auto => autobatch

diff --git a/matita/tests/elim.ma b/matita/tests/elim.ma
index dbcd0930b9f5c351ddaff68408416bf276cb193f..e038c5da2a03e5294fc568ed6829f9cbece7aed3 100644 (file)
--- a/matita/tests/elim.ma
+++ b/matita/tests/elim.ma
@@ -75,5 +75,5 @@ theorem t': \forall x,y. \forall H: sum x y O.
  simplify. intros.
  generalize in match H1.
  rewrite < H2; rewrite < H3.intro.
- rewrite > H4.auto new library.
+ rewrite > H4.autobatch library.
 qed.

diff --git a/matita/tests/hard_refine.ma b/matita/tests/hard_refine.ma
index 94766ab0b06ba67c81c31ac3d65c1a1dfb8aeb81..059a27be3f46810a5f3ee09304078bc533657989 100644 (file)
--- a/matita/tests/hard_refine.ma
+++ b/matita/tests/hard_refine.ma
@@ -52,16 +52,16 @@ letin k3 \def (eq_ind_r A (add (multiply ? (inverse ?)) (multiply b n1)) (\lambd
 focus 633. clearbody k3.
 exact
 (eq_ind A b (\lambda x:A.(eq A x b)) (refl_equal A b) (add (multiply a b) b) (eq_ind A (multiply b n1) (\lambda x:A.(eq A x (add (multiply a b) b))) (eq_ind_r A (add a n1) (\lambda x:A.(eq A (multiply b x) (add (multiply a b) b))) (eq_ind_r A (multiply n1 b) (\lambda x:A.(eq A (multiply b (add a n1)) (add (multiply a b) x))) (H5 b a n1) b (eq_ind A (multiply b n1) (\lambda x:A.(eq A b (multiply n1 x))) (eq_ind A (multiply b n1) (\lambda x:A.(eq A x (multiply n1 (multiply b n1)))) (eq_ind_r A (add b b) (\lambda x:A.(eq A (multiply b n1) (multiply n1 x))) (eq_ind A (add n1 n1) (\lambda x:A.(eq A (multiply b x) (multiply n1 (add b b)))) (eq_ind A (add n1 n1) (\lambda x:A.(eq A (multiply b (add n1 n1)) (multiply x (add b b)))) (eq_ind_r A (add (multiply b (add n1 n1)) (multiply b (add n1 n1))) (\lambda x:A.(eq A (multiply b (add n1 n1)) x)) (eq_ind_r A (add (multiply n1 b) (multiply n1 b)) (\lambda x:A.(eq A (multiply b (add n1 n1)) (add (multiply b (add n1 n1)) x))) (eq_ind_r A (add (multiply n1 b) (multiply n1 b)) (\lambda x:A.(eq A x (add (multiply b (add n1 n1)) (add (multiply n1 b) (multiply n1 b))))) (eq_ind_r A (add (multiply n1 b) (multiply n1 b)) (\lambda x:A.(eq A (add (multiply n1 b) (multiply n1 b)) (add x (add (multiply n1 b) (multiply n1 b))))) (eq_ind A (multiply (add (multiply n1 b) (multiply n1 b)) n1) (\lambda x:A.(eq A x (add (add (multiply n1 b) (multiply n1 b)) (add (multiply n1 b) (multiply n1 b))))) (H7 (multiply n1 b)) (add (multiply n1 b) (multiply n1 b)) (H8 (multiply n1 b))) (multiply b (add n1 n1)) (H5 b n1 n1)) (multiply b (add n1 n1)) (H5 b n1 n1)) (multiply b (add n1 n1)) (H5 b n1 n1)) (multiply (add n1 n1) (add b b)) (H5 (add n1 n1) b b)) n1 (eq_ind A (multiply (add n1 n1) n1) (\lambda x:A.(eq A x n1)) (H6 n1 n1) (add n1 n1) (H8 n1))) n1 (eq_ind A (multiply (add n1 n1) n1) (\lambda x:A.(eq A x n1)) (H6 n1 n1) (add n1 n1) (H8 n1))) (multiply b n1) (eq_ind_r A (multiply n1 (add b b)) (\lambda x:A.(eq A x (add b b))) (eq_ind A (multiply (add b b) n1) (\lambda x:A.(eq A (multiply n1 (add b b)) x)) (eq_ind A (add n1 n1) (\lambda x:A.(eq A (multiply n1 (add b b)) (multiply (add b b) x))) (eq_ind_r A (add (multiply n1 (add b b)) (multiply n1 (add b b))) (\lambda x:A.(eq A (multiply n1 (add b b)) x)) (eq_ind_r A (add (multiply b n1) (multiply b n1)) (\lambda x:A.(eq A (multiply n1 (add b b)) (add (multiply n1 (add b b)) x))) (eq_ind_r A (add (multiply b n1) (multiply b n1)) (\lambda x:A.(eq A x (add (multiply n1 (add b b)) (add (multiply b n1) (multiply b n1))))) (eq_ind_r A (add (multiply b n1) (multiply b n1)) (\lambda x:A.(eq A (add (multiply b n1) (multiply b n1)) (add x (add (multiply b n1) (multiply b n1))))) (eq_ind A (multiply (add (multiply b n1) (multiply b n1)) n1) (\lambda x:A.(eq A x (add (add (multiply b n1) (multiply b n1)) (add (multiply b n1) (multiply b n1))))) (H7 (multiply b n1)) (add (multiply b n1) (multiply b n1)) (H8 (multiply b n1))) (multiply n1 (add b b)) (H5 n1 b b)) (multiply n1 (add b b)) (H5 n1 b b)) (multiply n1 (add b b)) (H5 n1 b b)) (multiply (add b b) (add n1 n1)) (H5 (add b b) n1 n1)) n1 (eq_ind A (multiply (add n1 n1) n1) (\lambda x:A.(eq A x n1)) (H6 n1 n1) (add n1 n1) (H8 n1))) (add b b) (H8 b)) (multiply b n1) (eq_ind A (add n1 n1) (\lambda x:A.(eq A (multiply b x) (multiply n1 (add b b)))) (eq_ind A (add n1 n1) (\lambda x:A.(eq A (multiply b (add n1 n1)) (multiply x (add b b)))) (eq_ind_r A (add (multiply b (add n1 n1)) (multiply b (add n1 n1))) (\lambda x:A.(eq A (multiply b (add n1 n1)) x)) (eq_ind_r A (add (multiply n1 b) (multiply n1 b)) (\lambda x:A.(eq A (multiply b (add n1 n1)) (add (multiply b (add n1 n1)) x))) (eq_ind_r A (add (multiply n1 b) (multiply n1 b)) (\lambda x:A.(eq A x (add (multiply b (add n1 n1)) (add (multiply n1 b) (multiply n1 b))))) (eq_ind_r A (add (multiply n1 b) (multiply n1 b)) (\lambda x:A.(eq A (add (multiply n1 b) (multiply n1 b)) (add x (add (multiply n1 b) (multiply n1 b))))) (eq_ind A (multiply (add (multiply n1 b) (multiply n1 b)) n1) (\lambda x:A.(eq A x (add (add (multiply n1 b) (multiply n1 b)) (add (multiply n1 b) (multiply n1 b))))) (H7 (multiply n1 b)) (add (multiply n1 b) (multiply n1 b)) (H8 (multiply n1 b))) (multiply b (add n1 n1)) (H5 b n1 n1)) (multiply b (add n1 n1)) (H5 b n1 n1)) (multiply b (add n1 n1)) (H5 b n1 n1)) (multiply (add n1 n1) (add b b)) (H5 (add n1 n1) b b)) n1 (eq_ind A (multiply (add n1 n1) n1) (\lambda x:A.(eq A x n1)) (H6 n1 n1) (add n1 n1) (H8 n1))) n1 (eq_ind A (multiply (add n1 n1) n1) (\lambda x:A.(eq A x n1)) (H6 n1 n1) (add n1 n1) (H8 n1))))) b ?) b ?)) n1 ?) b ?)).
-auto new.
-auto new.
-auto new.
-auto new.
+autobatch.
+autobatch.
+autobatch.
+autobatch.
 unfocus.
-auto new.
+autobatch.
 unfocus.
-auto new.
+autobatch.
 unfocus.
-auto new.
+autobatch.
 unfocus.
-auto new.
+autobatch.
 qed.

diff --git a/matita/tests/inversion.ma b/matita/tests/inversion.ma
index 07d3a0c4a09f9e90ef82a7048559b473f4517fd7..4c33beee0f8c38a89b79f366c4e573e378881c90 100644 (file)
--- a/matita/tests/inversion.ma
+++ b/matita/tests/inversion.ma
@@ -42,7 +42,7 @@ theorem t: \forall x,y. \forall H: sum x y O.
  simplify. intros.
  generalize in match H1.
  rewrite < H2; rewrite < H3.intro.
- rewrite > H4.auto new library.
+ rewrite > H4.autobatch library.
 qed.
 
 theorem t1: \forall x,y. sum x y O \to x = y.
@@ -57,5 +57,5 @@ apply (sum_ind ? (\lambda a,b,K. y=a \to O=b \to x=a) ? ? ? s).*)
 inversion s.
 intros.simplify.
 intros.
-rewrite > H. rewrite < H2.  auto new library.
+rewrite > H. rewrite < H2.  autobatch library.
 qed.

diff --git a/matita/tests/replace.ma b/matita/tests/replace.ma
index 843075766405b8bcea9a77443ce68e00cfdc6759..ba1f41a8f3d9b17e878a48995d72132dac5caf09 100644 (file)
--- a/matita/tests/replace.ma
+++ b/matita/tests/replace.ma
@@ -30,7 +30,7 @@ theorem t: \forall x:nat. x * (x + 0) = (0 + x) * (x + x * 0).
  rewrite < (plus_n_O x).
  reflexivity.
  reflexivity.
- auto new library.
+ autobatch library.
 qed.
 
 (* This test tests "replace in match t" where t contains some metavariables *)

diff --git a/matita/tests/test3.ma b/matita/tests/test3.ma
index 5753f37af6923167e1ba9f5f5d44daccc5973019..85180da5b043025e53a30a600311a53a5a70043e 100644 (file)
--- a/matita/tests/test3.ma
+++ b/matita/tests/test3.ma
@@ -27,5 +27,5 @@ alias symbol "times" (instance 0) = "Coq's natural times".
 
 theorem b:\forall p:nat. p * 0=0.
 intro.
-auto new library.
+autobatch library.
 qed.