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uniq_app_2 : uniq (E ++ F) -> uniq F.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_app_2
uniq_app_3 : uniq (E ++ F) -> disjoint E F.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_app_3
uniq_app_4 : uniq E -> uniq F -> disjoint E F -> uniq (E ++ F).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_app_4
uniq_app_iff : uniq (E ++ F) <-> uniq E /\ uniq F /\ disjoint E F.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_app_iff
uniq_map_1 : uniq (map f E) -> uniq E.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_map_1
uniq_map_2 : uniq E -> uniq (map f E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_map_2
uniq_map_iff : uniq (map f E) <-> uniq E.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_map_iff
BindsProperties . Variable A B : Type. Variables f : A -> B. Variables x y : atom. Variables a b : A. Variables E F G : list (atom*A).
Section
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
BindsProperties
binds_nil_iff : binds x a nil <-> False.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_nil_iff
binds_one_1 : binds x a (y ~ b) -> x = y.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_one_1
binds_one_2 : binds x a (y ~ b) -> a = b.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_one_2
binds_one_3 : x = y -> a = b -> binds x a (y ~ b).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_one_3
binds_one_iff : binds x a (y ~ b) <-> x = y /\ a = b.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_one_iff
binds_cons_1 : binds x a ((y, b) :: E) -> (x = y /\ a = b) \/ binds x a E.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_cons_1
binds_cons_2 : x = y -> a = b -> binds x a ((y, b) :: E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_cons_2
binds_cons_3 : binds x a E -> binds x a ((y, b) :: E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_cons_3
binds_cons_iff : binds x a ((y, b) :: E) <-> (x = y /\ a = b) \/ binds x a E.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_cons_iff
binds_app_1 : binds x a (E ++ F) -> binds x a E \/ binds x a F.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_app_1
binds_app_2 : binds x a E -> binds x a (E ++ F).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_app_2
binds_app_3 : binds x a F -> binds x a (E ++ F).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_app_3
binds_app_iff : binds x a (E ++ F) <-> binds x a E \/ binds x a F.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_app_iff
binds_map_1 : (forall a b, f a = f b -> a = b) -> binds x (f a) (map f E) -> binds x a E.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_map_1
binds_map_2 : binds x a E -> binds x (f a) (map f E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_map_2
binds_dom_contradiction : forall (E : list (atom*A)), binds x a E -> ~ In x (dom E) -> False.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_dom_contradiction
binds_app_uniq_1 : uniq (E ++ F) -> binds x a (E ++ F) -> (binds x a E /\ ~ In x (dom F)) \/ (binds x a F /\ ~ In x (dom E)).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_app_uniq_1
binds_app_uniq_iff : uniq (E ++ F) -> (binds x a (E ++ F) <-> (binds x a E /\ ~ In x (dom F)) \/ (binds x a F /\ ~ In x (dom E))).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_app_uniq_iff
BindsProperties2 . Variable A B : Type. Variables f : A -> B. Variables x y : atom. Variables a b : A. Variables E F G : list (atom*A).
Section
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
BindsProperties2
binds_cons_uniq_1 : uniq ((y, b) :: E) -> binds x a ((y, b) :: E) -> (x = y /\ a = b /\ ~ In x (dom E)) \/ (binds x a E /\ x <> y).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_cons_uniq_1
binds_cons_uniq_iff : uniq ((y, b) :: E) -> (binds x a ((y, b) :: E) <-> (x = y /\ a = b /\ ~ In x (dom E)) \/ (binds x a E /\ x <> y)).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_cons_uniq_iff
AssortedListProperties . Variable X : Type. Variables x : X. Variables xs ys zs : list X.
Section
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
AssortedListProperties
one_eq_app : one x ++ xs = ys ++ zs -> (exists qs, ys = x :: qs /\ xs = qs ++ zs) \/ (ys = nil /\ zs = x :: xs).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
one_eq_app
app_eq_one : ys ++ zs = one x ++ xs -> (exists qs, ys = x :: qs /\ xs = qs ++ zs) \/ (ys = nil /\ zs = x :: xs).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
app_eq_one
nil_neq_one_mid : nil <> xs ++ one x ++ ys.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
nil_neq_one_mid
one_mid_neq_nil : xs ++ one x ++ ys <> nil.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
one_mid_neq_nil
destruct_uniq := match goal with | H : uniq nil |- _ => clear H; destruct_uniq | H : uniq (?x ~ ?a) |- _ => clear H; destruct_uniq | H : uniq ((?x, ?a) :: ?E) |- _ => let J := fresh "UniqTac" in pose proof H as J; apply uniq_cons_1 in H; apply uniq_cons_2 in...
Ltac
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
destruct_uniq
solve_uniq := intros; destruct_uniq; repeat first [ apply uniq_push | apply uniq_cons_3 | apply uniq_app_4 | apply uniq_one_1 | apply uniq_nil ]; auto; try tauto; unfold disjoint in *; try fsetdec; fail "Not solvable by [solve_uniq]; try [destr...
Ltac
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
solve_uniq
UniqDerived . Variable A : Type. Variables x y : atom. Variables a b : A. Variables E F G : list (atom*A).
Section
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
UniqDerived
uniq_insert_mid : uniq (G ++ E) -> ~ In x (dom G) -> ~ In x (dom E) -> uniq (G ++ (x ~ a) ++ E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_insert_mid
uniq_remove_mid : uniq (E ++ F ++ G) -> uniq (E ++ G).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_remove_mid
uniq_reorder_1 : uniq (E ++ F) -> uniq (F ++ E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_reorder_1
uniq_reorder_2 : uniq (E ++ F ++ G) -> uniq (F ++ E ++ G).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_reorder_2
uniq_map_app_l : forall (f : A -> A), uniq (F ++ E) -> uniq (map f F ++ E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
uniq_map_app_l
fresh_mid_tail : uniq (F ++ (x ~ a) ++ E) -> ~ In x (dom E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
fresh_mid_tail
fresh_mid_head : uniq (F ++ (x ~ a) ++ E) -> ~ In x (dom F).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
fresh_mid_head
destruct_binds_hyp H := match type of H with | binds ?x ?a nil => inversion H | binds ?x ?a (?y ~ ?b) => let J1 := fresh "BindsTacKey" in let J2 := fresh "BindsTacVal" in rename H into J1; pose proof J1 as J2; apply binds_one_1 in J1; apply binds_one_2 in J2; tr...
Ltac
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
destruct_binds_hyp
destruct_binds_hyp_uniq H := match type of H with | binds ?x ?a nil => inversion H | binds ?x ?a (?y ~ ?b) => let J1 := fresh "BindsTacKey" in let J2 := fresh "BindsTacVal" in rename H into J1; pose proof J1 as J2; apply binds_one_1 in J1; apply binds_one_2 in J2; ...
Ltac
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
destruct_binds_hyp_uniq
analyze_binds_cleanup := auto; try tauto; try discriminate; try match goal with | J : ~ In ?x ?E |- _ => match E with | context [x] => elim J; clear; simpl_env; auto with set end end. (** The [analyze_binds] and [analyze_binds_uniq] tactics decompose a hypothes...
Ltac
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
analyze_binds_cleanup
analyze_binds H := destruct_binds_hyp H; analyze_binds_cleanup.
Ltac
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
analyze_binds
analyze_binds_uniq H := destruct_binds_hyp_uniq H; analyze_binds_cleanup. (* *********************************************************************** *) (** * Facts about [binds] *)
Ltac
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
analyze_binds_uniq
BindsDerived . Variables A B : Type. Variables f : A -> B. Variables x y : atom. Variables a b : A. Variables E F G : list (atom*A).
Section
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
BindsDerived
binds_dec : (forall a b : A, {a = b} + {a <> b}) -> {binds x a E} + {~ binds x a E}.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_dec
binds_lookup : {a : A | binds x a E} + (forall a, ~ binds x a E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_lookup
binds_lookup_dec : decidable (exists a, binds x a E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_lookup_dec
binds_weaken : binds x a (E ++ G) -> binds x a (E ++ F ++ G).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_weaken
binds_mid_eq : binds x a (F ++ (x ~ b) ++ E) -> uniq (F ++ (x ~ b) ++ E) -> a = b.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_mid_eq
binds_remove_mid : binds x a (F ++ (y ~ b) ++ G) -> x <> y -> binds x a (F ++ G).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_remove_mid
binds_In : forall x a (E : list (atom*A)), binds x a E -> In x (dom E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_In
binds_In_inv : forall x (E : list (atom*A)), In x (dom E) -> exists a, binds x a E.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_In_inv
binds_unique : binds x a E -> binds x b E -> uniq E -> a = b.
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
binds_unique
fresh_app_l : uniq (F ++ E) -> binds x a E -> ~ In x (dom F).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
fresh_app_l
fresh_app_r : uniq (F ++ E) -> binds x a F -> ~ In x (dom E).
Axiom
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
fresh_app_r
Export EnvImpl : ENVIRONMENT := AssocList.Make AtomDT AtomSetImpl.
Module
Attic
[ "Require Import Coq.", "Require Import Metalib." ]
Attic/MetatheoryEnv.v
Export
general_asn (key A B : Type) : Type := | VarAsn : key -> A -> general_asn key A B | AltAsn : B -> general_asn key A B. Implicit Arguments VarAsn [key A]. Implicit Arguments AltAsn [B]. (* *********************************************************************** *) (** * Beginning of the functor *)
Inductive
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
general_asn
Make (X : UsualDecidableType) (Import KeySet : FSetInterface.WSfun X).
Module
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
Make
Import D := CoqFSetDecide.WDecide_fun X KeySet.
Module
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
Import
KeySetProperties := FSetProperties.WProperties_fun X KeySet.
Module
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
KeySetProperties
KeySetFacts := FSetFacts.WFacts_fun X KeySet. (* *********************************************************************** *) (** * Basic definitions *) (** Implicit arguments are enabled for the following definitions. *) Set Implicit Arguments. (** An assumption maps an [atom] (sometimes called a 'key') to a value ...
Module
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
KeySetFacts
asn := (general_asn X.t). (** [one] constructs a singleton list. We define an infix notation for it and ensure that the arguments to [app] are interpreted in the right scope, i.e., [list_scope]. Implementation note: The level associated with the notation gives it a higher precedence than the "++" not...
Local Notation
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
asn
one (C : Type) (item : C) : list C := cons item nil.
Definition
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
one
dom (A B : Type) (E : list (asn A B)) : KeySet.t := match E with | nil => empty | VarAsn x _ :: E' => add x (dom E') | _ :: E' => dom E' end. (** [get] looks up a key in the assumption list. *)
Fixpoint
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
dom
get (A B : Type) (x : X.t) (E : list (asn A B)) : option A := match E with | nil => None | VarAsn y c :: F => if X.eq_dec x y then Some c else get x F | _ :: F => get x F end. (** [binds] is a ternary predicate that holds when a key-value pair appears somewhere in the given assumption list. *)
Fixpoint
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
get
binds (A B : Type) (x : X.t) (a : A) (E : list (asn A B)) : Prop := List.In (VarAsn _ x a) E. (** [bindsAlt] is a binary predicate that holds when a key-less assumption appears somewhere in the given assumption list. *)
Definition
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
binds
bindsAlt (A B : Type) (b : B) (E : list (asn A B)) : Prop := List.In (AltAsn _ _ b) E. (** [maps] is a ternary predicate that holds when the first binding in the list for the given key is to the given value. *)
Definition
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
bindsAlt
maps (A B : Type) (x : X.t) (a : A) (E : list (asn A B)) : Prop := get x E = Some a. (** [disjoint] is a binary predicate that holds when the domains of two assumption lists are disjoint. *)
Definition
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
maps
disjoint (A B C D : Type) (E : list (asn A B)) (F : list (asn C D)) : Prop := inter (dom E) (dom F) [<=] empty. (** [map] applies a function to each of the values in an assumption list. *)
Definition
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
disjoint
map (A B C D : Type) (f : A -> C) (g : B -> D) (E : list (asn A B)) : list (asn C D) := List.map (fun b => match b with | VarAsn x a => VarAsn _ x (f a) | AltAsn b => AltAsn _ _ (g b) end) E. (** [map_var] is like [map] except that it leave [AltAsn...
Definition
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map
map_var (A B C : Type) (f : A -> B) (E : list (asn A C)) : list (asn B C) := map f (fun x => x) E. (** [erase_var] deletes all the variable mappings from an assumption list. *)
Definition
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_var
erase_var (A B : Type) (E : list (asn A B)) : list B := match E with | nil => nil | VarAsn x a :: F => erase_var F | AltAsn b :: F => b :: erase_var F end. (** [uniq] is unary predicate that holds if and only if each key is bound at most once in the given assumption list. Note that [uniq] is...
Fixpoint
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
erase_var
uniq (A B : Type) : list (asn A B) -> Prop := | uniq_nil : uniq nil | uniq_push : forall x a E, uniq E -> ~ In x (dom E) -> uniq (x ~ a ++ E) | uniq_alt : forall b E, uniq E -> uniq (one (AltAsn _ _ b) ++ E). (** Unless stated otherwise, in the remainder of this file, implicit...
Inductive
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
uniq
ListProperties . Variable X : Type. Variables x y : X. Variables l l1 l2 l3 : list X.
Section
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
ListProperties
cons_app_one : cons x l = one x ++ l. Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
cons_app_one
cons_app_assoc : (cons x l1) ++ l2 = cons x (l1 ++ l2). Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
cons_app_assoc
app_assoc : (l1 ++ l2) ++ l3 = l1 ++ (l2 ++ l3). Proof. clear. auto with datatypes. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
app_assoc
app_nil_1 : nil ++ l = l. Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
app_nil_1
app_nil_2 : l ++ nil = l. Proof. clear. auto with datatypes. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
app_nil_2
in_nil_iff : List.In x nil <-> False. Proof. clear. split; inversion 1. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
in_nil_iff
in_one_iff : List.In x (one y) <-> x = y. Proof. clear. split. inversion 1; intuition. constructor; intuition. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
in_one_iff
in_app_iff : List.In x (l1 ++ l2) <-> List.In x l1 \/ List.In x l2. Proof. clear. split; auto using List.in_or_app, List.in_app_or. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
in_app_iff
Properties . Variables A B C D : Type. Variable f : A -> C. Variable g : B -> D. Variable x : X.t. Variable a : A. Variable b : B. Variables E F G : list (asn A B).
Section
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
Properties
map_nil : map f g (@nil (asn A B)) = nil. Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_nil
map_one : map f g (x ~ a) = (x ~ f a). Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_one
map_one_alt : map f g (one (AltAsn _ _ b)) = one (AltAsn _ _ (g b)). Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_one_alt
map_cons : map f g (VarAsn _ x a :: E) = x ~ f a ++ map f g E. Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_cons
map_cons_alt : map f g (AltAsn _ _ b :: E) = one (AltAsn _ _ (g b)) ++ map f g E. Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_cons_alt
map_app : map f g (E ++ F) = map f g E ++ map f g F. Proof. clear. unfold map. rewrite List.map_app. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_app
map_var_nil : map_var f (@nil (asn A B)) = nil. Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_var_nil
map_var_one : map_var f (x ~ a :> B) = x ~ (f a). Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_var_one
map_var_one_alt : map_var f (one (AltAsn _ _ b)) = one (AltAsn _ _ b). Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_var_one_alt
map_var_cons : map_var f (VarAsn _ x a :: E) = x ~ f a ++ map_var f E. Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_var_cons
map_var_cons_alt : map_var f (AltAsn _ _ b :: E) = one (AltAsn _ _ b) ++ map_var f E. Proof. clear. reflexivity. Qed.
Lemma
Attic
[ "Require Import Coq.", "Require Import CoqFSetDecide.", "Require Import CoqListFacts.", "Require Import LibTactics." ]
Attic/MyAssumeList.v
map_var_cons_alt