ous_stuff :> ordered_uniform_space_;
ous_convex: ∀U.us_unifbase ous_stuff U → convex ous_stuff U
}.
-(*
-definition Type_of_ordered_uniform_space : ordered_uniform_space → Type.
-intro; compose ordered_set_OF_ordered_uniform_space with os_l.
-apply (hos_carr (f o));
-qed.
-
-definition Type_of_ordered_uniform_space_dual : ordered_uniform_space → Type.
-intro; compose ordered_set_OF_ordered_uniform_space with os_r.
-apply (hos_carr (f o));
-qed.
-coercion Type_of_ordered_uniform_space_dual.
-coercion Type_of_ordered_uniform_space.
-*)
definition half_ordered_set_OF_ordered_uniform_space : ordered_uniform_space → half_ordered_set.
intro; compose ordered_set_OF_ordered_uniform_space with os_l. apply (f o);
qed.
coercion bs2_of_bss2 nocomposites.
-(*
-notation < "x \sub \neq" with precedence 91 for @{'bsss $x}.
-interpretation "bs_of_ss" 'bsss x = (bs_of_ss _ _ _ x).
-*)
-
-(*
-lemma ss_of_bs:
- ∀O:ordered_set.∀u,v:O.
- ∀b:O squareO.\fst b ∈ [u,v] → \snd b ∈ [u,v] → {[u,v]} squareO ≝
- λO:ordered_set.λu,v:O.
- λb:O squareB.λH1,H2.〈≪\fst b,H1≫,≪\snd b,H2≫〉.
-*)
-
-(*
-notation < "x \sub \nleq" with precedence 91 for @{'ssbs $x}.
-interpretation "ss_of_bs" 'ssbs x = (ss_of_bs _ _ _ x _ _).
-*)
-
lemma segment_ordered_uniform_space:
∀O:ordered_uniform_space.∀u,v:O.ordered_uniform_space.
intros (O l r); apply mk_ordered_uniform_space;
alias symbol "pi1" = "exT \fst".
lemma restric_uniform_convergence:
∀O:ordered_uniform_space.∀l,u:O.
- ∀x:(segment_ordered_uniform_space O l u).
- ∀a:sequence (segment_ordered_uniform_space O l u).
- uniform_converge (segment_ordered_uniform_space O l u)
- (mk_seq O (λn:nat.\fst (a n))) (\fst x) → True.
+ ∀x:{[l,u]}.
+ ∀a:sequence {[l,u]}.
+ (⌊n, \fst (a n)⌋ : sequence O) uniform_converges (\fst x) →
a uniform_converges x.
intros 8; cases H1; cases H2; clear H2 H1;
cases (H ? H3) (m Hm); exists [apply m]; intros;
apply (restrict ? l u ??? H4); apply (Hm ? H1);
qed.
+definition hint_sequence:
+ ∀C:ordered_set.
+ sequence (hos_carr (os_l C)) → sequence (Type_of_ordered_set C).
+intros;assumption;
+qed.
+
+definition hint_sequence1:
+ ∀C:ordered_set.
+ sequence (hos_carr (os_r C)) → sequence (Type_of_ordered_set_dual C).
+intros;assumption;
+qed.
+
+definition hint_sequence2:
+ ∀C:ordered_set.
+ sequence (Type_of_ordered_set C) → sequence (hos_carr (os_l C)).
+intros;assumption;
+qed.
+
+definition hint_sequence3:
+ ∀C:ordered_set.
+ sequence (Type_of_ordered_set_dual C) → sequence (hos_carr (os_r C)).
+intros;assumption;
+qed.
+
+coercion hint_sequence nocomposites.
+coercion hint_sequence1 nocomposites.
+coercion hint_sequence2 nocomposites.
+coercion hint_sequence3 nocomposites.
+
definition order_continuity ≝
λC:ordered_uniform_space.∀a:sequence C.∀x:C.
(a ↑ x → a uniform_converges x) ∧ (a ↓ x → a uniform_converges x).
+
+lemma hint_boh1: ∀O. Type_OF_ordered_uniform_space O → hos_carr (os_l O).
+intros; assumption;
+qed.
+
+coercion hint_boh1 nocomposites.
+
+lemma hint_boh2: ∀O:ordered_uniform_space. hos_carr (os_l O) → Type_OF_ordered_uniform_space O.
+intros; assumption;
+qed.
+
+coercion hint_boh2 nocomposites.
+