Banish qualified import of Function - use \o for fun-comp!
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@ -7,7 +7,6 @@ open import Data.Bool hiding (T)
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open import Data.Sum hiding ([_,_])
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open import Data.Unit
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open import Data.Empty
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open import Function
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open import Relation.Nullary
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open import Relation.Nullary.Decidable
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@ -2,7 +2,6 @@
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module Cat.Categories.Fam where
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open import Cat.Prelude
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import Function
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open import Cat.Category
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@ -15,7 +14,7 @@ module _ (ℓa ℓb : Level) where
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fst identity = λ x → x
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snd identity = λ b → b
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_<<<_ : {a b c : Object} → Arr b c → Arr a b → Arr a c
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(g , g') <<< (f , f') = g Function.∘ f , g' Function.∘ f'
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(g , g') <<< (f , f') = g ∘ f , g' ∘ f'
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RawFam : RawCategory (lsuc (ℓa ⊔ ℓb)) (ℓa ⊔ ℓb)
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RawFam = record
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@ -2,7 +2,6 @@
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module Cat.Categories.Rel where
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open import Cat.Prelude hiding (Rel)
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open import Function
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open import Cat.Category
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@ -4,8 +4,6 @@ module Cat.Categories.Sets where
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open import Cat.Prelude as P
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open import Function using (_∘_ ; _∘′_)
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open import Cat.Category
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open import Cat.Category.Functor
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open import Cat.Category.Product
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@ -25,14 +23,14 @@ module _ (ℓ : Level) where
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SetsRaw : RawCategory (lsuc ℓ) ℓ
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RawCategory.Object SetsRaw = hSet ℓ
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RawCategory.Arrow SetsRaw (T , _) (U , _) = T → U
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RawCategory.identity SetsRaw = Function.id
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RawCategory._<<<_ SetsRaw = Function._∘′_
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RawCategory.identity SetsRaw = idFun _
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RawCategory._<<<_ SetsRaw = _∘′_
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module _ where
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private
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open RawCategory SetsRaw hiding (_<<<_)
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isIdentity : IsIdentity Function.id
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isIdentity : IsIdentity (idFun _)
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fst isIdentity = funExt λ _ → refl
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snd isIdentity = funExt λ _ → refl
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@ -70,17 +68,17 @@ module _ (ℓ : Level) where
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where
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module xxA = AreInverses xx
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module yyA = AreInverses yy
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ve-re : g ∘ f ≡ Function.id
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ve-re : g ∘ f ≡ idFun _
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ve-re = arrowsAreSets {A = hA} {B = hA} _ _ xxA.verso-recto yyA.verso-recto i
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re-ve : f ∘ g ≡ Function.id
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re-ve : f ∘ g ≡ idFun _
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re-ve = arrowsAreSets {A = hB} {B = hB} _ _ xxA.recto-verso yyA.recto-verso i
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1eq : x.inverse ≡ y.inverse
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1eq = begin
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x.inverse ≡⟨⟩
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x.inverse ∘ Function.id ≡⟨ cong (λ φ → x.inverse ∘ φ) (sym yA.recto-verso) ⟩
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x.inverse ∘ idFun _ ≡⟨ cong (λ φ → x.inverse ∘ φ) (sym yA.recto-verso) ⟩
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x.inverse ∘ (f ∘ y.inverse) ≡⟨⟩
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(x.inverse ∘ f) ∘ y.inverse ≡⟨ cong (λ φ → φ ∘ y.inverse) xA.verso-recto ⟩
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Function.id ∘ y.inverse ≡⟨⟩
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idFun _ ∘ y.inverse ≡⟨⟩
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y.inverse ∎
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2eq : (λ i → AreInverses f (1eq i)) [ x.areInverses ≡ y.areInverses ]
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2eq = lemPropF p 1eq
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@ -266,7 +264,7 @@ module _ {ℓ : Level} where
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module _ (hX : Object) where
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open Σ hX renaming (fst to X)
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module _ (f : X → A ) (g : X → B) where
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ump : fst Function.∘′ (f &&& g) ≡ f × snd Function.∘′ (f &&& g) ≡ g
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ump : fst ∘′ (f &&& g) ≡ f × snd ∘′ (f &&& g) ≡ g
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fst ump = refl
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snd ump = refl
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@ -280,7 +278,7 @@ module _ {ℓ : Level} where
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= f &&& g , ump hX f g , λ eq → funExt (umpUniq eq)
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where
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open Σ hX renaming (fst to X) using ()
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module _ {y : X → A × B} (eq : fst Function.∘′ y ≡ f × snd Function.∘′ y ≡ g) (x : X) where
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module _ {y : X → A × B} (eq : fst ∘′ y ≡ f × snd ∘′ y ≡ g) (x : X) where
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p1 : fst ((f &&& g) x) ≡ fst (y x)
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p1 = begin
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fst ((f &&& g) x) ≡⟨⟩
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@ -35,8 +35,6 @@ open Cat.Equivalence
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renaming (_≅_ to _≈_)
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hiding (preorder≅ ; Isomorphism)
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import Function
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------------------
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-- * Categories --
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------------------
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@ -146,7 +144,7 @@ record RawCategory (ℓa ℓb : Level) : Set (lsuc (ℓa ⊔ ℓb)) where
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postulate from[Contr] : Univalent[Contr] → Univalent
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from[Andrea] : Univalent[Andrea] → Univalent
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from[Andrea] = from[Contr] Function.∘ step
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from[Andrea] = from[Contr] ∘ step
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where
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module _ (f : Univalent[Andrea]) (A : Object) where
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aux : isContr (Σ[ B ∈ Object ] A ≡ B)
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@ -510,7 +508,7 @@ module Opposite {ℓa ℓb : Level} where
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module ℂ = Category ℂ
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opRaw : RawCategory ℓa ℓb
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RawCategory.Object opRaw = ℂ.Object
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RawCategory.Arrow opRaw = Function.flip ℂ.Arrow
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RawCategory.Arrow opRaw = flip ℂ.Arrow
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RawCategory.identity opRaw = ℂ.identity
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RawCategory._<<<_ opRaw = ℂ._>>>_
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@ -529,9 +527,6 @@ module Opposite {ℓa ℓb : Level} where
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open Σ k renaming (fst to η ; snd to inv-η)
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open AreInverses inv-η
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_⊙_ = Function._∘_
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infixr 9 _⊙_
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genericly : {ℓa ℓb ℓc : Level} {a : Set ℓa} {b : Set ℓb} {c : Set ℓc}
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→ a × b × c → b × a × c
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genericly (a , b , c) = (b , a , c)
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@ -557,22 +552,22 @@ module Opposite {ℓa ℓb : Level} where
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open Σ r-iso renaming (fst to r-l ; snd to r-r)
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ζ : A ≅ B → A ≡ B
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ζ = η ⊙ shuffle
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ζ = η ∘ shuffle
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-- inv : AreInverses (ℂ.idToIso A B) f
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inv-ζ : AreInverses (idToIso A B) ζ
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-- recto-verso : ℂ.idToIso A B <<< f ≡ idFun (A ℂ.≅ B)
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inv-ζ = record
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{ verso-recto = funExt (λ x → begin
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(ζ ⊙ idToIso A B) x ≡⟨⟩
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(η ⊙ shuffle ⊙ idToIso A B) x ≡⟨ cong (λ φ → φ x) (cong (λ φ → η ⊙ shuffle ⊙ φ) (funExt lem)) ⟩
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(η ⊙ shuffle ⊙ shuffle~ ⊙ ℂ.idToIso A B) x ≡⟨⟩
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(η ⊙ ℂ.idToIso A B) x ≡⟨ (λ i → verso-recto i x) ⟩
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(ζ ∘ idToIso A B) x ≡⟨⟩
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(η ∘ shuffle ∘ idToIso A B) x ≡⟨ cong (λ φ → φ x) (cong (λ φ → η ∘ shuffle ∘ φ) (funExt lem)) ⟩
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(η ∘ shuffle ∘ shuffle~ ∘ ℂ.idToIso A B) x ≡⟨⟩
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(η ∘ ℂ.idToIso A B) x ≡⟨ (λ i → verso-recto i x) ⟩
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x ∎)
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; recto-verso = funExt (λ x → begin
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(idToIso A B ⊙ η ⊙ shuffle) x ≡⟨ cong (λ φ → φ x) (cong (λ φ → φ ⊙ η ⊙ shuffle) (funExt lem)) ⟩
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(shuffle~ ⊙ ℂ.idToIso A B ⊙ η ⊙ shuffle) x ≡⟨ cong (λ φ → φ x) (cong (λ φ → shuffle~ ⊙ φ ⊙ shuffle) recto-verso) ⟩
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(shuffle~ ⊙ shuffle) x ≡⟨⟩
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(idToIso A B ∘ η ∘ shuffle) x ≡⟨ cong (λ φ → φ x) (cong (λ φ → φ ∘ η ∘ shuffle) (funExt lem)) ⟩
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(shuffle~ ∘ ℂ.idToIso A B ∘ η ∘ shuffle) x ≡⟨ cong (λ φ → φ x) (cong (λ φ → shuffle~ ∘ φ ∘ shuffle) recto-verso) ⟩
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(shuffle~ ∘ shuffle) x ≡⟨⟩
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x ∎)
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}
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@ -2,7 +2,6 @@
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module Cat.Category.Functor where
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open import Cat.Prelude
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open import Function
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open import Cubical
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@ -165,8 +164,8 @@ module Functors where
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module _ {ℓc ℓcc : Level} {ℂ : Category ℓc ℓcc} where
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private
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raw : RawFunctor ℂ ℂ
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RawFunctor.omap raw = Function.id
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RawFunctor.fmap raw = Function.id
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RawFunctor.omap raw = idFun _
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RawFunctor.fmap raw = idFun _
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isFunctor : IsFunctor ℂ ℂ raw
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IsFunctor.isIdentity isFunctor = refl
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@ -5,7 +5,6 @@ This module provides construction 2.3 in [voe]
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module Cat.Category.Monad.Voevodsky where
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open import Cat.Prelude
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open import Function
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open import Cat.Category
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open import Cat.Category.Functor as F
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@ -132,10 +131,10 @@ module voe {ℓa ℓb : Level} (ℂ : Category ℓa ℓb) where
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Kleisli→Monoidal : K.Monad → M.Monad
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Kleisli→Monoidal = E.reverse
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ve-re : Kleisli→Monoidal ∘ Monoidal→Kleisli ≡ Function.id
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ve-re : Kleisli→Monoidal ∘ Monoidal→Kleisli ≡ idFun _
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ve-re = E.verso-recto
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re-ve : Monoidal→Kleisli ∘ Kleisli→Monoidal ≡ Function.id
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re-ve : Monoidal→Kleisli ∘ Kleisli→Monoidal ≡ idFun _
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re-ve = E.recto-verso
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forth : §2-3.§1 omap pure → §2-3.§2 omap pure
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@ -3,7 +3,6 @@ module Cat.Category.Product where
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open import Cat.Prelude as P hiding (_×_ ; fst ; snd)
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open import Cat.Equivalence hiding (_≅_)
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-- module P = Cat.Prelude
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open import Cat.Category
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@ -203,15 +202,13 @@ module Try0 {ℓa ℓb : Level} {ℂ : Category ℓa ℓb}
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: ((X , xa , xb) ≡ (Y , ya , yb))
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≈ (Σ[ p ∈ (X ≡ Y) ] (PathP (λ i → ℂ.Arrow (p i) A) xa ya) × (PathP (λ i → ℂ.Arrow (p i) B) xb yb))
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step0
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= (λ p → cong fst p , cong-d (fst ⊙ snd) p , cong-d (snd ⊙ snd) p)
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= (λ p → cong fst p , cong-d (fst ∘ snd) p , cong-d (snd ∘ snd) p)
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-- , (λ x → λ i → fst x i , (fst (snd x) i) , (snd (snd x) i))
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, (λ{ (p , q , r) → Σ≡ p λ i → q i , r i})
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, record
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{ verso-recto = funExt (λ{ p → refl})
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; recto-verso = funExt (λ{ (p , q , r) → refl})
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}
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where
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open import Function renaming (_∘_ to _⊙_)
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-- Should follow from c being univalent
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iso-id-inv : {p : X ≡ Y} → p ≡ ℂ.isoToId (ℂ.idToIso X Y p)
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@ -151,8 +151,6 @@ module _ {ℓa ℓb ℓ : Level} (A : Set ℓa) (B : Set ℓb) where
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(x ∘ f) ∘ y ≡⟨ cong (λ φ → φ ∘ y) inv-x.verso-recto ⟩
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y ∎
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open import Cat.Prelude
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propInv : ∀ g → isProp (AreInverses f g)
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propInv g t u i = record { verso-recto = a i ; recto-verso = b i }
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where
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@ -9,7 +9,10 @@ open import Data.Product public
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renaming (∃! to ∃!≈)
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using (_×_ ; Σ-syntax ; swap)
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-- TODO Import Data.Function under appropriate names.
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open import Function using (_∘_ ; _∘′_ ; _$_ ; case_of_ ; flip) public
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idFun : ∀ {a} (A : Set a) → A → A
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idFun A a = a
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open import Cubical public
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-- FIXME rename `gradLemma` to `fromIsomorphism` - perhaps just use wrapper
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