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-rwxr-xr-xtheories/Bool/Bool.v4
-rw-r--r--theories/Zarith/Wf_Z.v2
-rw-r--r--theories/Zarith/Zmisc.v32
-rw-r--r--theories/Zarith/Zsyntax.v8
4 files changed, 36 insertions, 10 deletions
diff --git a/theories/Bool/Bool.v b/theories/Bool/Bool.v
index 7f8f52c4f6..ab1a4b9e04 100755
--- a/theories/Bool/Bool.v
+++ b/theories/Bool/Bool.v
@@ -106,6 +106,7 @@ Lemma Is_true_eq_true2 : (x:bool) x=true -> (Is_true x).
Destruct x; Simpl; Auto with bool.
Save.
+(***** TODO
Lemma eqb_subst :
(P:bool->Prop)(b1,b2:bool)(eqb b1 b2)=true->(P b1)->(P b2).
Unfold eqb .
@@ -121,7 +122,8 @@ Intros H.
Inversion_clear H.
Trivial with bool.
Save.
-
+*****)
+
Lemma eqb_reflx : (b:bool)(eqb b b)=true.
Intro b.
Case b.
diff --git a/theories/Zarith/Wf_Z.v b/theories/Zarith/Wf_Z.v
index 389db702ca..6b015c77f4 100644
--- a/theories/Zarith/Wf_Z.v
+++ b/theories/Zarith/Wf_Z.v
@@ -25,7 +25,7 @@ Require Zsyntax.
Then the diagram will be closed and the theorem proved. *)
Lemma inject_nat_complete :
- (x:Z)`0 <= x` -> (Ex [n:nat](x=(inject_nat n))).
+ (x:Z)`0 <= x` -> (EX n:nat | x=(inject_nat n)).
Destruct x; Intros;
[ Exists O; Auto with arith
| Specialize (ZL4 p); Intros Hp; Elim Hp; Intros;
diff --git a/theories/Zarith/Zmisc.v b/theories/Zarith/Zmisc.v
index 888d2fb81a..28c4cf2084 100644
--- a/theories/Zarith/Zmisc.v
+++ b/theories/Zarith/Zmisc.v
@@ -207,28 +207,52 @@ Definition Zodd_bool :=
Lemma Zeven_odd_dec : (z:Z) { (Zeven z) }+{ (Zodd z) }.
Proof.
+ Intro z. Case z;
+ [ Left; Compute; Trivial
+ | Intro p; Case p; Intros;
+ (Right; Compute; Exact I) Orelse (Left; Compute; Exact I)
+ | Intro p; Case p; Intros;
+ (Right; Compute; Exact I) Orelse (Left; Compute; Exact I) ].
+ (*** was
Realizer Zeven_bool.
Repeat Program; Compute; Trivial.
+ ***)
Save.
Lemma Zeven_dec : (z:Z) { (Zeven z) }+{ ~(Zeven z) }.
Proof.
+ Intro z. Case z;
+ [ Left; Compute; Trivial
+ | Intro p; Case p; Intros;
+ (Left; Compute; Exact I) Orelse (Right; Compute; Trivial)
+ | Intro p; Case p; Intros;
+ (Left; Compute; Exact I) Orelse (Right; Compute; Trivial) ].
+ (*** was
Realizer Zeven_bool.
Repeat Program; Compute; Trivial.
+ ***)
Save.
Lemma Zodd_dec : (z:Z) { (Zodd z) }+{ ~(Zodd z) }.
Proof.
+ Intro z. Case z;
+ [ Right; Compute; Trivial
+ | Intro p; Case p; Intros;
+ (Left; Compute; Exact I) Orelse (Right; Compute; Trivial)
+ | Intro p; Case p; Intros;
+ (Left; Compute; Exact I) Orelse (Right; Compute; Trivial) ].
+ (*** was
Realizer Zodd_bool.
Repeat Program; Compute; Trivial.
+ ***)
Save.
-Lemma Zeven_not_Zodd : (z:Z)(Zeven z)->~(Zodd z).
+Lemma Zeven_not_Zodd : (z:Z)(Zeven z) -> ~(Zodd z).
Proof.
Destruct z; [ Idtac | Destruct p | Destruct p ]; Compute; Trivial.
Save.
-Lemma Zodd_not_Zeven : (z:Z)(Zodd z)->~(Zeven z).
+Lemma Zodd_not_Zeven : (z:Z)(Zodd z) -> ~(Zeven z).
Proof.
Destruct z; [ Idtac | Destruct p | Destruct p ]; Compute; Trivial.
Save.
@@ -320,7 +344,7 @@ Apply rename with x:=`x ?= y`; Intro r; Elim r;
Save.
Lemma Zcompare_x_x : (x:Z) `x ?= x` = EGAL.
-(Intro; Apply Case (Zcompare_EGAL x x) of [h1,h2:?]h2 end).
+(Intro; Apply Case (Zcompare_EGAL x x) of [h1,h2: ?]h2 end).
Apply refl_equal.
Save.
@@ -339,7 +363,7 @@ Save.
Lemma Zcompare_eq_case :
(c1,c2,c3:Prop)(x,y:Z) c1 -> x=y -> (Case `x ?= y` of c1 c2 c3 end).
Intros.
-Rewrite -> (Case (Zcompare_EGAL x y) of [h1,h2:?]h2 end H0).
+Rewrite -> (Case (Zcompare_EGAL x y) of [h1,h2: ?]h2 end H0).
Assumption.
Save.
diff --git a/theories/Zarith/Zsyntax.v b/theories/Zarith/Zsyntax.v
index 0fb1e6b72f..350bcaa180 100644
--- a/theories/Zarith/Zsyntax.v
+++ b/theories/Zarith/Zsyntax.v
@@ -34,8 +34,8 @@ with formula :=
-> [<<(Zlt $p $c)/\(Zle $c $c1)>>]
| form_lt_lt [ expr($p) "<" expr($c) "<" expr($c1) ]
-> [<<(Zlt $p $c)/\(Zlt $c $c1)>>]
-| form_neq [ expr($p) "<>" expr($c) ] -> [<<~(eq Z $p $c)>>]
-| form_comp [ expr($p) "?" "=" expr($c) ] -> [<<(Zcompare $p $c)>>]
+| form_neq [ expr($p) "<>" expr($c) ] -> [<< ~(eq Z $p $c)>>]
+| form_comp [ expr($p) "?=" expr($c) ] -> [<<(Zcompare $p $c)>>]
with expr :=
expr_plus [ expr($p) "+" expr($c) ] -> [<<(Zplus $p $c)>>]
@@ -60,7 +60,7 @@ with expr0 :=
with application :=
apply [ application($p) expr($c1) ] -> [<<($p $c1)>>]
-| pair [ expr($p) "," expr($c) ] -> [<<($p,$c)>>]
+| pair [ expr($p) "," expr($c) ] -> [<<($p, $c)>>]
| appl0 [ expr($a) ] -> [$a]
.
@@ -99,7 +99,7 @@ Syntax constr
[[<hov 0> "`" (ZEXPR $n1) [1 0] "?= " (ZEXPR $n2) "`" ]]
| Zeq [<<(eq Z $n1 $n2)>>] ->
[[<hov 0> "`" (ZEXPR $n1) [1 0] "= "(ZEXPR $n2)"`"]]
- | Zneq [<<~(eq Z $n1 $n2)>>] ->
+ | Zneq [<< ~(eq Z $n1 $n2)>>] ->
[[<hov 0> "`" (ZEXPR $n1) [1 0] "<> "(ZEXPR $n2) "`"]]
| Zle_Zle [<<(Zle $n1 $n2)/\(Zle $n2 $n3)>>] ->
[[<hov 0> "`" (ZEXPR $n1) [1 0] "<= " (ZEXPR $n2)