_to_map_name.
- case: x => n m' H_in.
have H_eq := tot_map_in_snd _ _ _ _ H_in.
rewrite /= in H_eq.
rewrite H_eq in H_in.
rewrite H_eq {H_eq}.
apply in_tot_map_name in H_in.
apply in_map2snd_related_in in H_in.
move: H_in => [H_adj H_in].
apply in_failed_exclude in H_in.
move: H_in => [H_in H_in'].
have H_nin: ~ In n (map tot_map_name failed).
rewrite -(tot_map_name_inverse_inv n).
exact: not_in_failed_not_in.
apply tot_adjacent_to_fst_snd in H_adj.
rewrite tot_map_name_inverse_inv in H_adj.
have H_inn: In n ns'.
apply (Permutation_in n) in H_pm => //.
rewrite -(tot_map_name_inverse_inv n).
exact: in_failed_in.
exact: in_in_adj_map_pair.
exact: in_map2snd_snd.
- case: x => n m' H_in.
have H_eq := in_map2snd_snd _ _ adjacent_to adjacent_to_dec _ _ _ _ H_in.
rewrite /= in H_eq.
rewrite H_eq.
rewrite H_eq in H_in.
apply in_map2snd_related_in in H_in.
move: H_in => [H_adj H_in].
rewrite -(tot_map_name_inverse_inv n) in H_adj.
apply tot_adjacent_to_fst_snd in H_adj.
apply in_exclude_not_in_failed_map in H_in.
move: H_in => [H_in_f H_in].
apply not_in_map_not_in_failed in H_in_f.
have H_in_n: In (tot_map_name_inv n) ns.
apply Permutation_sym in H_pm.
apply (Permutation_in n) in H_pm => //.
apply: tot_map_name_in.
by rewrite tot_map_name_inverse_inv.
apply in_tot_map_msg; first by move => nm; apply in_map2snd_snd.
apply: adjacent_in_in_msg => //.
exact: not_in_failed_in_exclude.
Qed.
Proof using overlay_map_congr name_map_bijective.
move => h m failed.
apply nodup_perm_map_map_pair_perm; first exact: no_dup_nodes.
apply Permutation_sym.
exact: permutation_nodes.
Qed.
Context {fail_msg_fst : FailMsgParams multi_fst}.
Context {fail_msg_snd : FailMsgParams multi_snd}.
Context {fail_msg_map_congr : FailMsgParamsTotalMapCongruency fail_msg_fst fail_msg_snd msg_map}.
Proof using overlay_map_congr name_map_bijective fail_msg_map_congr.
move => h failed.
rewrite tot_fail_msg_fst_snd.
exact: nodup_perm_map_map_pair_perm.
Qed.
Proof using overlay_map_congr name_map_bijective fail_msg_map_congr.
move => h failed.
rewrite tot_fail_msg_fst_snd.
exact: map_map_pair_eq.
Qed.
Definition tot_map_onet (onet : @ordered_network _ multi_fst) : @ordered_network _ multi_snd :=
{| onwPackets := fun src dst => map tot_map_msg (onet.(onwPackets) (tot_map_name_inv src) (tot_map_name_inv dst)) ;
onwState := fun n => tot_map_data (onet.(onwState) (tot_map_name_inv n)) |}.
Proof using name_map_bijective.
move => f ms to from.
apply functional_extensionality => src.
apply functional_extensionality => dst.
rewrite /update2 /=.
case (sumbool_and _ _ _ _) => H_dec; case (sumbool_and _ _ _ _) => H_dec' //.
move: H_dec => [H_eq H_eq'].
case: H_dec' => H_dec'.
rewrite H_eq in H_dec'.
by rewrite tot_map_name_inverse_inv in H_dec'.
rewrite H_eq' in H_dec'.
by rewrite tot_map_name_inverse_inv in H_dec'.
move: H_dec' => [H_eq H_eq'].
case: H_dec => H_dec.
rewrite -H_eq in H_dec.
by rewrite tot_map_name_inv_inverse in H_dec.
rewrite -H_eq' in H_dec.
by rewrite tot_map_name_inv_inverse in H_dec.
Qed.
Proof using name_map_bijective.
move => f h l.
elim: l h f => //.
case => n m l IH h f.
rewrite /= IH /=.
rewrite 2!tot_map_name_inv_inverse /=.
set f1 := fun _ _ => _.
set f2 := update2 _ _ _ _ _.
have H_eq_f: f1 = f2.
rewrite /f1 /f2 {f1 f2}.
have H_eq := map_msg_update2 f (f h n ++ [m]) n h.
rewrite map_app in H_eq.
by rewrite H_eq.
by rewrite H_eq_f.
Qed.
Proof using name_map_bijective.
move => f from to ms l.
rewrite -map_msg_update2.
by rewrite collate_tot_map_eq.
Qed.
Definition tot_map_trace (e : @name _ multi_fst * (@input base_fst + (@output base_fst))) :=
match e with
| (n, inl i) => (tot_map_name n, inl (tot_map_input i))
| (n, inr o) => (tot_map_name n, inr (tot_map_output o))
end.
Proof using.
elim => //=.
move => o out IH to.
by rewrite IH.
Qed.
Proof using overlay_map_congr name_map_bijective multi_map_congr fail_msg_map_congr.
move => net net' failed failed' tr H_step.
invcs H_step.
- rewrite /tot_map_onet /=.
apply (@StepOrderedFailure_deliver _ _ _ _ _ _ _ _ (tot_map_msg m) (map tot_map_msg ms) (map tot_map_output out) (tot_map_data d) (tot_map_name_msgs l) (tot_map_name from) (tot_map_name to)).
* by rewrite /tot_map_net /= 2!tot_map_name_inv_inverse /= H3.
* exact: not_in_failed_not_in.
* rewrite /= tot_map_name_inv_inverse -tot_net_handlers_eq /tot_mapped_net_handlers /=.
repeat break_let.
by find_inversion.
* by rewrite /= tot_map_update_eq collate_tot_map_update2_eq.
* by rewrite map_tot_map_trace_eq.
- rewrite /tot_map_onet /=.
apply (@StepOrderedFailure_input _ _ _ _ (tot_map_name h) _ _ _ _ (map tot_map_output out) (tot_map_input inp) (tot_map_data d) (tot_map_name_msgs l)).
* exact: not_in_failed_not_in.
* rewrite /= tot_map_name_inv_inverse -tot_input_handlers_eq /tot_mapped_input_handlers.
repeat break_let.
by find_inversion.
* by rewrite /= /tot_map_onet /= tot_map_update_eq collate_tot_map_eq.
* by rewrite map_tot_map_trace_eq.
- rewrite /tot_map_onet /=.
set l := map2snd _ _.
have H_nd: NoDup (map fst (tot_map_name_msgs l)).
rewrite /tot_map_name_msgs /=.
rewrite /l {l} /=.
eapply NoDup_map_snd_fst.
apply (@nodup_tot_map msg_fail); first exact: in_map2snd_snd.
apply NoDup_map2snd.
apply NoDup_remove_all.
exact: no_dup_nodes.
move => nm nm' H_in H_in'.
have H_fail := tot_map_in_snd _ _ _ _ H_in.
have H_fail' := tot_map_in_snd _ _ _ _ H_in'.
by rewrite H_fail H_fail'.
have H_pm := map_msg_fail_eq h failed.
have H_eq := NoDup_Permutation_collate_eq  _ _ name_eq_dec _ _ _ _ H_nd H_pm.
rewrite /l /tot_map_name_msgs in H_eq.
apply: StepOrderedFailure_fail.
* exact: not_in_failed_not_in.
* rewrite /=.
rewrite /l collate_tot_map_eq /tot_map_name_msgs.
by rewrite H_eq.
Qed.
Proof using overlay_map_congr name_map_bijective multi_map_congr fail_msg_map_congr.
move => net failed tr H_step.
remember step_ordered_failure_init as y in *.
change failed with (fst (failed, net)).
change net with (snd (failed, net)) at 2.
move: Heqy.
induction H_step using refl_trans_1n_trace_n1_ind => H_init /=.
rewrite H_init /step_ordered_failure_init /= /step_ordered_init /tot_map_onet /= tot_init_handlers_fun_eq.
exact: RT1nTBase.
concludes.
repeat find_rewrite.
destruct x'.
destruct x''.
rewrite /=.
find_apply_lem_hyp step_ordered_failure_tot_mapped_simulation_1.
rewrite map_app.
match goal with
| H : step_ordered_failure_star _ _ _ |- _ => apply: (refl_trans_1n_trace_trans H)
end.
rewrite (app_nil_end (map tot_map_trace _)).
apply (@RT1nTStep _ _ _ _ (map tot_map_name l0, tot_map_onet o0)) => //.
exact: RT1nTBase.
Qed.
Context {new_msg_fst : NewMsgParams multi_fst}.
Context {new_msg_snd : NewMsgParams multi_snd}.
Context {new_msg_map_congr : NewMsgParamsTotalMapCongruency new_msg_fst new_msg_snd msg_map}.
Definition tot_map_odnet (net : @ordered_dynamic_network _ multi_fst) : @ordered_dynamic_network _ multi_snd :=
{| odnwNodes := map tot_map_name net.(odnwNodes) ;
odnwPackets := fun src dst => map tot_map_msg (net.(odnwPackets) (tot_map_name_inv src) (tot_map_name_inv dst)) ;
odnwState := fun n =>
match net.(odnwState) (tot_map_name_inv n) with
| None => None
| Some d => Some (tot_map_data d)
end |}.
Proof using name_map_bijective.
elim => //=.
move => n ns IH f h m.
rewrite /= IH /=.
rewrite 2!tot_map_name_inv_inverse /=.
set f1 := fun _ _ => _.
set f2 := update2 _ _ _ _ _.
have H_eq_f: f1 = f2.
rewrite /f1 /f2 {f1 f2}.
have H_eq := map_msg_update2 f (f n h ++ [m]) h n.
rewrite map_app in H_eq.
by rewrite H_eq.
by rewrite H_eq_f.
Qed.
Proof using name_map_bijective.
move => ns f h m from to ms.
rewrite -map_msg_update2.
by rewrite collate_ls_tot_map_eq.
Qed.

Theorem step_ordered_dynamic_failure_tot_mapped_simulation_1 :
forall net net' failed failed' tr,
NoDup (odnwNodes net) ->
@step_ordered_dynamic_failure _ _ overlay_fst new_msg_fst fail_msg_fst (failed, net) (failed', net') tr ->
@step_ordered_dynamic_failure _ _ overlay_snd new_msg_snd fail_msg_snd (map tot_map_name failed, tot_map_odnet net) (map tot_map_name failed', tot_map_odnet net') (map tot_map_trace tr).