Module
Mathlib.Logic.Eq
npa-mathlib
Packages
2
Module
63
Theorem
750
Declarations
1016
信頼境界外の sidecar
Source text や表示 overlay は提示用メタデータです。信頼する証拠は署名済み証明書と checker の結果です。
Theorem
11
Definition
0
Inductive type
0
Axiom
0
Declarations
eq_refl_self
forall (A : Sort u), forall (x : A), @Eq.{u} A x x
eq_refl_fn_app
forall (A : Sort u), forall (B : Sort v), forall (f : forall (x : A), B), forall (x : A), @Eq.{v} B (f x) (f x)
eq_refl_compose
forall (A : Sort u), forall (B : Sort v), forall (C : Sort w), forall (f : forall (x : B), C), forall (g : forall (x : A), B), forall (x : A), @Eq.{w} C (f (g x...
eq_self_imp
forall (A : Sort u), forall (x : A), forall (h : @Eq.{u} A x x), @Eq.{u} A x x
eq_refl_prop
forall (P : Prop), forall (p : P), @Eq.{0} P p p
eq_refl_apply_twice
forall (A : Sort u), forall (f : forall (x : A), A), forall (x : A), @Eq.{u} A (f (f x)) (f (f x))
eq_refl_higher_apply
forall (A : Sort u), forall (B : Sort v), forall (C : Sort w), forall (h : forall (f : forall (x : A), B), C), forall (f : forall (x : A), B), @Eq.{w} C (h f) (...
eq_refl_nested_compose
forall (A : Sort u), forall (B : Sort v), forall (C : Sort w), forall (D : Sort z), forall (f : forall (x : C), D), forall (g : forall (x : B), C), forall (h :...
eq_refl_prop_apply
forall (P : Prop), forall (Q : Prop), forall (h : forall (p : P), Q), forall (p : P), @Eq.{0} Q (h p) (h p)
eq_local_passthrough
forall (A : Sort u), forall (x : A), forall (h : @Eq.{u} A x x), @Eq.{u} A x x
eq_refl_nat_function
forall (f : forall (n : Nat), Nat), forall (n : Nat), @Eq.{1} Nat (f n) (f n)
Hashes
- source
- sha256:840d68cb64b2b75fe048cf8f47b5908b05d72c488a6c4168777980d88052a954
- certificateFile
- sha256:763bce3ceb66a1ad3d8c42c2f3de702361c26a34dc48cb48bb32e39aae200075
- export
- sha256:1c07efd64036803a90acda145142dfaca01324bf4ac0851f9084c2b398f322f8
- axiomReport
- sha256:bc3aec4eabbf2c61f399239a21f359b264c36873e750ed25c9059fee86484bea
- certificate
- sha256:72a9b7d00d295691fcf1b0a256200104d50a8ad1efbee355cd0f6fd1a9e697e8
Source
import Std.Logic.Eq
import Std.Nat.Basic
theorem eq_refl_self.{u} :
forall (A : Sort u), forall (x : A), @Eq.{u} A x x :=
fun A => fun x => @Eq.refl.{u} A x
theorem eq_refl_fn_app.{u,v} :
forall (A : Sort u), forall (B : Sort v), forall (f : forall (x : A), B), forall (x : A), @Eq.{v} B (f x) (f x) :=
fun A => fun B => fun f => fun x => @Eq.refl.{v} B (f x)
theorem eq_refl_compose.{u,v,w} :
forall (A : Sort u), forall (B : Sort v), forall (C : Sort w), forall (f : forall (x : B), C), forall (g : forall (x : A), B), forall (x : A), @Eq.{w} C (f (g x)) (f (g x)) :=
fun A => fun B => fun C => fun f => fun g => fun x => @Eq.refl.{w} C (f (g x))
theorem eq_self_imp.{u} :
forall (A : Sort u), forall (x : A), forall (h : @Eq.{u} A x x), @Eq.{u} A x x :=
fun A => fun x => fun h => h
theorem eq_refl_prop :
forall (P : Prop), forall (p : P), @Eq.{0} P p p :=
fun P => fun p => @Eq.refl.{0} P p
theorem eq_refl_apply_twice.{u} :
forall (A : Sort u), forall (f : forall (x : A), A), forall (x : A), @Eq.{u} A (f (f x)) (f (f x)) :=
fun A => fun f => fun x => @Eq.refl.{u} A (f (f x))
theorem eq_refl_higher_apply.{u,v,w} :
forall (A : Sort u), forall (B : Sort v), forall (C : Sort w), forall (h : forall (f : forall (x : A), B), C), forall (f : forall (x : A), B), @Eq.{w} C (h f) (h f) :=
fun A => fun B => fun C => fun h => fun f => @Eq.refl.{w} C (h f)
theorem eq_refl_nested_compose.{u,v,w,z} :
forall (A : Sort u), forall (B : Sort v), forall (C : Sort w), forall (D : Sort z), forall (f : forall (x : C), D), forall (g : forall (x : B), C), forall (h : forall (x : A), B), forall (x : A), @Eq.{z} D (f (g (h x))) (f (g (h x))) :=
fun A => fun B => fun C => fun D => fun f => fun g => fun h => fun x => @Eq.refl.{z} D (f (g (h x)))
theorem eq_refl_prop_apply :
forall (P : Prop), forall (Q : Prop), forall (h : forall (p : P), Q), forall (p : P), @Eq.{0} Q (h p) (h p) :=
fun P => fun Q => fun h => fun p => @Eq.refl.{0} Q (h p)
theorem eq_local_passthrough.{u} :
forall (A : Sort u), forall (x : A), forall (h : @Eq.{u} A x x), @Eq.{u} A x x :=
fun A => fun x => fun h => h
theorem eq_refl_nat_function :
forall (f : forall (n : Nat), Nat), forall (n : Nat), @Eq.{1} Nat (f n) (f n) :=
fun f => fun n => @Eq.refl.{1} Nat (f n)