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Typereference := [ | VarRef (ident) | ConstRef (constant) | IndRef (inductive) | ConstructRef (constructor) ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typestrength := [ Norm | Head ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typered_flags := { rStrength : strength; rBeta : bool; rMatch : bool; rFix : bool; rCofix : bool; rZeta : bool; rDelta : bool; (** true = delta all but rConst; false = delta only on rConst*) rConst : reference list }.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Type'a not_implemented.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typerec intro_pattern := [ | IntroForthcoming (bool) | IntroNaming (intro_pattern_naming) | IntroAction (intro_pattern_action) ] with intro_pattern_naming := [ | IntroIdentifier (ident) | IntroFresh (ident) | IntroAnonymous ] with intro_pattern_action := [ | IntroWildcard | IntroOrAndPattern (or_and_intro_pattern) | In...
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typedestruction_arg := [ | ElimOnConstr (unit -> constr_with_bindings) | ElimOnIdent (ident) | ElimOnAnonHyp (int) ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typeinduction_clause := { indcl_arg : destruction_arg; indcl_eqn : intro_pattern_naming option; indcl_as : or_and_intro_pattern option; indcl_in : clause option; }.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typeassertion := [ | AssertType (intro_pattern option, constr, (unit -> unit) option) | AssertValue (ident, constr) ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typerepeat := [ | Precisely (int) | UpTo (int) | RepeatStar | RepeatPlus ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typeorientation := [ LTR | RTL ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typerewriting := { rew_orient : orientation option; rew_repeat : repeat; rew_equatn : (unit -> constr_with_bindings); }.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typeevar_flag := bool.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typeadvanced_flag := bool.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typemove_location := [ | MoveAfter (ident) | MoveBefore (ident) | MoveFirst | MoveLast ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typeinversion_kind := [ | SimpleInversion | FullInversion | FullInversionClear ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typet.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
red(c : clause) : unit := eval_in Red.red c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
red
hnf(c : clause) : unit := eval_in Red.hnf c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
hnf
simpl(flags : red_flags) (occs : (pattern * occurrences) option) (c : clause) := eval_in (Red.simpl flags occs) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
simpl
cbv(flags : red_flags) (c : clause) : unit := eval_in (Red.cbv flags) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
cbv
cbn(flags : red_flags) (c : clause) : unit := eval_in (Red.cbn flags) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
cbn
lazy(flags : red_flags) (c : clause) : unit := eval_in (Red.lazy flags) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
lazy
unfold(occs : (reference * occurrences) list) (c : clause) : unit := eval_in (Red.unfold occs) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
unfold
fold(cs : constr list) (c : clause) : unit := eval_in (Red.fold cs) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
fold
pattern(occs : (constr * occurrences) list) (c : clause) : unit := eval_in (Red.pattern occs) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
pattern
vm(ctx : (pattern * occurrences) option) (c : clause) : unit := eval_in (Red.vm ctx) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
vm
native(ctx : (pattern * occurrences) option) (c : clause) : unit := eval_in (Red.native ctx) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
native
eval_red(c : constr) : constr := eval Red.red c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_red
eval_hnf(c : constr) : constr := eval Red.hnf c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_hnf
eval_simpl(flags : red_flags) (occs : (pattern * occurrences) option) (c : constr) := eval (Red.simpl flags occs) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_simpl
eval_cbv(flags : red_flags) (c : constr) : constr := eval (Red.cbv flags) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_cbv
eval_cbn(flags : red_flags) (c : constr) : constr := eval (Red.cbn flags) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_cbn
eval_lazy(flags : red_flags) (c : constr) : constr := eval (Red.lazy flags) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_lazy
eval_unfold(occs : (reference * occurrences) list) (c : constr) : constr := eval (Red.unfold occs) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_unfold
eval_fold(cs : constr list) (c : constr) : constr := eval (Red.fold cs) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_fold
eval_pattern(occs : (constr * occurrences) list) (c : constr) : constr := eval (Red.pattern occs) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_pattern
eval_vm(ctx : (pattern * occurrences) option) (c : constr) : constr := eval (Red.vm ctx) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_vm
eval_native(ctx : (pattern * occurrences) option) (c : constr) : constr := eval (Red.native ctx) c.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
eval_native
Typedebug := [ Off | Info | Debug ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typestrategy := [ BFS | DFS ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Std.v
Type
Typet := string.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/String.v
Type
is_emptys := match s with "" => true | _ => false end.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/String.v
is_empty
Typet.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/TransparentState.v
Type
Typet := uint63.
Ltac2
Ltac2
[ "Require Import Ltac2.Init" ]
Ltac2/Uint63.v
Type
Typeconv_flag := [ | CONV | CUMUL ].
Ltac2
Ltac2
[ "Require Import Ltac2.Init", "Require Ltac2.TransparentState" ]
Ltac2/Unification.v
Type
conv_current: constr -> constr -> bool := fun c1 c2 => conv CONV (TransparentState.current ()) c1 c2.
Ltac2
Ltac2
[ "Require Import Ltac2.Init", "Require Ltac2.TransparentState" ]
Ltac2/Unification.v
conv_current
conv_full: constr -> constr -> bool := fun c1 c2 => conv CONV TransparentState.full c1 c2.
Ltac2
Ltac2
[ "Require Import Ltac2.Init", "Require Ltac2.TransparentState" ]
Ltac2/Unification.v
conv_full
unify_with_full_ts: constr -> constr -> unit := fun c1 c2 => unify TransparentState.full c1 c2.
Ltac2
Ltac2
[ "Require Import Ltac2.Init", "Require Ltac2.TransparentState" ]
Ltac2/Unification.v
unify_with_full_ts
unify_with_current_ts: constr -> constr -> unit := fun c1 c2 => unify (TransparentState.current ()) c1 c2.
Ltac2
Ltac2
[ "Require Import Ltac2.Init", "Require Ltac2.TransparentState" ]
Ltac2/Unification.v
unify_with_current_ts
get_out_of_bounds: forall A (t:array A) i, in_bounds i t = false -> t.[i] = default t.
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
get_out_of_bounds
get_set_same: forall A t i (a:A), in_bounds i t = true -> t.[i<-a].[i] = a.
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
get_set_same
get_set_other: forall A t i j (a:A), i <> j -> t.[i<-a].[j] = t.[j].
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
get_set_other
default_set: forall A t i (a:A), default t.[i<-a] = default t.
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
default_set
get_make: forall A (a:A) size i, (make size a).[i] = a.
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
get_make
leb_length: forall A (t:array A), PrimInt63.leb (length t) max_length = true.
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
leb_length
length_make: forall A size (a:A), length (make size a) = if PrimInt63.leb size max_length then size else max_length.
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
length_make
length_set: forall A t i (a:A), length t.[i<-a] = length t.
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
length_set
get_copy: forall A (t:array A) i, (copy t).[i] = t.[i].
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
get_copy
length_copy: forall A (t:array A), length (copy t) = length t.
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
length_copy
array_ext: forall A (t1 t2:array A), length t1 = length t2 -> (forall i, in_bounds i t1 = true -> t1.[i] = t2.[i]) -> default t1 = default t2 -> t1 = t2.
Axiom
Corelib
[ "From Corelib Require Import PrimArray" ]
Corelib/Array/ArrayAxioms.v
array_ext
doublex := match x with | 0 => 0 | Zpos p => Zpos p~0 | Zneg p => Zneg p~0 end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
double
succ_doublex := match x with | 0 => 1 | Zpos p => Zpos p~1 | Zneg p => Zneg (Pos.pred_double p) end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
succ_double
pred_doublex := match x with | 0 => Zneg 1 | Zneg p => Zneg p~1 | Zpos p => Zpos (Pos.pred_double p) end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
pred_double
pos_sub(x y:positive) {struct y} : Z := match x, y with | p~1, q~1 => double (pos_sub p q) | p~1, q~0 => succ_double (pos_sub p q) | p~1, xH => Zpos p~0 | p~0, q~1 => pred_double (pos_sub p q) | p~0, q~0 => double (pos_sub p q) | p~0, xH => Zpos (Pos.pred_double p) | xH, q~1 => Zneg q~0 ...
Fixpoint
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
pos_sub
addx y := match x, y with | 0, y => y | x, 0 => x | Zpos x', Zpos y' => Zpos (Pos.add x' y') | Zpos x', Zneg y' => pos_sub x' y' | Zneg x', Zpos y' => pos_sub y' x' | Zneg x', Zneg y' => Zneg (Pos.add x' y') end. Infix "+" := add : Z_scope.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
add
oppx := match x with | 0 => 0 | Zpos x => Zneg x | Zneg x => Zpos x end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
opp
subm n := m + -n. Infix "-" := sub : Z_scope.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
sub
mulx y := match x, y with | 0, _ => 0 | _, 0 => 0 | Zpos x', Zpos y' => Zpos (Pos.mul x' y') | Zpos x', Zneg y' => Zneg (Pos.mul x' y') | Zneg x', Zpos y' => Zneg (Pos.mul x' y') | Zneg x', Zneg y' => Zpos (Pos.mul x' y') end. Infix "*" := mul : Z_scope.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
mul
pow_pos(z:Z) := Pos.iter (mul z) 1.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
pow_pos
powx y := match y with | Zpos p => pow_pos x p | 0 => 1 | Zneg _ => 0 end. Infix "^" := pow : Z_scope.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
pow
comparex y := match x, y with | 0, 0 => Eq | 0, Zpos y' => Lt | 0, Zneg y' => Gt | Zpos x', 0 => Gt | Zpos x', Zpos y' => Pos.compare x' y' | Zpos x', Zneg y' => Gt | Zneg x', 0 => Lt | Zneg x', Zpos y' => Lt | Zneg x', Zneg y' => CompOpp (Pos.compare x' y') end. Infix "?=" := c...
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
compare
ltx y := (x ?= y) = Lt.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
lt
gtx y := (x ?= y) = Gt.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
gt
lex y := (x ?= y) <> Gt.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
le
gex y := (x ?= y) <> Lt. Infix "<=" := le : Z_scope. Infix "<" := lt : Z_scope. Infix ">=" := ge : Z_scope. Infix ">" := gt : Z_scope.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
ge
lebx y := match compare x y with | Gt => false | _ => true end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
leb
ltbx y := match compare x y with | Lt => true | _ => false end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
ltb
eqbx y := match x, y with | 0, 0 => true | Zpos p, Zpos q => Pos.eqb p q | Zneg p, Zneg q => Pos.eqb p q | _, _ => false end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
eqb
maxn m := match compare n m with | Eq | Gt => n | Lt => m end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
max
minn m := match compare n m with | Eq | Lt => n | Gt => m end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
min
to_nat(z:Z) : nat := match z with | Zpos p => Pos.to_nat p | _ => O end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
to_nat
of_nat(n:nat) : Z := match n with | O => 0 | S n => Zpos (Pos.of_succ_nat n) end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
of_nat
of_N(n:N) : Z := match n with | N0 => 0 | Npos p => Zpos p end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
of_N
to_pos(z:Z) : positive := match z with | Zpos p => p | _ => 1%positive end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
to_pos
pos_div_eucl(a:positive) (b:Z) : Z * Z := match a with | xH => if leb 2 b then (0, 1) else (1, 0) | xO a' => let (q, r) := pos_div_eucl a' b in let r' := 2 * r in if ltb r' b then (2 * q, r') else (2 * q + 1, r' - b) | xI a' => let (q, r) := pos_div_eucl a' b in let r' := 2 *...
Fixpoint
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
pos_div_eucl
div_eucl(a b:Z) : Z * Z := match a, b with | 0, _ => (0, 0) | _, 0 => (0, a) | Zpos a', Zpos _ => pos_div_eucl a' b | Zneg a', Zpos _ => let (q, r) := pos_div_eucl a' b in match r with | 0 => (- q, 0) | _ => (- (q + 1), b - r) end | Zneg a', Zneg b' => ...
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
div_eucl
div(a b:Z) : Z := let (q, _) := div_eucl a b in q.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
div
modulo(a b:Z) : Z := let (_, r) := div_eucl a b in r.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
modulo
quotrem(a b:Z) : Z * Z := match a, b with | 0, _ => (0, 0) | _, 0 => (0, a) | Zpos a, Zpos b => let (q, r) := N.pos_div_eucl a (Npos b) in (of_N q, of_N r) | Zneg a, Zpos b => let (q, r) := N.pos_div_eucl a (Npos b) in (-of_N q, - of_N r) | Zpos a, Zneg b => let (q, r) := N.pos_div_euc...
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
quotrem
quota b := fst (quotrem a b).
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
quot
rema b := snd (quotrem a b). Infix "÷" := quot (at level 40, left associativity) : Z_scope.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
rem
evenz := match z with | 0 => true | Zpos (xO _) => true | Zneg (xO _) => true | _ => false end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
even
div2z := match z with | 0 => 0 | Zpos 1 => 0 | Zpos p => Zpos (Pos.div2 p) | Zneg p => Zneg (Pos.div2_up p) end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
div2
sqrtremn := match n with | 0 => (0, 0) | Zpos p => match Pos.sqrtrem p with | (s, Pos.IsPos r) => (Zpos s, Zpos r) | (s, _) => (Zpos s, 0) end | Zneg _ => (0,0) end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
sqrtrem
shiftla n := match n with | 0 => a | Zpos p => Pos.iter (mul 2) a p | Zneg p => Pos.iter div2 a p end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
shiftl
shiftra n := shiftl a (-n).
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
shiftr
lora b := match a, b with | 0, _ => b | _, 0 => a | Zpos a, Zpos b => Zpos (Pos.lor a b) | Zneg a, Zpos b => Zneg (N.succ_pos (N.ldiff (Pos.pred_N a) (Npos b))) | Zpos a, Zneg b => Zneg (N.succ_pos (N.ldiff (Pos.pred_N b) (Npos a))) | Zneg a, Zneg b => Zneg (N.succ_pos (N.land (Pos.pred_N a) (Pos.pre...
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
lor
landa b := match a, b with | 0, _ => 0 | _, 0 => 0 | Zpos a, Zpos b => of_N (Pos.land a b) | Zneg a, Zpos b => of_N (N.ldiff (Npos b) (Pos.pred_N a)) | Zpos a, Zneg b => of_N (N.ldiff (Npos a) (Pos.pred_N b)) | Zneg a, Zneg b => Zneg (N.succ_pos (N.lor (Pos.pred_N a) (Pos.pred_N b))) end.
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
land
lxora b := match a, b with | 0, _ => b | _, 0 => a | Zpos a, Zpos b => of_N (Pos.lxor a b) | Zneg a, Zpos b => Zneg (N.succ_pos (N.lxor (Pos.pred_N a) (Npos b))) | Zpos a, Zneg b => Zneg (N.succ_pos (N.lxor (Npos a) (Pos.pred_N b))) | Zneg a, Zneg b => of_N (N.lxor (Pos.pred_N a) (Pos.pred_N b)) end...
Definition
Corelib
[ "From Corelib Require Import BinNums PosDef NatDef" ]
Corelib/BinNums/IntDef.v
lxor
succ_doublex := match x with | N0 => Npos 1 | Npos p => Npos p~1 end.
Definition
Corelib
[ "From Corelib Require Export BinNums PosDef" ]
Corelib/BinNums/NatDef.v
succ_double