(*========================================================== ============================================================ TOPOLOGICAL FMAPS, HMAPS -  WITH TAGS AND EMBEDDINGS  PART 9:  nf_L0L1 (PART 2) COMPLEMENTS FOR B0  COMPLETE:OK! ============================================================ ==========================================================*)
(* cd Desktop/JFD/JFD08/GALAPAGOS/DELAUNAY08/  coqtop -opt  Load Jordan1. Load Jordan2. Load Jordan3. Load Jordan4. Load Jordan5. Load Jordan6. Load Jordan7. Load Jordan8. *)
Require Export Jordan8.
(*========================================================== nf_L0L1 (PART 2) ===========================================================*)
(* OK!: *)
Open Scope nat_scope.
(* OK: *)
(* OK: *)
(* OK: *)
(* OK: *)
Open Scope nat_scope.
(* OK: *)
intros.
rename H5 into Eqy.
assert (inv_hmap m2).
unfold m2 in |- *.
apply inv_hmap_L0L1.
fold m1 in |- *.
tauto.
set (x0 := cA m zero x) in |- *.
assert (inv_hmap m1).
tauto.
unfold m1 in H6.
simpl in H6.
unfold prec_L in H6.
assert (exd m x).
tauto.
assert (exd m y).
tauto.
assert (inv_hmap m).
tauto.
assert (inv_hmap (L m zero x y)).
simpl in |- *.
unfold prec_L in |- *.
tauto.
assert (exd m y'0b).
unfold y'0b in |- *.
generalize (exd_cA (L m zero x y) zero y').
tauto.
assert (inv_hmap m2).
tauto.
unfold m2 in H12.
simpl in H12.
unfold prec_L in H12.
assert (exd m x').
tauto.
assert (exd m y').
tauto.
assert (inv_hmap (L m one x' y')).
simpl in |- *.
unfold prec_L in |- *.
tauto.
assert (exd m x_1b).
unfold x_1b in |- *.
generalize (exd_cA_1 (L m one x' y') one x).
tauto.
clear H6 H12.
generalize (expf_L1_CNS m x' y' x_1b y H15 H16).
simpl in |- *.
fold y'0 in |- *.
fold x'1 in |- *.
set (x'10 := cA m zero x'1) in |- *.
set (y'_1 := cA_1 m one y') in |- *.
elim (expf_dec m x' y'0).
intros.
clear a.
assert
(betweenf m x' x_1b y'0 /\ betweenf m x' y y'0 \/
betweenf m y'_1 x_1b x'10 /\ betweenf m y'_1 y x'10 \/
~ expf m x' x_1b /\ expf m x_1b y).
tauto.
clear H6.
generalize (expf_L0_CNS m x y x' y'0b H10 H13).
simpl in |- *.
fold x_1 in |- *.
fold y_0 in |- *.
fold x0 in |- *.
set (y_0_1 := cA_1 m one y_0) in |- *.
elim (expf_dec m x_1 y).
tauto.
intros.
clear b.
assert
(~
(expf m x' y'0b \/
expf m x' y /\ expf m y'0b x0 \/ expf m y'0b y /\ expf m x' x0)).
tauto.
clear H6.
assert (y'0b = x0).
unfold y'0b in |- *.
simpl in |- *.
elim (eq_dart_dec x y').
tauto.
fold y_0 in |- *.
elim (eq_dart_dec y_0 y').
fold x0 in |- *.
tauto.
tauto.
rewrite H6 in H17.
assert (y = y'0).
unfold y'0 in |- *.
rewrite <- Eqy in |- *.
unfold y_0 in |- *.
rewrite cA_cA_1 in |- *.
tauto.
tauto.
tauto.
assert (y_0_1 = y'_1).
unfold y_0_1 in |- *; rewrite Eqy in |- *.
fold y'_1 in |- *.
tauto.
rewrite <- H19 in H12.
rewrite <- H18 in H12.
assert (exd m x_1).
unfold x_1 in |- *.
generalize (exd_cA_1 m one x).
tauto.
assert (exd m y_0).
unfold y_0 in |- *.
generalize (exd_cA_1 m zero y).
tauto.
assert (exd m y_0_1).
unfold y_0_1 in |- *.
generalize (exd_cA_1 m one y_0).
tauto.
assert (MF.f = cF).
tauto.
assert (expf m y y_0_1).
unfold expf in |- *.
split.
tauto.
unfold MF.expo in |- *.
split.
tauto.
split with 1.
simpl in |- *.
rewrite H23 in |- *.
unfold y_0_1 in |- *.
unfold y_0 in |- *.
fold (cF m y) in |- *.
tauto.
assert (expf m x0 x_1).
unfold expf in |- *.
split.
tauto.
unfold MF.expo in |- *.
split.
unfold x0 in |- *.
generalize (exd_cA m zero x).
tauto.
split with 1.
simpl in |- *.
rewrite H23 in |- *.
unfold x0 in |- *.
unfold cF in |- *.
rewrite cA_1_cA in |- *.
fold x_1 in |- *.
tauto.
tauto.
tauto.
elim (eq_dart_dec x'1 x).
intro.
assert (x_1b = y'_1).
unfold x_1b in |- *.
simpl in |- *.
elim (eq_dart_dec y' x).
intro.
symmetry  in a0.
tauto.
fold x'1 in |- *.
elim (eq_dart_dec x'1 x).
fold y'_1 in |- *.
tauto.
tauto.
rewrite H26 in H12.
rewrite <- H19 in H12.
assert (x'10 = x0).
unfold x'10 in |- *.
rewrite a in |- *.
fold x0 in |- *.
tauto.
rewrite H27 in H12.
assert (x' = x_1).
unfold x_1 in |- *.
rewrite <- a in |- *.
unfold x'1 in |- *.
rewrite cA_1_cA in |- *.
tauto.
tauto.
tauto.
rewrite H28 in H12.
rewrite H28 in H17.
elim H0.
elim H12; clear H12; intro.
generalize (betweenf_expf m x_1 y_0_1 y).
tauto.
elim H12.
clear H12; intro.
generalize (betweenf_expf m y_0_1 y x0).
intro.
apply expf_trans with y_0_1.
apply expf_trans with x0.
apply expf_symm.
tauto.
apply expf_symm.
tauto.
tauto.
intro.
absurd (expf m x_1 y_0_1).
tauto.
rewrite <- H28 in |- *.
apply expf_trans with y.
rewrite H18 in |- *;  tauto; apply expf_symm;  tauto.
apply expf_symm;  tauto.
intro.
assert (x_1b = x_1).
unfold x_1b in |- *.
simpl in |- *.
elim (eq_dart_dec y' x).
intro.
symmetry  in a.
tauto.
fold x'1 in |- *.
fold x_1 in |- *.
elim (eq_dart_dec x'1 x).
tauto.
tauto.
rewrite H26 in H12.
elim H0.
elim H12.
clear H12.
intro.
generalize (betweenf_expf m x' x_1 y).
intros.
apply expf_trans with x'.
apply expf_symm.
tauto.
tauto.
intro.
clear H12.
elim H27.
clear H27.
intro.
generalize (betweenf_expf m y_0_1 x_1 x'10).
intro.
apply expf_trans with y_0_1.
apply expf_symm.
tauto.
apply expf_symm.
tauto.
tauto.
tauto.
Qed.
(* OK: MEME PREUVE QUE VIC *)
(* OK: *)
(* OK:*)

Lemma nf_L0L1_VIIIA:forall (m:fmap)(x y x' y':dart),
let m1:=L (L m zero x y) one x' y' in
let m2:=L (L m one x' y') zero x y in
inv_hmap m1 ->
let x_1 := cA_1 m one x in
let y_0 := cA_1 m zero y in
let y'0 := cA m zero y' in
let x'1 := cA m one x' in
let y'0b := cA (L m zero x y) zero y' in
let x_1b := cA_1 (L m one x' y') one x in
~ expf m x_1 y ->
expf m x' y'0 ->
~ expf (L m zero x y) x' y'0b ->
~ expf (L m one x' y') x_1b y ->
x = y' ->
False.