/usr/share/maude/prelude.maude is in maude 2.7-2.
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This file is part of the Maude 2 interpreter.
Copyright 1997-2014 SRI International, Menlo Park, CA 94025, USA.
This program is free software; you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation; either version 2 of the License, or
(at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program; if not, write to the Free Software
Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307, USA.
)
***
*** Maude interpreter standard prelude.
*** Version 2.7.
***
*** Some of the overall structure is taken from the OBJ3
*** interpreter standard prelude.
***
set include BOOL off .
fmod TRUTH-VALUE is
sort Bool .
op true : -> Bool [ctor special (id-hook SystemTrue)] .
op false : -> Bool [ctor special (id-hook SystemFalse)] .
endfm
fmod BOOL-OPS is
protecting TRUTH-VALUE .
op _and_ : Bool Bool -> Bool [assoc comm prec 55] .
op _or_ : Bool Bool -> Bool [assoc comm prec 59] .
op _xor_ : Bool Bool -> Bool [assoc comm prec 57] .
op not_ : Bool -> Bool [prec 53] .
op _implies_ : Bool Bool -> Bool [gather (e E) prec 61] .
vars A B C : Bool .
eq true and A = A .
eq false and A = false .
eq A and A = A .
eq false xor A = A .
eq A xor A = false .
eq A and (B xor C) = A and B xor A and C .
eq not A = A xor true .
eq A or B = A and B xor A xor B .
eq A implies B = not(A xor A and B) .
endfm
fmod TRUTH is
protecting TRUTH-VALUE .
op if_then_else_fi : Bool Universal Universal -> Universal
[poly (2 3 0)
special (id-hook BranchSymbol
term-hook 1 (true)
term-hook 2 (false))] .
op _==_ : Universal Universal -> Bool
[prec 51 poly (1 2)
special (id-hook EqualitySymbol
term-hook equalTerm (true)
term-hook notEqualTerm (false))] .
op _=/=_ : Universal Universal -> Bool
[prec 51 poly (1 2)
special (id-hook EqualitySymbol
term-hook equalTerm (false)
term-hook notEqualTerm (true))] .
endfm
fmod BOOL is
protecting BOOL-OPS .
protecting TRUTH .
endfm
fmod EXT-BOOL is
protecting BOOL .
op _and-then_ : Bool Bool -> Bool [strat (1 0) gather (e E) prec 55] .
op _or-else_ : Bool Bool -> Bool [strat (1 0) gather (e E) prec 59] .
var B : [Bool] .
eq true and-then B = B .
eq false and-then B = false .
eq true or-else B = true .
eq false or-else B = B .
endfm
***
*** Builtin data types.
***
fmod NAT is
protecting BOOL .
sorts Zero NzNat Nat .
subsort Zero NzNat < Nat .
op 0 : -> Zero [ctor] .
op s_ : Nat -> NzNat
[ctor iter
special (id-hook SuccSymbol
term-hook zeroTerm (0))] .
op _+_ : NzNat Nat -> NzNat
[assoc comm prec 33
special (id-hook ACU_NumberOpSymbol (+)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _+_ : Nat Nat -> Nat [ditto] .
op sd : Nat Nat -> Nat
[comm
special (id-hook CUI_NumberOpSymbol (sd)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _*_ : NzNat NzNat -> NzNat
[assoc comm prec 31
special (id-hook ACU_NumberOpSymbol (*)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _*_ : Nat Nat -> Nat [ditto] .
op _quo_ : Nat NzNat -> Nat
[prec 31 gather (E e)
special (id-hook NumberOpSymbol (quo)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _rem_ : Nat NzNat -> Nat
[prec 31 gather (E e)
special (id-hook NumberOpSymbol (rem)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _^_ : Nat Nat -> Nat
[prec 29 gather (E e)
special (id-hook NumberOpSymbol (^)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _^_ : NzNat Nat -> NzNat [ditto] .
op modExp : Nat Nat NzNat ~> Nat
[special (id-hook NumberOpSymbol (modExp)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op gcd : NzNat Nat -> NzNat
[assoc comm
special (id-hook ACU_NumberOpSymbol (gcd)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op gcd : Nat Nat -> Nat [ditto] .
op lcm : NzNat NzNat -> NzNat
[assoc comm
special (id-hook ACU_NumberOpSymbol (lcm)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op lcm : Nat Nat -> Nat [ditto] .
op min : NzNat NzNat -> NzNat
[assoc comm
special (id-hook ACU_NumberOpSymbol (min)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op min : Nat Nat -> Nat [ditto] .
op max : NzNat Nat -> NzNat
[assoc comm
special (id-hook ACU_NumberOpSymbol (max)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op max : Nat Nat -> Nat [ditto] .
op _xor_ : Nat Nat -> Nat
[assoc comm prec 55
special (id-hook ACU_NumberOpSymbol (xor)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _&_ : Nat Nat -> Nat
[assoc comm prec 53
special (id-hook ACU_NumberOpSymbol (&)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _|_ : NzNat Nat -> NzNat
[assoc comm prec 57
special (id-hook ACU_NumberOpSymbol (|)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _|_ : Nat Nat -> Nat [ditto] .
op _>>_ : Nat Nat -> Nat
[prec 35 gather (E e)
special (id-hook NumberOpSymbol (>>)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _<<_ : Nat Nat -> Nat
[prec 35 gather (E e)
special (id-hook NumberOpSymbol (<<)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _<_ : Nat Nat -> Bool
[prec 37
special (id-hook NumberOpSymbol (<)
op-hook succSymbol (s_ : Nat ~> NzNat)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _<=_ : Nat Nat -> Bool
[prec 37
special (id-hook NumberOpSymbol (<=)
op-hook succSymbol (s_ : Nat ~> NzNat)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _>_ : Nat Nat -> Bool
[prec 37
special (id-hook NumberOpSymbol (>)
op-hook succSymbol (s_ : Nat ~> NzNat)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _>=_ : Nat Nat -> Bool
[prec 37
special (id-hook NumberOpSymbol (>=)
op-hook succSymbol (s_ : Nat ~> NzNat)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _divides_ : NzNat Nat -> Bool
[prec 51
special (id-hook NumberOpSymbol (divides)
op-hook succSymbol (s_ : Nat ~> NzNat)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
endfm
fmod INT is
protecting NAT .
sorts NzInt Int .
subsorts NzNat < NzInt Nat < Int .
op -_ : NzNat -> NzInt
[ctor
special (id-hook MinusSymbol
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op -_ : NzInt -> NzInt [ditto] .
op -_ : Int -> Int [ditto] .
op _+_ : Int Int -> Int
[assoc comm prec 33
special (id-hook ACU_NumberOpSymbol (+)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _-_ : Int Int -> Int
[prec 33 gather (E e)
special (id-hook NumberOpSymbol (-)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _*_ : NzInt NzInt -> NzInt
[assoc comm prec 31
special (id-hook ACU_NumberOpSymbol (*)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _*_ : Int Int -> Int [ditto] .
op _quo_ : Int NzInt -> Int
[prec 31 gather (E e)
special (id-hook NumberOpSymbol (quo)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _rem_ : Int NzInt -> Int
[prec 31 gather (E e)
special (id-hook NumberOpSymbol (rem)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _^_ : Int Nat -> Int
[prec 29 gather (E e)
special (id-hook NumberOpSymbol (^)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _^_ : NzInt Nat -> NzInt [ditto] .
op abs : NzInt -> NzNat
[special (id-hook NumberOpSymbol (abs)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op abs : Int -> Nat [ditto] .
op gcd : NzInt Int -> NzNat
[assoc comm
special (id-hook ACU_NumberOpSymbol (gcd)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op gcd : Int Int -> Nat [ditto] .
op lcm : NzInt NzInt -> NzNat
[assoc comm
special (id-hook ACU_NumberOpSymbol (lcm)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op lcm : Int Int -> Nat [ditto] .
op min : NzInt NzInt -> NzInt
[assoc comm
special (id-hook ACU_NumberOpSymbol (min)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op min : Int Int -> Int [ditto] .
op max : NzInt NzInt -> NzInt
[assoc comm
special (id-hook ACU_NumberOpSymbol (max)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op max : Int Int -> Int [ditto] .
op max : NzNat Int -> NzNat [ditto] .
op max : Nat Int -> Nat [ditto] .
op ~_ : Int -> Int
[special (id-hook NumberOpSymbol (~)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _xor_ : Int Int -> Int
[assoc comm prec 55
special (id-hook ACU_NumberOpSymbol (xor)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _&_ : Nat Int -> Nat
[assoc comm prec 53
special (id-hook ACU_NumberOpSymbol (&)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _&_ : Int Int -> Int [ditto] .
op _|_ : NzInt Int -> NzInt
[assoc comm prec 57
special (id-hook ACU_NumberOpSymbol (|)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _|_ : Int Int -> Int [ditto] .
op _>>_ : Int Nat -> Int
[prec 35 gather (E e)
special (id-hook NumberOpSymbol (>>)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _<<_ : Int Nat -> Int
[prec 35 gather (E e)
special (id-hook NumberOpSymbol (<<)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
op _<_ : Int Int -> Bool
[prec 37
special (id-hook NumberOpSymbol (<)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _<=_ : Int Int -> Bool
[prec 37
special (id-hook NumberOpSymbol (<=)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _>_ : Int Int -> Bool
[prec 37
special (id-hook NumberOpSymbol (>)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _>=_ : Int Int -> Bool
[prec 37
special (id-hook NumberOpSymbol (>=)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _divides_ : NzInt Int -> Bool
[prec 51
special (id-hook NumberOpSymbol (divides)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
endfm
fmod RAT is
protecting INT .
sorts PosRat NzRat Rat .
subsorts NzInt < NzRat Int < Rat .
subsorts NzNat < PosRat < NzRat .
op _/_ : NzInt NzNat -> NzRat
[ctor prec 31 gather (E e)
special (id-hook DivisionSymbol
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int))] .
var I J : NzInt .
var N M : NzNat .
var K : Int .
var Z : Nat .
var Q : NzRat .
var R : Rat .
op _/_ : NzNat NzNat -> PosRat [ctor ditto] .
op _/_ : PosRat PosRat -> PosRat [ditto] .
op _/_ : NzRat NzRat -> NzRat [ditto] .
op _/_ : Rat NzRat -> Rat [ditto] .
eq 0 / Q = 0 .
eq I / - N = - I / N .
eq (I / N) / (J / M) = (I * M) / (J * N) .
eq (I / N) / J = I / (J * N) .
eq I / (J / M) = (I * M) / J .
op -_ : NzRat -> NzRat [ditto] .
op -_ : Rat -> Rat [ditto] .
eq - (I / N) = - I / N .
op _+_ : PosRat PosRat -> PosRat [ditto] .
op _+_ : PosRat Nat -> PosRat [ditto] .
op _+_ : Rat Rat -> Rat [ditto] .
eq I / N + J / M = (I * M + J * N) / (N * M) .
eq I / N + K = (I + K * N) / N .
op _-_ : Rat Rat -> Rat [ditto] .
eq I / N - J / M = (I * M - J * N) / (N * M) .
eq I / N - K = (I - K * N) / N .
eq K - J / M = (K * M - J ) / M .
op _*_ : PosRat PosRat -> PosRat [ditto] .
op _*_ : NzRat NzRat -> NzRat [ditto] .
op _*_ : Rat Rat -> Rat [ditto] .
eq Q * 0 = 0 .
eq (I / N) * (J / M) = (I * J) / (N * M).
eq (I / N) * K = (I * K) / N .
op _quo_ : PosRat PosRat -> Nat [ditto] .
op _quo_ : Rat NzRat -> Int [ditto] .
eq (I / N) quo Q = I quo (N * Q) .
eq K quo (J / M) = (K * M) quo J .
op _rem_ : Rat NzRat -> Rat [ditto] .
eq (I / N) rem (J / M) = ((I * M) rem (J * N)) / (N * M) .
eq K rem (J / M) = ((K * M) rem J) / M .
eq (I / N) rem J = (I rem (J * N)) / N .
op _^_ : PosRat Nat -> PosRat [ditto] .
op _^_ : NzRat Nat -> NzRat [ditto] .
op _^_ : Rat Nat -> Rat [ditto] .
eq (I / N) ^ Z = (I ^ Z) / (N ^ Z) .
op abs : NzRat -> PosRat [ditto] .
op abs : Rat -> Rat [ditto] .
eq abs(I / N) = abs(I) / N .
op gcd : NzRat Rat -> PosRat [ditto] .
op gcd : Rat Rat -> Rat [ditto] .
eq gcd(I / N, R) = gcd(I, N * R) / N .
op lcm : NzRat NzRat -> PosRat [ditto] .
op lcm : Rat Rat -> Rat [ditto] .
eq lcm(I / N, R) = lcm(I, N * R) / N .
op min : PosRat PosRat -> PosRat [ditto] .
op min : NzRat NzRat -> NzRat [ditto] .
op min : Rat Rat -> Rat [ditto] .
eq min(I / N, R) = min(I, N * R) / N .
op max : PosRat Rat -> PosRat [ditto] .
op max : NzRat NzRat -> NzRat [ditto] .
op max : Rat Rat -> Rat [ditto] .
eq max(I / N, R) = max(I, N * R) / N .
op _<_ : Rat Rat -> Bool [ditto] .
eq (I / N) < (J / M) = (I * M) < (J * N) .
eq (I / N) < K = I < (K * N) .
eq K < (J / M) = (K * M) < J .
op _<=_ : Rat Rat -> Bool [ditto] .
eq (I / N) <= (J / M) = (I * M) <= (J * N) .
eq (I / N) <= K = I <= (K * N) .
eq K <= (J / M) = (K * M) <= J .
op _>_ : Rat Rat -> Bool [ditto] .
eq (I / N) > (J / M) = (I * M) > (J * N) .
eq (I / N) > K = I > (K * N) .
eq K > (J / M) = (K * M) > J .
op _>=_ : Rat Rat -> Bool [ditto] .
eq (I / N) >= (J / M) = (I * M) >= (J * N) .
eq (I / N) >= K = I >= (K * N) .
eq K >= (J / M) = (K * M) >= J .
op _divides_ : NzRat Rat -> Bool [ditto] .
eq (I / N) divides K = I divides N * K .
eq Q divides (J / M) = Q * M divides J .
op trunc : PosRat -> Nat .
op trunc : Rat -> Int .
eq trunc(K) = K .
eq trunc(I / N) = I quo N .
op frac : Rat -> Rat .
eq frac(K) = 0 .
eq frac(I / N) = (I rem N) / N .
op floor : PosRat -> Nat .
op floor : Rat -> Int .
op ceiling : PosRat -> NzNat .
op ceiling : Rat -> Int .
eq floor(K) = K .
eq ceiling(K) = K .
eq floor(N / M) = N quo M .
eq ceiling(N / M) = ((N + M) - 1) quo M .
eq floor(- N / M) = - ceiling(N / M) .
eq ceiling(- N / M) = - floor(N / M) .
endfm
fmod FLOAT is
protecting BOOL .
sorts FiniteFloat Float .
subsort FiniteFloat < Float .
*** pseudo constructor for the set of double precision floats
op <Floats> : -> FiniteFloat [special (id-hook FloatSymbol)] .
op <Floats> : -> Float [ditto] .
op -_ : Float -> Float
[prec 15
special (id-hook FloatOpSymbol (-)
op-hook floatSymbol (<Floats> : ~> Float))] .
op -_ : FiniteFloat -> FiniteFloat [ditto] .
op _+_ : Float Float -> Float
[prec 33 gather (E e)
special (id-hook FloatOpSymbol (+)
op-hook floatSymbol (<Floats> : ~> Float))] .
op _-_ : Float Float -> Float
[prec 33 gather (E e)
special (id-hook FloatOpSymbol (-)
op-hook floatSymbol (<Floats> : ~> Float))] .
op _*_ : Float Float -> Float
[prec 31 gather (E e)
special (id-hook FloatOpSymbol (*)
op-hook floatSymbol (<Floats> : ~> Float))] .
op _/_ : Float Float ~> Float
[prec 31 gather (E e)
special (id-hook FloatOpSymbol (/)
op-hook floatSymbol (<Floats> : ~> Float))] .
op _rem_ : Float Float ~> Float
[prec 31 gather (E e)
special (id-hook FloatOpSymbol (rem)
op-hook floatSymbol (<Floats> : ~> Float))] .
op _^_ : Float Float ~> Float
[prec 29 gather (E e)
special (id-hook FloatOpSymbol (^)
op-hook floatSymbol (<Floats> : ~> Float))] .
op abs : Float -> Float
[special (id-hook FloatOpSymbol (abs)
op-hook floatSymbol (<Floats> : ~> Float))] .
op abs : FiniteFloat -> FiniteFloat [ditto] .
op floor : Float -> Float
[special (id-hook FloatOpSymbol (floor)
op-hook floatSymbol (<Floats> : ~> Float))] .
op ceiling : Float -> Float
[special (id-hook FloatOpSymbol (ceiling)
op-hook floatSymbol (<Floats> : ~> Float))] .
op min : Float Float -> Float
[special (id-hook FloatOpSymbol (min)
op-hook floatSymbol (<Floats> : ~> Float))] .
op max : Float Float -> Float
[special (id-hook FloatOpSymbol (max)
op-hook floatSymbol (<Floats> : ~> Float))] .
op sqrt : Float ~> Float
[special (id-hook FloatOpSymbol (sqrt)
op-hook floatSymbol (<Floats> : ~> Float))] .
op exp : Float -> Float
[special (id-hook FloatOpSymbol (exp)
op-hook floatSymbol (<Floats> : ~> Float))] .
op log : Float ~> Float
[special (id-hook FloatOpSymbol (log)
op-hook floatSymbol (<Floats> : ~> Float))] .
op sin : Float -> Float
[special (id-hook FloatOpSymbol (sin)
op-hook floatSymbol (<Floats> : ~> Float))] .
op cos : Float -> Float
[special (id-hook FloatOpSymbol (cos)
op-hook floatSymbol (<Floats> : ~> Float))] .
op tan : Float -> Float
[special (id-hook FloatOpSymbol (tan)
op-hook floatSymbol (<Floats> : ~> Float))] .
op asin : Float ~> Float
[special (id-hook FloatOpSymbol (asin)
op-hook floatSymbol (<Floats> : ~> Float))] .
op acos : Float ~> Float
[special (id-hook FloatOpSymbol (acos)
op-hook floatSymbol (<Floats> : ~> Float))] .
op atan : Float -> Float
[special (id-hook FloatOpSymbol (atan)
op-hook floatSymbol (<Floats> : ~> Float))] .
op atan : Float Float -> Float
[special (id-hook FloatOpSymbol (atan)
op-hook floatSymbol (<Floats> : ~> Float))] .
op _<_ : Float Float -> Bool
[prec 51
special (id-hook FloatOpSymbol (<)
op-hook floatSymbol (<Floats> : ~> Float)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _<=_ : Float Float -> Bool
[prec 51
special (id-hook FloatOpSymbol (<=)
op-hook floatSymbol (<Floats> : ~> Float)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _>_ : Float Float -> Bool
[prec 51
special (id-hook FloatOpSymbol (>)
op-hook floatSymbol (<Floats> : ~> Float)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _>=_ : Float Float -> Bool
[prec 51
special (id-hook FloatOpSymbol (>=)
op-hook floatSymbol (<Floats> : ~> Float)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op pi : -> FiniteFloat .
eq pi = 3.1415926535897931 .
op _=[_]_ : Float FiniteFloat Float -> Bool [prec 51 format (d d d d d s d)] .
var X Y : Float .
var Z : FiniteFloat .
eq X =[Z] Y = abs(X - Y) < Z .
endfm
fmod STRING is
protecting NAT .
sorts String Char FindResult .
subsort Char < String .
subsort Nat < FindResult .
*** pseudo constructor for the infinite set of strings
op <Strings> : -> Char [special (id-hook StringSymbol)] .
op <Strings> : -> String [ditto] .
op notFound : -> FindResult [ctor] .
op ascii : Char -> Nat
[special (id-hook StringOpSymbol (ascii)
op-hook stringSymbol (<Strings> : ~> Char)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op char : Nat ~> Char
[special (id-hook StringOpSymbol (char)
op-hook stringSymbol (<Strings> : ~> Char)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op _+_ : String String -> String
[prec 33 gather (E e)
special (id-hook StringOpSymbol (+)
op-hook stringSymbol (<Strings> : ~> String))] .
op length : String -> Nat
[special (id-hook StringOpSymbol (length)
op-hook stringSymbol (<Strings> : ~> String)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op substr : String Nat Nat -> String
[special (id-hook StringOpSymbol (substr)
op-hook stringSymbol (<Strings> : ~> String)
op-hook succSymbol (s_ : Nat ~> NzNat))] .
op find : String String Nat -> FindResult
[special (id-hook StringOpSymbol (find)
op-hook stringSymbol (<Strings> : ~> String)
op-hook succSymbol (s_ : Nat ~> NzNat)
term-hook notFoundTerm (notFound))] .
op rfind : String String Nat -> FindResult
[special (id-hook StringOpSymbol (rfind)
op-hook stringSymbol (<Strings> : ~> String)
op-hook succSymbol (s_ : Nat ~> NzNat)
term-hook notFoundTerm (notFound))] .
op _<_ : String String -> Bool
[prec 37
special (id-hook StringOpSymbol (<)
op-hook stringSymbol (<Strings> : ~> String)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _<=_ : String String -> Bool
[prec 37
special (id-hook StringOpSymbol (<=)
op-hook stringSymbol (<Strings> : ~> String)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _>_ : String String -> Bool
[prec 37
special (id-hook StringOpSymbol (>)
op-hook stringSymbol (<Strings> : ~> String)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op _>=_ : String String -> Bool
[prec 37
special (id-hook StringOpSymbol (>=)
op-hook stringSymbol (<Strings> : ~> String)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
endfm
fmod CONVERSION is
protecting RAT .
protecting FLOAT .
protecting STRING .
sort DecFloat .
op <_,_,_> : Int String Int -> DecFloat [ctor] .
op float : Rat -> Float
[special (id-hook FloatOpSymbol (float)
op-hook floatSymbol (<Floats> : ~> Float)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
op-hook divisionSymbol (_/_ : NzInt NzNat ~> NzRat))] .
op rat : FiniteFloat -> Rat
[special (id-hook FloatOpSymbol (rat)
op-hook floatSymbol (<Floats> : ~> Float)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
op-hook divisionSymbol (_/_ : NzInt NzNat ~> NzRat))] .
op string : Rat NzNat ~> String
[special (id-hook StringOpSymbol (string)
op-hook stringSymbol (<Strings> : ~> String)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
op-hook divisionSymbol (_/_ : NzInt NzNat ~> NzRat))] .
op rat : String NzNat ~> Rat
[special (id-hook StringOpSymbol (rat)
op-hook stringSymbol (<Strings> : ~> String)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
op-hook divisionSymbol (_/_ : NzInt NzNat ~> NzRat))] .
op string : Float -> String
[special (id-hook StringOpSymbol (string)
op-hook stringSymbol (<Strings> : ~> String)
op-hook floatSymbol (<Floats> : ~> Float))] .
op float : String ~> Float
[special (id-hook StringOpSymbol (float)
op-hook stringSymbol (<Strings> : ~> String)
op-hook floatSymbol (<Floats> : ~> Float))] .
op decFloat : Float Nat -> DecFloat
[special (id-hook StringOpSymbol (decFloat)
op-hook stringSymbol (<Strings> : ~> String)
op-hook floatSymbol (<Floats> : ~> Float)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook minusSymbol (-_ : NzNat ~> Int)
op-hook decFloatSymbol
(<_,_,_> : Int String Int ~> DecFloat))] .
endfm
fmod RANDOM is
protecting NAT .
op random : Nat -> Nat
[special (id-hook RandomOpSymbol
op-hook succSymbol (s_ : Nat ~> NzNat))] .
endfm
fmod QID is
protecting STRING .
sort Qid .
*** pseudo constructor for the infinite set of quoted identifiers
op <Qids> : -> Qid [special (id-hook QuotedIdentifierSymbol)] .
op string : Qid -> String
[special (id-hook QuotedIdentifierOpSymbol (string)
op-hook quotedIdentifierSymbol (<Qids> : ~> Qid)
op-hook stringSymbol (<Strings> : ~> String))] .
op qid : String ~> Qid
[special (id-hook QuotedIdentifierOpSymbol (qid)
op-hook quotedIdentifierSymbol (<Qids> : ~> Qid)
op-hook stringSymbol (<Strings> : ~> String))] .
endfm
***
*** Standard theories and views.
***
fth TRIV is
sort Elt .
endfth
view TRIV from TRIV to TRIV is endv
view Bool from TRIV to BOOL is
sort Elt to Bool .
endv
view Nat from TRIV to NAT is
sort Elt to Nat .
endv
view Int from TRIV to INT is
sort Elt to Int .
endv
view Rat from TRIV to RAT is
sort Elt to Rat .
endv
view Float from TRIV to FLOAT is
sort Elt to Float .
endv
view String from TRIV to STRING is
sort Elt to String .
endv
view Qid from TRIV to QID is
sort Elt to Qid .
endv
fth STRICT-WEAK-ORDER is
protecting BOOL .
including TRIV .
op _<_ : Elt Elt -> Bool .
vars X Y Z : Elt .
ceq X < Z = true if X < Y /\ Y < Z [nonexec label transitive] .
eq X < X = false [nonexec label irreflexive] .
ceq X < Y or Y < X or Y < Z or Z < Y = true if X < Z or Z < X
[nonexec label incomparability-transitive] .
endfth
view STRICT-WEAK-ORDER from TRIV to STRICT-WEAK-ORDER is endv
fth STRICT-TOTAL-ORDER is
inc STRICT-WEAK-ORDER .
vars X Y : Elt .
ceq X = Y if X < Y = false /\ Y < X = false [nonexec label total] .
endfth
view STRICT-TOTAL-ORDER from STRICT-WEAK-ORDER to STRICT-TOTAL-ORDER is endv
view Nat< from STRICT-TOTAL-ORDER to NAT is
sort Elt to Nat .
endv
view Int< from STRICT-TOTAL-ORDER to INT is
sort Elt to Int .
endv
view Rat< from STRICT-TOTAL-ORDER to RAT is
sort Elt to Rat .
endv
view Float< from STRICT-TOTAL-ORDER to FLOAT is
sort Elt to Float .
endv
view String< from STRICT-TOTAL-ORDER to STRING is
sort Elt to String .
endv
fth TOTAL-PREORDER is
protecting BOOL .
including TRIV .
op _<=_ : Elt Elt -> Bool .
vars X Y Z : Elt .
eq X <= X = true [nonexec label reflexive] .
ceq X <= Z = true if X <= Y /\ Y <= Z [nonexec label transitive] .
eq X <= Y or Y <= X = true [nonexec label total] .
endfth
view TOTAL-PREORDER from TRIV to TOTAL-PREORDER is endv
fth TOTAL-ORDER is
inc TOTAL-PREORDER .
vars X Y : Elt .
ceq X = Y if X <= Y /\ Y <= X [nonexec label antisymmetric] .
endfth
view TOTAL-ORDER from TOTAL-PREORDER to TOTAL-ORDER is endv
view Nat<= from TOTAL-ORDER to NAT is
sort Elt to Nat .
endv
view Int<= from TOTAL-ORDER to INT is
sort Elt to Int .
endv
view Rat<= from TOTAL-ORDER to RAT is
sort Elt to Rat .
endv
view Float<= from TOTAL-ORDER to FLOAT is
sort Elt to Float .
endv
view String<= from TOTAL-ORDER to STRING is
sort Elt to String .
endv
fth DEFAULT is
including TRIV .
op 0 : -> Elt .
endfth
view DEFAULT from TRIV to DEFAULT is endv
view Nat0 from DEFAULT to NAT is
sort Elt to Nat .
endv
view Int0 from DEFAULT to INT is
sort Elt to Int .
endv
view Rat0 from DEFAULT to RAT is
sort Elt to Rat .
endv
view Float0 from DEFAULT to FLOAT is
sort Elt to Float .
op 0 to term 0.0 .
endv
view String0 from DEFAULT to STRING is
sort Elt to String .
op 0 to term "" .
endv
view Qid0 from DEFAULT to QID is
sort Elt to Qid .
op 0 to term ' .
endv
***
*** Container data types defined in Maude.
***
fmod LIST{X :: TRIV} is
protecting NAT .
sorts NeList{X} List{X} .
subsort X$Elt < NeList{X} < List{X} .
op nil : -> List{X} [ctor] .
op __ : List{X} List{X} -> List{X} [ctor assoc id: nil prec 25] .
op __ : NeList{X} List{X} -> NeList{X} [ctor ditto] .
op __ : List{X} NeList{X} -> NeList{X} [ctor ditto] .
var E E' : X$Elt .
vars A L : List{X} .
var C : Nat .
op append : List{X} List{X} -> List{X} .
op append : NeList{X} List{X} -> NeList{X} .
op append : List{X} NeList{X} -> NeList{X} .
eq append(A, L) = A L .
op head : NeList{X} -> X$Elt .
eq head(E L) = E .
op tail : NeList{X} -> List{X} .
eq tail(E L) = L .
op last : NeList{X} -> X$Elt .
eq last(L E) = E .
op front : NeList{X} -> List{X} .
eq front(L E) = L .
op occurs : X$Elt List{X} -> Bool .
eq occurs(E, nil) = false .
eq occurs(E, E' L) = if E == E' then true else occurs(E, L) fi .
op reverse : List{X} -> List{X} .
op reverse : NeList{X} -> NeList{X} .
eq reverse(L) = $reverse(L, nil) .
op $reverse : List{X} List{X} -> List{X} .
eq $reverse(nil, A) = A .
eq $reverse(E L, A) = $reverse(L, E A).
op size : List{X} -> Nat .
op size : NeList{X} -> NzNat .
eq size(L) = $size(L, 0) .
op $size : List{X} Nat -> Nat .
eq $size(nil, C) = C .
eq $size(E L, C) = $size(L, C + 1) .
endfm
fmod WEAKLY-SORTABLE-LIST{X :: STRICT-WEAK-ORDER} is
protecting LIST{STRICT-WEAK-ORDER}{X} *
(sort NeList{STRICT-WEAK-ORDER}{X} to NeList{X},
sort List{STRICT-WEAK-ORDER}{X} to List{X}) .
sort $Split{X} .
vars E E' : X$Elt .
vars A A' L L' : List{X} .
var N : NeList{X} .
op sort : List{X} -> List{X} .
op sort : NeList{X} -> NeList{X} .
eq sort(nil) = nil .
eq sort(E) = E .
eq sort(E N) = $sort($split(E N, nil, nil)) .
op $sort : $Split{X} -> List{X} .
eq $sort($split(nil, L, L')) = $merge(sort(L), sort(L'), nil) .
op $split : List{X} List{X} List{X} -> $Split{X} [ctor] .
eq $split(E, A, A') = $split(nil, A E, A') .
eq $split(E L E', A, A') = $split(L, A E, E' A') .
op merge : List{X} List{X} -> List{X} .
op merge : NeList{X} List{X} -> NeList{X} .
op merge : List{X} NeList{X} -> NeList{X} .
eq merge(L, L') = $merge(L, L', nil) .
op $merge : List{X} List{X} List{X} -> List{X} .
eq $merge(L, nil, A) = A L .
eq $merge(nil, L, A) = A L .
eq $merge(E L, E' L', A) =
if E' < E then $merge(E L, L', A E')
else $merge(L, E' L', A E)
fi .
endfm
fmod SORTABLE-LIST{X :: STRICT-TOTAL-ORDER} is
protecting WEAKLY-SORTABLE-LIST{STRICT-TOTAL-ORDER}{X} *
(sort NeList{STRICT-TOTAL-ORDER}{X} to NeList{X},
sort List{STRICT-TOTAL-ORDER}{X} to List{X}) .
endfm
fmod WEAKLY-SORTABLE-LIST'{X :: TOTAL-PREORDER} is
protecting LIST{TOTAL-PREORDER}{X} *
(sort NeList{TOTAL-PREORDER}{X} to NeList{X},
sort List{TOTAL-PREORDER}{X} to List{X}) .
sort $Split{X} .
vars E E' : X$Elt .
vars A A' L L' : List{X} .
var N : NeList{X} .
op sort : List{X} -> List{X} .
op sort : NeList{X} -> NeList{X} .
eq sort(nil) = nil .
eq sort(E) = E .
eq sort(E N) = $sort($split(E N, nil, nil)) .
op $sort : $Split{X} -> List{X} .
eq $sort($split(nil, L, L')) = $merge(sort(L), sort(L'), nil) .
op $split : List{X} List{X} List{X} -> $Split{X} [ctor] .
eq $split(E, A, A') = $split(nil, A E, A') .
eq $split(E L E', A, A') = $split(L, A E, E' A') .
op merge : List{X} List{X} -> List{X} .
op merge : NeList{X} List{X} -> NeList{X} .
op merge : List{X} NeList{X} -> NeList{X} .
eq merge(L, L') = $merge(L, L', nil) .
op $merge : List{X} List{X} List{X} -> List{X} .
eq $merge(L, nil, A) = A L .
eq $merge(nil, L, A) = A L .
eq $merge(E L, E' L', A) =
if E <= E' then $merge(L, E' L', A E)
else $merge(E L, L', A E')
fi .
endfm
fmod SORTABLE-LIST'{X :: TOTAL-ORDER} is
protecting WEAKLY-SORTABLE-LIST'{TOTAL-ORDER}{X} *
(sort NeList{TOTAL-ORDER}{X} to NeList{X},
sort List{TOTAL-ORDER}{X} to List{X}) .
endfm
fmod SET{X :: TRIV} is
protecting EXT-BOOL .
protecting NAT .
sorts NeSet{X} Set{X} .
subsort X$Elt < NeSet{X} < Set{X} .
op empty : -> Set{X} [ctor] .
op _,_ : Set{X} Set{X} -> Set{X} [ctor assoc comm id: empty prec 121 format (d r os d)] .
op _,_ : NeSet{X} Set{X} -> NeSet{X} [ctor ditto] .
var E : X$Elt .
var N : NeSet{X} .
vars A S S' : Set{X} .
var C : Nat .
eq N, N = N .
op insert : X$Elt Set{X} -> Set{X} .
eq insert(E, S) = E, S .
op delete : X$Elt Set{X} -> Set{X} .
eq delete(E, (E, S)) = delete(E, S) .
eq delete(E, S) = S [owise] .
op _in_ : X$Elt Set{X} -> Bool .
eq E in (E, S) = true .
eq E in S = false [owise] .
op |_| : Set{X} -> Nat .
op |_| : NeSet{X} -> NzNat .
eq | S | = $card(S, 0) .
op $card : Set{X} Nat -> Nat .
eq $card(empty, C) = C .
eq $card((N, N, S), C) = $card((N, S), C) .
eq $card((E, S), C) = $card(S, C + 1) [owise] .
op union : Set{X} Set{X} -> Set{X} .
op union : NeSet{X} Set{X} -> NeSet{X} .
op union : Set{X} NeSet{X} -> NeSet{X} .
eq union(S, S') = S, S' .
op intersection : Set{X} Set{X} -> Set{X} .
eq intersection(S, empty) = empty .
eq intersection(S, N) = $intersect(S, N, empty) .
op $intersect : Set{X} Set{X} Set{X} -> Set{X} .
eq $intersect(empty, S', A) = A .
eq $intersect((E, S), S', A) = $intersect(S, S', if E in S' then E, A else A fi) .
op _\_ : Set{X} Set{X} -> Set{X} [gather (E e)].
eq S \ empty = S .
eq S \ N = $diff(S, N, empty) .
op $diff : Set{X} Set{X} Set{X} -> Set{X} .
eq $diff(empty, S', A) = A .
eq $diff((E, S), S', A) = $diff(S, S', if E in S' then A else E, A fi) .
op _subset_ : Set{X} Set{X} -> Bool .
eq empty subset S' = true .
eq (E, S) subset S' = E in S' and-then S subset S' .
op _psubset_ : Set{X} Set{X} -> Bool .
eq S psubset S' = S =/= S' and-then S subset S' .
endfm
fmod LIST-AND-SET{X :: TRIV} is
protecting LIST{X} .
protecting SET{X} .
var E : X$Elt .
vars A L : List{X} .
var S : Set{X} .
op makeSet : List{X} -> Set{X} .
op makeSet : NeList{X} -> NeSet{X} .
eq makeSet(L) = $makeSet(L, empty) .
op $makeSet : List{X} Set{X} -> Set{X} .
op $makeSet : NeList{X} Set{X} -> NeSet{X} .
op $makeSet : List{X} NeSet{X} -> NeSet{X} .
eq $makeSet(nil, S) = S .
eq $makeSet(E L, S) = $makeSet(L, (E, S)) .
op filter : List{X} Set{X} -> List{X} .
eq filter(L, S) = $filter(L, S, nil) .
op $filter : List{X} Set{X} List{X} -> List{X} .
eq $filter(nil, S, A) = A .
eq $filter(E L, S, A) = $filter(L, S, if E in S then A E else A fi) .
op filterOut : List{X} Set{X} -> List{X} .
eq filterOut(L, S) = $filterOut(L, S, nil) .
op $filterOut : List{X} Set{X} List{X} -> List{X} .
eq $filterOut(nil, S, A) = A .
eq $filterOut(E L, S, A) = $filterOut(L, S, if E in S then A else A E fi) .
endfm
fmod SORTABLE-LIST-AND-SET{X :: STRICT-TOTAL-ORDER} is
protecting SORTABLE-LIST{X} .
***
*** This double renaming is needed for correct sharing of a renamed
*** copy of LIST since Core Maude does not evaluate the composition
*** of renamings but applies them sequentially.
***
protecting LIST-AND-SET{STRICT-WEAK-ORDER}{STRICT-TOTAL-ORDER}{X} *
(sort NeList{STRICT-WEAK-ORDER}{STRICT-TOTAL-ORDER}{X} to NeList{STRICT-TOTAL-ORDER}{X},
sort List{STRICT-WEAK-ORDER}{STRICT-TOTAL-ORDER}{X} to List{STRICT-TOTAL-ORDER}{X}) *
(sort NeList{STRICT-TOTAL-ORDER}{X} to NeList{X},
sort List{STRICT-TOTAL-ORDER}{X} to List{X},
sort NeSet{STRICT-WEAK-ORDER}{STRICT-TOTAL-ORDER}{X} to NeSet{X},
sort Set{STRICT-WEAK-ORDER}{STRICT-TOTAL-ORDER}{X} to Set{X}) .
var E : X$Elt .
var L : List{X} .
var S : Set{X} .
op makeList : Set{X} -> List{X} .
op makeList : NeSet{X} -> NeList{X} .
eq makeList(S) = $makeList(S, nil) .
op $makeList : Set{X} List{X} -> List{X} .
op $makeList : NeSet{X} List{X} -> NeList{X} .
op $makeList : Set{X} NeList{X} -> NeList{X} .
eq $makeList(empty, L) = sort(L) .
eq $makeList((E, E, S), L) = $makeList((E, S), L) .
eq $makeList((E, S), L) = $makeList(S, E L) [owise] .
endfm
fmod SORTABLE-LIST-AND-SET'{X :: TOTAL-ORDER} is
protecting SORTABLE-LIST'{X} .
***
*** This double renaming is needed for the same reasons as above.
***
protecting LIST-AND-SET{TOTAL-PREORDER}{TOTAL-ORDER}{X} *
(sort NeList{TOTAL-PREORDER}{TOTAL-ORDER}{X} to NeList{TOTAL-ORDER}{X},
sort List{TOTAL-PREORDER}{TOTAL-ORDER}{X} to List{TOTAL-ORDER}{X}) *
(sort NeList{TOTAL-ORDER}{X} to NeList{X},
sort List{TOTAL-ORDER}{X} to List{X},
sort NeSet{TOTAL-PREORDER}{TOTAL-ORDER}{X} to NeSet{X},
sort Set{TOTAL-PREORDER}{TOTAL-ORDER}{X} to Set{X}) .
var E : X$Elt .
var L : List{X} .
var S : Set{X} .
op makeList : Set{X} -> List{X} .
op makeList : NeSet{X} -> NeList{X} .
eq makeList(S) = $makeList(S, nil) .
op $makeList : Set{X} List{X} -> List{X} .
op $makeList : NeSet{X} List{X} -> NeList{X} .
op $makeList : Set{X} NeList{X} -> NeList{X} .
eq $makeList(empty, L) = sort(L) .
eq $makeList((E, E, S), L) = $makeList((E, S), L) .
eq $makeList((E, S), L) = $makeList(S, E L) [owise] .
endfm
fmod LIST*{X :: TRIV} is
protecting NAT .
sorts Item{X} PreList{X} NeList{X} List{X} .
subsort X$Elt List{X} < Item{X} < PreList{X} .
subsort NeList{X} < List{X} .
op __ : PreList{X} PreList{X} -> PreList{X} [ctor assoc prec 25] .
op [_] : PreList{X} -> NeList{X} [ctor] .
op [] : -> List{X} [ctor] .
vars A P : PreList{X} .
var L : List{X} .
var E E' : Item{X} .
var C : Nat .
op append : List{X} List{X} -> List{X} .
op append : NeList{X} List{X} -> NeList{X} .
op append : List{X} NeList{X} -> NeList{X} .
eq append([], L) = L .
eq append(L, []) = L .
eq append([P], [A]) = [P A] .
op head : NeList{X} -> Item{X} .
eq head([E]) = E .
eq head([E P]) = E .
op tail : NeList{X} -> List{X} .
eq tail([E]) = [] .
eq tail([E P]) = [P] .
op last : NeList{X} -> Item{X} .
eq last([E]) = E .
eq last([P E]) = E .
op front : NeList{X} -> List{X} .
eq front([E]) = [] .
eq front([P E]) = [P] .
op occurs : Item{X} List{X} -> Bool .
eq occurs(E, []) = false .
eq occurs(E, [E']) = (E == E') .
eq occurs(E, [E' P]) = if E == E' then true else occurs(E, [P]) fi .
op reverse : List{X} -> List{X} .
op reverse : NeList{X} -> NeList{X} .
eq reverse([]) = [] .
eq reverse([E]) = [E] .
eq reverse([E P]) = [$reverse(P, E)] .
op $reverse : PreList{X} PreList{X} -> PreList{X} .
eq $reverse(E, A) = E A .
eq $reverse(E P, A) = $reverse(P, E A).
op size : List{X} -> Nat .
op size : NeList{X} -> NzNat .
eq size([]) = 0 .
eq size([P]) = $size(P, 0) .
op $size : PreList{X} Nat -> NzNat .
eq $size(E, C) = C + 1 .
eq $size(E P, C) = $size(P, C + 1) .
endfm
fmod SET*{X :: TRIV} is
protecting EXT-BOOL .
protecting NAT .
sorts Element{X} PreSet{X} NeSet{X} Set{X} .
subsort X$Elt Set{X} < Element{X} < PreSet{X} .
subsort NeSet{X} < Set{X} .
op _,_ : PreSet{X} PreSet{X} -> PreSet{X} [ctor assoc comm prec 121 format (d r os d)] .
op {_} : PreSet{X} -> NeSet{X} [ctor] .
op {} : -> Set{X} [ctor] .
vars P Q : PreSet{X} .
vars A S : Set{X} .
var E : Element{X} .
var N : NeSet{X} .
var C : Nat .
eq {P, P} = {P} .
eq {P, P, Q} = {P, Q} .
op insert : Element{X} Set{X} -> Set{X} .
eq insert(E, {}) = {E} .
eq insert(E, {P}) = {E, P} .
op delete : Element{X} Set{X} -> Set{X} .
eq delete(E, {E}) = {} .
eq delete(E, {E, P}) = delete(E, {P}) .
eq delete(E, S) = S [owise] .
op _in_ : Element{X} Set{X} -> Bool .
eq E in {E} = true .
eq E in {E, P} = true .
eq E in S = false [owise] .
op |_| : Set{X} -> Nat .
op |_| : NeSet{X} -> NzNat .
eq | {} | = 0 .
eq | {P} | = $card(P, 0) .
op $card : PreSet{X} Nat -> Nat .
eq $card(E, C) = C + 1 .
eq $card((N, N, P), C) = $card((N, P), C) .
eq $card((E, P), C) = $card(P, C + 1) [owise] .
op union : Set{X} Set{X} -> Set{X} .
op union : NeSet{X} Set{X} -> NeSet{X} .
op union : Set{X} NeSet{X} -> NeSet{X} .
eq union({}, S) = S .
eq union(S, {}) = S .
eq union({P}, {Q}) = {P, Q} .
op intersection : Set{X} Set{X} -> Set{X} .
eq intersection({}, S) = {} .
eq intersection(S, {}) = {} .
eq intersection({P}, N) = $intersect(P, N, {}) .
op $intersect : PreSet{X} Set{X} Set{X} -> Set{X} .
eq $intersect(E, S, A) = if E in S then insert(E, A) else A fi .
eq $intersect((E, P), S, A) = $intersect(P, S, $intersect(E, S, A)) .
op _\_ : Set{X} Set{X} -> Set{X} [gather (E e)] .
eq {} \ S = {} .
eq S \ {} = S .
eq {P} \ N = $diff(P, N, {}) .
op $diff : PreSet{X} Set{X} Set{X} -> Set{X} .
eq $diff(E, S, A) = if E in S then A else insert(E, A) fi .
eq $diff((E, P), S, A) = $diff(P, S, $diff(E, S, A)) .
op 2^_ : Set{X} -> Set{X} .
eq 2^{} = {{}} .
eq 2^{E} = {{}, {E}} .
eq 2^{E, P} = union(2^{P}, $augment(2^{P}, E, {})) .
op $augment : NeSet{X} Element{X} Set{X} -> Set{X} .
eq $augment({S}, E, A) = insert(insert(E, S), A) .
eq $augment({S, P}, E, A) = $augment({P}, E, $augment({S}, E, A)) .
op _subset_ : Set{X} Set{X} -> Bool .
eq {} subset S = true .
eq {E} subset S = E in S .
eq {E, P} subset S = E in S and-then {P} subset S .
op _psubset_ : Set{X} Set{X} -> Bool .
eq A psubset S = A =/= S and-then A subset S .
endfm
fmod MAP{X :: TRIV, Y :: TRIV} is
protecting BOOL .
sorts Entry{X,Y} Map{X,Y} .
subsort Entry{X,Y} < Map{X,Y} .
op _|->_ : X$Elt Y$Elt -> Entry{X,Y} [ctor] .
op empty : -> Map{X,Y} [ctor] .
op _,_ : Map{X,Y} Map{X,Y} -> Map{X,Y} [ctor assoc comm id: empty prec 121 format (d r os d)] .
op undefined : -> [Y$Elt] [ctor] .
var D : X$Elt .
vars R R' : Y$Elt .
var M : Map{X,Y} .
op insert : X$Elt Y$Elt Map{X,Y} -> Map{X,Y} .
eq insert(D, R, (M, D |-> R')) =
if $hasMapping(M, D) then insert(D, R, M)
else (M, D |-> R)
fi .
eq insert(D, R, M) = (M, D |-> R) [owise] .
op _[_] : Map{X,Y} X$Elt -> [Y$Elt] [prec 23] .
eq (M, D |-> R)[D] =
if $hasMapping(M, D) then undefined
else R
fi .
eq M[D] = undefined [owise] .
op $hasMapping : Map{X,Y} X$Elt -> Bool .
eq $hasMapping((M, D |-> R), D) = true .
eq $hasMapping(M, D) = false [owise] .
endfm
fmod ARRAY{X :: TRIV, Y :: DEFAULT} is
protecting BOOL .
sorts Entry{X,Y} Array{X,Y} .
subsort Entry{X,Y} < Array{X,Y} .
op _|->_ : X$Elt Y$Elt -> Entry{X,Y} [ctor] .
op empty : -> Array{X,Y} [ctor] .
op _;_ : Array{X,Y} Array{X,Y} -> Array{X,Y} [ctor assoc comm id: empty prec 71 format (d r os d)] .
var D : X$Elt .
vars R R' : Y$Elt .
var A : Array{X,Y} .
op insert : X$Elt Y$Elt Array{X,Y} -> Array{X,Y} .
eq insert(D, R, (A ; D |-> R')) =
if $hasMapping(A, D) then insert(D, R, A)
else if R == 0 then A else (A ; D |-> R) fi
fi .
eq insert(D, R, A) = if R == 0 then A else (A ; D |-> R) fi [owise] .
op _[_] : Array{X,Y} X$Elt -> Y$Elt [prec 23] .
eq (A ; D |-> R)[D] =
if $hasMapping(A, D) then 0
else R
fi .
eq A[D] = 0 [owise] .
op $hasMapping : Array{X,Y} X$Elt -> Bool .
eq $hasMapping((A ; D |-> R), D) = true .
eq $hasMapping(A, D) = false [owise] .
endfm
***
*** Container instantiations on builtin data types needed by the metalevel.
***
fmod NAT-LIST is
protecting LIST{Nat} * (sort NeList{Nat} to NeNatList, sort List{Nat} to NatList) .
endfm
fmod QID-LIST is
protecting LIST{Qid} * (sort NeList{Qid} to NeQidList, sort List{Qid} to QidList) .
endfm
fmod QID-SET is
protecting SET{Qid} * (sort NeSet{Qid} to NeQidSet, sort Set{Qid} to QidSet) .
endfm
***
*** The metalevel.
***
fmod META-TERM is
protecting QID .
*** types
sorts Sort Kind Type .
subsorts Sort Kind < Type < Qid .
op <Qids> : -> Sort [special (id-hook QuotedIdentifierSymbol (sortQid))] .
op <Qids> : -> Kind [special (id-hook QuotedIdentifierSymbol (kindQid))] .
*** terms
sorts Constant Variable TermQid GroundTerm Term NeGroundTermList GroundTermList NeTermList TermList .
subsorts Constant Variable < TermQid < Qid Term .
subsorts Constant < GroundTerm < Term NeGroundTermList < NeTermList .
subsorts NeGroundTermList < NeTermList GroundTermList < TermList .
op <Qids> : -> Constant [special (id-hook QuotedIdentifierSymbol (constantQid))] .
op <Qids> : -> Variable [special (id-hook QuotedIdentifierSymbol (variableQid))] .
op empty : -> GroundTermList [ctor] .
op _,_ : NeGroundTermList GroundTermList -> NeGroundTermList [ctor assoc id: empty gather (e E) prec 121] .
op _,_ : GroundTermList NeGroundTermList -> NeGroundTermList [ctor ditto] .
op _,_ : GroundTermList GroundTermList -> GroundTermList [ctor ditto] .
op _,_ : NeTermList TermList -> NeTermList [ctor ditto] .
op _,_ : TermList NeTermList -> NeTermList [ctor ditto] .
op _,_ : TermList TermList -> TermList [ctor ditto] .
op _[_] : Qid NeGroundTermList -> GroundTerm [ctor] .
op _[_] : Qid NeTermList -> Term [ctor] .
*** extraction of names and types
op getName : Constant -> Qid .
op getType : Constant -> Type .
var C : Constant .
eq getName(C) = qid(substr(string(C),
0,
rfind(string(C), ".", length(string(C))))) .
eq getType(C) = qid(substr(string(C),
rfind(string(C), ".", length(string(C))) + 1,
length(string(C)))) .
op getName : Variable -> Qid .
op getType : Variable -> Type .
var V : Variable .
eq getName(V) = qid(substr(string(V),
0,
rfind(string(V), ":", length(string(V))))) .
eq getType(V) = qid(substr(string(V),
rfind(string(V), ":", length(string(V))) + 1,
length(string(V)))) .
*** substitutions
sorts Assignment Substitution .
subsort Assignment < Substitution .
op _<-_ : Variable Term -> Assignment [ctor prec 63 format (nt d d d)] .
op none : -> Substitution [ctor] .
op _;_ : Substitution Substitution -> Substitution
[ctor assoc comm id: none prec 65] .
eq A:Assignment ; A:Assignment = A:Assignment .
*** contexts (terms with a single hole)
sorts Context NeCTermList GTermList .
subsort Context < NeCTermList < GTermList .
subsorts TermList < GTermList .
op [] : -> Context [ctor] .
op _,_ : TermList NeCTermList -> NeCTermList [ctor ditto] .
op _,_ : NeCTermList TermList -> NeCTermList [ctor ditto] .
op _,_ : GTermList GTermList -> GTermList [ctor ditto] .
op _[_] : Qid NeCTermList -> Context [ctor] .
endfm
fmod META-MODULE is
protecting META-TERM .
protecting NAT-LIST .
protecting QID-LIST .
protecting QID-SET * (op empty to none, op _,_ to _;_ [prec 43]) .
*** subsort declarations
sorts SubsortDecl SubsortDeclSet .
subsort SubsortDecl < SubsortDeclSet .
op subsort_<_. : Sort Sort -> SubsortDecl [ctor] .
op none : -> SubsortDeclSet [ctor] .
op __ : SubsortDeclSet SubsortDeclSet -> SubsortDeclSet
[ctor assoc comm id: none format (d ni d)] .
eq S:SubsortDecl S:SubsortDecl = S:SubsortDecl .
*** sort, kind and type sets
sorts EmptyTypeSet NeSortSet NeKindSet NeTypeSet SortSet KindSet TypeSet .
subsort EmptyTypeSet < SortSet KindSet < TypeSet < QidSet .
subsort Sort < NeSortSet < SortSet .
subsort Kind < NeKindSet < KindSet .
subsort Type NeSortSet NeKindSet < NeTypeSet < TypeSet NeQidSet .
op none : -> EmptyTypeSet [ctor] .
op _;_ : TypeSet TypeSet -> TypeSet [ctor ditto] .
op _;_ : NeTypeSet TypeSet -> NeTypeSet [ctor ditto] .
op _;_ : SortSet SortSet -> SortSet [ctor ditto] .
op _;_ : NeSortSet SortSet -> NeSortSet [ctor ditto] .
op _;_ : KindSet KindSet -> KindSet [ctor ditto] .
op _;_ : NeKindSet KindSet -> NeKindSet [ctor ditto] .
op _;_ : EmptyTypeSet EmptyTypeSet -> EmptyTypeSet [ctor ditto] .
*** type lists
sort NeTypeList TypeList .
subsorts Type < NeTypeList < TypeList < QidList .
subsorts NeTypeList < NeQidList .
op nil : -> TypeList [ctor] .
op __ : TypeList TypeList -> TypeList [ctor ditto] .
op __ : NeTypeList TypeList -> NeTypeList [ctor ditto] .
op __ : TypeList NeTypeList -> NeTypeList [ctor ditto] .
eq T:TypeList ; T:TypeList = T:TypeList .
*** sets of type lists
sort TypeListSet .
subsort TypeList TypeSet < TypeListSet .
op _;_ : TypeListSet TypeListSet -> TypeListSet [ctor ditto] .
*** attribute sets
sorts Attr AttrSet .
subsort Attr < AttrSet .
op none : -> AttrSet [ctor] .
op __ : AttrSet AttrSet -> AttrSet [ctor assoc comm id: none] .
eq A:Attr A:Attr = A:Attr .
*** renamings
sorts Renaming RenamingSet .
subsort Renaming < RenamingSet .
op sort_to_ : Qid Qid -> Renaming [ctor] .
op op_to_[_] : Qid Qid AttrSet -> Renaming
[ctor format (d d d d s d d d)] .
op op_:_->_to_[_] : Qid TypeList Type Qid AttrSet -> Renaming
[ctor format (d d d d d d d d s d d d)] .
op label_to_ : Qid Qid -> Renaming [ctor] .
op _,_ : RenamingSet RenamingSet -> RenamingSet
[ctor assoc comm prec 43 format (d d ni d)] .
*** parameter lists
sort EmptyCommaList NeParameterList ParameterList .
subsorts Sort < NeParameterList < ParameterList .
subsort EmptyCommaList < GroundTermList ParameterList .
op empty : -> EmptyCommaList [ctor] .
op _,_ : ParameterList ParameterList -> ParameterList [ctor ditto] .
op _,_ : NeParameterList ParameterList -> NeParameterList [ctor ditto] .
op _,_ : ParameterList NeParameterList -> NeParameterList [ctor ditto] .
op _,_ : EmptyCommaList EmptyCommaList -> EmptyCommaList [ctor ditto] .
*** module expressions
sort ModuleExpression .
subsort Qid < ModuleExpression .
op _+_ : ModuleExpression ModuleExpression -> ModuleExpression
[ctor assoc comm] .
op _*(_) : ModuleExpression RenamingSet -> ModuleExpression
[ctor prec 39 format (d d s n++i n--i d)] .
op _{_} : ModuleExpression ParameterList -> ModuleExpression [ctor prec 37].
*** parameter declarations
sorts ParameterDecl NeParameterDeclList ParameterDeclList .
subsorts ParameterDecl < NeParameterDeclList < ParameterDeclList .
op _::_ : Sort ModuleExpression -> ParameterDecl .
op nil : -> ParameterDeclList [ctor] .
op _,_ : ParameterDeclList ParameterDeclList -> ParameterDeclList [ctor assoc id: nil prec 121] .
op _,_ : NeParameterDeclList ParameterDeclList -> NeParameterDeclList [ctor ditto] .
op _,_ : ParameterDeclList NeParameterDeclList -> NeParameterDeclList [ctor ditto] .
*** importations
sorts Import ImportList .
subsort Import < ImportList .
op protecting_. : ModuleExpression -> Import [ctor] .
op extending_. : ModuleExpression -> Import [ctor] .
op including_. : ModuleExpression -> Import [ctor] .
op nil : -> ImportList [ctor] .
op __ : ImportList ImportList -> ImportList
[ctor assoc id: nil format (d ni d)] .
*** hooks
sorts Hook NeHookList HookList .
subsort Hook < NeHookList < HookList .
op id-hook : Qid QidList -> Hook [ctor format (nssss d)] .
op op-hook : Qid Qid QidList Qid -> Hook [ctor format (nssss d)] .
op term-hook : Qid Term -> Hook [ctor format (nssss d)] .
op nil : -> HookList [ctor] .
op __ : HookList HookList -> HookList [ctor assoc id: nil] .
op __ : NeHookList HookList -> NeHookList [ctor ditto] .
op __ : HookList NeHookList -> NeHookList [ctor ditto] .
*** operator attributes
op assoc : -> Attr [ctor] .
op comm : -> Attr [ctor] .
op idem : -> Attr [ctor] .
op iter : -> Attr [ctor] .
op id : Term -> Attr [ctor] .
op left-id : Term -> Attr [ctor] .
op right-id : Term -> Attr [ctor] .
op strat : NeNatList -> Attr [ctor] .
op memo : -> Attr [ctor] .
op prec : Nat -> Attr [ctor] .
op gather : QidList -> Attr [ctor] .
op format : QidList -> Attr [ctor] .
op ctor : -> Attr [ctor] .
op config : -> Attr [ctor] .
op object : -> Attr [ctor] .
op msg : -> Attr [ctor] .
op frozen : NeNatList -> Attr [ctor] .
op poly : NeNatList -> Attr [ctor] .
op special : NeHookList -> Attr [ctor] .
*** statement attributes
op label : Qid -> Attr [ctor] .
op metadata : String -> Attr [ctor] .
op owise : -> Attr [ctor] .
op nonexec : -> Attr [ctor] .
op variant : -> Attr [ctor] .
op print : QidList -> Attr [ctor] .
*** operator declarations
sorts OpDecl OpDeclSet .
subsort OpDecl < OpDeclSet .
op (op_:_->_[_].) : Qid TypeList Type AttrSet -> OpDecl
[ctor format (d d d d d d s d d s d)] .
op none : -> OpDeclSet [ctor] .
op __ : OpDeclSet OpDeclSet -> OpDeclSet
[ctor assoc comm id: none format (d ni d)] .
eq O:OpDecl O:OpDecl = O:OpDecl .
*** conditions
sorts EqCondition Condition .
subsort EqCondition < Condition .
op nil : -> EqCondition [ctor] .
op _=_ : Term Term -> EqCondition [ctor prec 71] .
op _:_ : Term Sort -> EqCondition [ctor prec 71] .
op _:=_ : Term Term -> EqCondition [ctor prec 71] .
op _=>_ : Term Term -> Condition [ctor prec 71] .
op _/\_ : EqCondition EqCondition -> EqCondition [ctor assoc id: nil prec 73] .
op _/\_ : Condition Condition -> Condition [ctor assoc id: nil prec 73] .
*** membership axioms
sorts MembAx MembAxSet .
subsort MembAx < MembAxSet .
op mb_:_[_]. : Term Sort AttrSet -> MembAx
[ctor format (d d d d s d d s d)] .
op cmb_:_if_[_]. : Term Sort EqCondition AttrSet -> MembAx
[ctor format (d d d d d d s d d s d)] .
op none : -> MembAxSet [ctor] .
op __ : MembAxSet MembAxSet -> MembAxSet
[ctor assoc comm id: none format (d ni d)] .
eq M:MembAx M:MembAx = M:MembAx .
*** equations
sorts Equation EquationSet .
subsort Equation < EquationSet .
op eq_=_[_]. : Term Term AttrSet -> Equation
[ctor format (d d d d s d d s d)] .
op ceq_=_if_[_]. : Term Term EqCondition AttrSet -> Equation
[ctor format (d d d d d d s d d s d)] .
op none : -> EquationSet [ctor] .
op __ : EquationSet EquationSet -> EquationSet
[ctor assoc comm id: none format (d ni d)] .
eq E:Equation E:Equation = E:Equation .
*** rules
sorts Rule RuleSet .
subsort Rule < RuleSet .
op rl_=>_[_]. : Term Term AttrSet -> Rule
[ctor format (d d d d s d d s d)] .
op crl_=>_if_[_]. : Term Term Condition AttrSet -> Rule
[ctor format (d d d d d d s d d s d)] .
op none : -> RuleSet [ctor] .
op __ : RuleSet RuleSet -> RuleSet
[ctor assoc comm id: none format (d ni d)] .
eq R:Rule R:Rule = R:Rule .
*** modules
sorts FModule SModule FTheory STheory Module .
subsorts FModule < SModule < Module .
subsorts FTheory < STheory < Module .
sort Header .
subsort Qid < Header .
op _{_} : Qid ParameterDeclList -> Header [ctor] .
op fmod_is_sorts_.____endfm : Header ImportList SortSet SubsortDeclSet
OpDeclSet MembAxSet EquationSet -> FModule [ctor gather (& & & & & & &)
format (d d s n++i ni d d ni ni ni ni n--i d)] .
op mod_is_sorts_._____endm : Header ImportList SortSet SubsortDeclSet
OpDeclSet MembAxSet EquationSet RuleSet -> SModule
[ctor gather (& & & & & & & &)
format (d d s n++i ni d d ni ni ni ni ni n--i d)] .
op fth_is_sorts_.____endfth : Qid ImportList SortSet SubsortDeclSet
OpDeclSet MembAxSet EquationSet -> FTheory [ctor gather (& & & & & & &)
format (d d d n++i ni d d ni ni ni ni n--i d)] .
op th_is_sorts_._____endth : Qid ImportList SortSet SubsortDeclSet
OpDeclSet MembAxSet EquationSet RuleSet -> STheory
[ctor gather (& & & & & & & &)
format (d d d n++i ni d d ni ni ni ni ni n--i d)] .
op [_] : Qid -> Module .
eq [Q:Qid] = (th Q:Qid is including Q:Qid .
sorts none . none none none none none endth) .
*** projection functions
var Q : Qid .
var PDL : ParameterDeclList .
var H : Header .
var M : Module .
var IL : ImportList .
var SS : SortSet .
var SSDS : SubsortDeclSet .
var OPDS : OpDeclSet .
var MAS : MembAxSet .
var EQS : EquationSet .
var RLS : RuleSet .
op getName : Module -> Qid .
eq getName(fmod Q is IL sorts SS . SSDS OPDS MAS EQS endfm) = Q .
eq getName(mod Q is IL sorts SS . SSDS OPDS MAS EQS RLS endm) = Q .
eq getName(fmod Q{PDL} is IL sorts SS . SSDS OPDS MAS EQS endfm) = Q .
eq getName(mod Q{PDL} is IL sorts SS . SSDS OPDS MAS EQS RLS endm) = Q .
eq getName(fth Q is IL sorts SS . SSDS OPDS MAS EQS endfth) = Q .
eq getName(th Q is IL sorts SS . SSDS OPDS MAS EQS RLS endth) = Q .
op getImports : Module -> ImportList .
eq getImports(fmod H is IL sorts SS . SSDS OPDS MAS EQS endfm) = IL .
eq getImports(mod H is IL sorts SS . SSDS OPDS MAS EQS RLS endm) = IL .
eq getImports(fth Q is IL sorts SS . SSDS OPDS MAS EQS endfth) = IL .
eq getImports(th Q is IL sorts SS . SSDS OPDS MAS EQS RLS endth) = IL .
op getSorts : Module -> SortSet .
eq getSorts(fmod H is IL sorts SS . SSDS OPDS MAS EQS endfm) = SS .
eq getSorts(mod H is IL sorts SS . SSDS OPDS MAS EQS RLS endm) = SS .
eq getSorts(fth Q is IL sorts SS . SSDS OPDS MAS EQS endfth) = SS .
eq getSorts(th Q is IL sorts SS . SSDS OPDS MAS EQS RLS endth) = SS .
op getSubsorts : Module -> SubsortDeclSet .
eq getSubsorts(fmod H is IL sorts SS . SSDS OPDS MAS EQS endfm) = SSDS .
eq getSubsorts(mod H is IL sorts SS . SSDS OPDS MAS EQS RLS endm) = SSDS .
eq getSubsorts(fth Q is IL sorts SS . SSDS OPDS MAS EQS endfth) = SSDS .
eq getSubsorts(th Q is IL sorts SS . SSDS OPDS MAS EQS RLS endth) = SSDS .
op getOps : Module -> OpDeclSet .
eq getOps(fmod H is IL sorts SS . SSDS OPDS MAS EQS endfm) = OPDS .
eq getOps(mod H is IL sorts SS . SSDS OPDS MAS EQS RLS endm) = OPDS .
eq getOps(fth Q is IL sorts SS . SSDS OPDS MAS EQS endfth) = OPDS .
eq getOps(th Q is IL sorts SS . SSDS OPDS MAS EQS RLS endth) = OPDS .
op getMbs : Module -> MembAxSet .
eq getMbs(fmod H is IL sorts SS . SSDS OPDS MAS EQS endfm) = MAS .
eq getMbs(mod H is IL sorts SS . SSDS OPDS MAS EQS RLS endm) = MAS .
eq getMbs(fth Q is IL sorts SS . SSDS OPDS MAS EQS endfth) = MAS .
eq getMbs(th Q is IL sorts SS . SSDS OPDS MAS EQS RLS endth) = MAS .
op getEqs : Module -> EquationSet .
eq getEqs(fmod H is IL sorts SS . SSDS OPDS MAS EQS endfm) = EQS .
eq getEqs(mod H is IL sorts SS . SSDS OPDS MAS EQS RLS endm) = EQS .
eq getEqs(fth Q is IL sorts SS . SSDS OPDS MAS EQS endfth) = EQS .
eq getEqs(th Q is IL sorts SS . SSDS OPDS MAS EQS RLS endth) = EQS .
op getRls : Module -> RuleSet .
eq getRls(fmod H is IL sorts SS . SSDS OPDS MAS EQS endfm) = none .
eq getRls(mod H is IL sorts SS . SSDS OPDS MAS EQS RLS endm) = RLS .
eq getRls(fth Q is IL sorts SS . SSDS OPDS MAS EQS endfth) = none .
eq getRls(th Q is IL sorts SS . SSDS OPDS MAS EQS RLS endth) = RLS .
endfm
fmod META-VIEW is
protecting META-MODULE .
*** sort mappings
sorts SortMapping SortMappingSet .
subsort SortMapping < SortMappingSet .
op sort_to_. : Sort Sort -> SortMapping [ctor] .
op none : -> SortMappingSet [ctor] .
op __ : SortMappingSet SortMappingSet -> SortMappingSet
[ctor assoc comm id: none format (d ni d)] .
eq S:SortMapping S:SortMapping = S:SortMapping .
*** operator mappings
sorts OpMapping OpMappingSet .
subsort OpMapping < OpMappingSet .
op (op_to_.) : Qid Qid -> OpMapping [ctor] .
op (op_:_->_to_.) : Qid TypeList Type Qid -> OpMapping [ctor] .
op (op_to term_.) : Term Term -> OpMapping [ctor] .
op none : -> OpMappingSet [ctor] .
op __ : OpMappingSet OpMappingSet -> OpMappingSet
[ctor assoc comm id: none format (d ni d)] .
eq O:OpMapping O:OpMapping = O:OpMapping .
sort View .
op view_from_to_is__endv : Header ModuleExpression ModuleExpression
SortMappingSet OpMappingSet -> View [ctor gather (& & & & &)
format (d d d d d d d n++i ni n--i d)] .
*** projection functions
var Q : Qid .
vars ME ME' : ModuleExpression .
var SMS : SortMappingSet .
var OMS : OpMappingSet .
op getName : View -> Qid .
eq getName(view Q from ME to ME' is SMS OMS endv) = Q .
op getFrom : View -> ModuleExpression .
eq getFrom(view Q from ME to ME' is SMS OMS endv) = ME .
op getTo : View -> ModuleExpression .
eq getTo(view Q from ME to ME' is SMS OMS endv) = ME' .
op getSortMappings : View -> SortMappingSet .
eq getSortMappings(view Q from ME to ME' is SMS OMS endv) = SMS .
op getOpMappings : View -> OpMappingSet .
eq getOpMappings(view Q from ME to ME' is SMS OMS endv) = OMS .
endfm
fmod META-LEVEL is
protecting META-VIEW .
*** bounds
sort Bound .
subsort Nat < Bound .
op unbounded : -> Bound [ctor] .
*** argument values
sort Type? .
subsort Type < Type? .
op anyType : -> Type? [ctor] .
*** options for metaPrettyPrint()
sorts PrintOption PrintOptionSet .
subsort PrintOption < PrintOptionSet .
ops mixfix with-parens flat format number rat : -> PrintOption [ctor] .
op none : -> PrintOptionSet [ctor] .
op __ : PrintOptionSet PrintOptionSet -> PrintOptionSet [ctor assoc comm id: none] .
*** unification problems
sorts UnificandPair UnificationProblem .
subsort UnificandPair < UnificationProblem .
op _=?_ : Term Term -> UnificandPair [ctor prec 71] .
op _/\_ : UnificationProblem UnificationProblem -> UnificationProblem [ctor assoc comm prec 73] .
*** success results
sorts ResultPair ResultTriple Result4Tuple MatchPair TraceStep Trace
UnificationPair UnificationTriple Variant .
subsort TraceStep < Trace .
op {_,_} : Term Type -> ResultPair [ctor] .
op {_,_,_} : Term Type Substitution -> ResultTriple [ctor] .
op {_,_,_,_} : Term Type Substitution Context -> Result4Tuple [ctor] .
op {_,_} : Substitution Context -> MatchPair [ctor] .
op {_,_} : Substitution Nat -> UnificationPair [ctor] .
op {_,_,_} : Substitution Substitution Nat -> UnificationTriple [ctor] .
op {_,_,_} : Term Substitution Nat -> Variant [ctor] .
op {_,_,_} : Term Type Rule -> TraceStep [ctor] .
op nil : -> Trace [ctor] .
op __ : Trace Trace -> Trace [ctor assoc id: nil format (d n d)] .
*** failure results
sorts ResultPair? ResultTriple? Result4Tuple? MatchPair? Substitution? Trace?
UnificationPair? UnificationTriple? Variant? .
subsort ResultPair < ResultPair? .
subsort ResultTriple < ResultTriple? .
subsort Result4Tuple < Result4Tuple? .
subsort MatchPair < MatchPair? .
subsort UnificationPair < UnificationPair? .
subsort UnificationTriple < UnificationTriple? .
subsort Variant < Variant? .
subsort Substitution < Substitution? .
subsort Trace < Trace? .
op noParse : Nat -> ResultPair? [ctor] .
op ambiguity : ResultPair ResultPair -> ResultPair? [ctor] .
op failure : -> ResultPair? [ctor] .
op failure : -> ResultTriple? [ctor] .
op failure : -> Result4Tuple? [ctor] .
op noUnifier : -> UnificationPair? [ctor] .
op noUnifier : -> UnificationTriple? [ctor] .
op noVariant : -> Variant? [ctor] .
op noMatch : -> Substitution? [ctor] .
op noMatch : -> MatchPair? [ctor] .
op failure : -> Trace? [ctor] .
*** projection functions
op getTerm : ResultPair -> Term .
eq getTerm({T:Term, T:Type}) = T:Term .
op getType : ResultPair -> Type .
eq getType({T:Term, T:Type}) = T:Type .
op getTerm : ResultTriple -> Term .
eq getTerm({T:Term, T:Type, S:Substitution}) = T:Term .
op getType : ResultTriple -> Type .
eq getType({T:Term, T:Type, S:Substitution}) = T:Type .
op getSubstitution : ResultTriple -> Substitution .
eq getSubstitution({T:Term, T:Type, S:Substitution}) = S:Substitution .
op getTerm : Result4Tuple -> Term .
eq getTerm({T:Term, T:Type, S:Substitution, C:Context}) = T:Term .
op getType : Result4Tuple -> Type .
eq getType({T:Term, T:Type, S:Substitution, C:Context}) = T:Type .
op getSubstitution : Result4Tuple -> Substitution .
eq getSubstitution({T:Term, T:Type, S:Substitution, C:Context}) = S:Substitution .
op getContext : Result4Tuple -> Context .
eq getContext({T:Term, T:Type, S:Substitution, C:Context}) = C:Context .
op getSubstitution : MatchPair -> Substitution .
eq getSubstitution({S:Substitution, C:Context}) = S:Substitution .
op getContext : MatchPair -> Context .
eq getContext({S:Substitution, C:Context}) = C:Context .
*** descent functions
op metaReduce : Module Term ~> ResultPair
[special (
id-hook MetaLevelOpSymbol (metaReduce)
op-hook qidSymbol (<Qids> : ~> Qid)
op-hook metaTermSymbol (_[_] : Qid NeTermList ~> Term)
op-hook metaArgSymbol (_,_ : NeTermList NeTermList ~> NeTermList)
op-hook emptyTermListSymbol (empty : ~> GroundTermList)
op-hook assignmentSymbol (_<-_ : Qid Term ~> Assignment)
op-hook substitutionSymbol
(_;_ : Substitution Substitution ~> Substitution)
op-hook emptySubstitutionSymbol (none : ~> Substitution)
op-hook holeSymbol ([] : ~> Context)
op-hook headerSymbol (_{_} : Qid ParameterDeclList ~> Header)
op-hook parameterDeclSymbol (_::_ : Sort ModuleExpression ~> ParameterDecl)
op-hook parameterDeclListSymbol (_,_ : ParameterDeclList ParameterDeclList ~> ParameterDeclList)
op-hook emptyAttrSetSymbol (none : ~> AttrSet)
op-hook attrSetSymbol (__ : AttrSet AttrSet ~> AttrSet)
op-hook sortRenamingSymbol (sort_to_ : Qid Qid ~> Renaming)
op-hook opRenamingSymbol (op_to_[_] : Qid Qid AttrSet ~> Renaming)
op-hook opRenamingSymbol2
(op_:_->_to_[_] : Qid TypeList Type Qid AttrSet ~> Renaming)
op-hook labelRenamingSymbol (label_to_ : Qid Qid ~> Renaming)
op-hook renamingSetSymbol (_,_ : RenamingSet RenamingSet ~> RenamingSet)
op-hook sumSymbol
(_+_ : ModuleExpression ModuleExpression ~> ModuleExpression)
op-hook renamingSymbol
(_*(_) : ModuleExpression RenamingSet ~> ModuleExpression)
op-hook instantiationSymbol
(_{_} : ModuleExpression ParameterList ~> ModuleExpression)
op-hook protectingSymbol (protecting_. : ModuleExpression ~> Import)
op-hook extendingSymbol (extending_. : ModuleExpression ~> Import)
op-hook includingSymbol (including_. : ModuleExpression ~> Import)
op-hook nilImportListSymbol (nil : ~> ImportList)
op-hook importListSymbol (__ : ImportList ImportList ~> ImportList)
op-hook emptySortSetSymbol (none : ~> SortSet)
op-hook sortSetSymbol (_;_ : SortSet SortSet ~> SortSet)
op-hook subsortSymbol (subsort_<_. : Sort Sort ~> SubsortDecl)
op-hook emptySubsortDeclSetSymbol (none : ~> SubsortDeclSet)
op-hook subsortDeclSetSymbol
(__ : SubsortDeclSet SubsortDeclSet ~> SubsortDeclSet)
op-hook nilQidListSymbol (nil : ~> QidList)
op-hook qidListSymbol (__ : QidList QidList ~> QidList)
op-hook succSymbol (s_ : Nat ~> NzNat)
op-hook natListSymbol (__ : NeNatList NeNatList ~> NeNatList)
op-hook unboundedSymbol (unbounded : ~> Bound)
op-hook stringSymbol (<Strings> : ~> String)
op-hook idHookSymbol (id-hook : Qid QidList ~> Hook)
op-hook opHookSymbol (op-hook : Qid Qid QidList Qid ~> Hook)
op-hook termHookSymbol (term-hook : Qid Term ~> Hook)
op-hook hookListSymbol (__ : HookList HookList ~> HookList)
op-hook assocSymbol (assoc : ~> Attr)
op-hook commSymbol (comm : ~> Attr)
op-hook idemSymbol (idem : ~> Attr)
op-hook iterSymbol (iter : ~> Attr)
op-hook idSymbol (id : Term ~> Attr)
op-hook leftIdSymbol (left-id : Term ~> Attr)
op-hook rightIdSymbol (right-id : Term ~> Attr)
op-hook stratSymbol (strat : NeNatList ~> Attr)
op-hook memoSymbol (memo : ~> Attr)
op-hook precSymbol (prec : Nat ~> Attr)
op-hook gatherSymbol (gather : QidList ~> Attr)
op-hook formatSymbol (format : QidList ~> Attr)
op-hook ctorSymbol (ctor : ~> Attr)
op-hook frozenSymbol (frozen : NeNatList ~> Attr)
op-hook polySymbol (poly : NeNatList ~> Attr)
op-hook configSymbol (config : ~> Attr)
op-hook objectSymbol (object : ~> Attr)
op-hook msgSymbol (msg : ~> Attr)
op-hook specialSymbol (special : NeHookList ~> Attr)
op-hook labelSymbol (label : Qid ~> Attr)
op-hook metadataSymbol (metadata : String ~> Attr)
op-hook owiseSymbol (owise : ~> Attr)
op-hook variantAttrSymbol (variant : ~> Attr)
op-hook nonexecSymbol (nonexec : ~> Attr)
op-hook printSymbol (print : QidList ~> Attr)
op-hook opDeclSymbol
(op_:_->_[_]. : Qid TypeList Type AttrSet ~> OpDecl)
op-hook emptyOpDeclSetSymbol (none : ~> OpDeclSet)
op-hook opDeclSetSymbol (__ : OpDeclSet OpDeclSet ~> OpDeclSet)
op-hook noConditionSymbol (nil : ~> EqCondition)
op-hook equalityConditionSymbol (_=_ : Term Term ~> EqCondition)
op-hook sortTestConditionSymbol (_:_ : Term Sort ~> EqCondition)
op-hook matchConditionSymbol (_:=_ : Term Term ~> EqCondition)
op-hook rewriteConditionSymbol (_=>_ : Term Term ~> Condition)
op-hook conjunctionSymbol (_/\_ : Condition Condition ~> Condition)
op-hook mbSymbol (mb_:_[_]. : Term Sort AttrSet ~> MembAx)
op-hook cmbSymbol
(cmb_:_if_[_]. : Term Sort EqCondition AttrSet ~> MembAx)
op-hook emptyMembAxSetSymbol (none : ~> MembAxSet)
op-hook membAxSetSymbol (__ : MembAxSet MembAxSet ~> MembAxSet)
op-hook eqSymbol (eq_=_[_]. : Term Term AttrSet ~> Equation)
op-hook ceqSymbol
(ceq_=_if_[_]. : Term Term EqCondition AttrSet ~> Equation)
op-hook emptyEquationSetSymbol (none : ~> EquationSet)
op-hook equationSetSymbol
(__ : EquationSet EquationSet ~> EquationSet)
op-hook rlSymbol (rl_=>_[_]. : Term Term AttrSet ~> Rule)
op-hook crlSymbol
(crl_=>_if_[_]. : Term Term Condition AttrSet ~> Rule)
op-hook emptyRuleSetSymbol (none : ~> RuleSet)
op-hook ruleSetSymbol (__ : RuleSet RuleSet ~> RuleSet)
op-hook fmodSymbol
(fmod_is_sorts_.____endfm :
Qid ImportList SortSet SubsortDeclSet OpDeclSet
MembAxSet EquationSet ~> FModule)
op-hook fthSymbol
(fth_is_sorts_.____endfth :
Qid ImportList SortSet SubsortDeclSet OpDeclSet
MembAxSet EquationSet ~> FModule)
op-hook modSymbol
(mod_is_sorts_._____endm :
Qid ImportList SortSet SubsortDeclSet OpDeclSet
MembAxSet EquationSet RuleSet ~> Module)
op-hook thSymbol
(th_is_sorts_._____endth :
Qid ImportList SortSet SubsortDeclSet OpDeclSet
MembAxSet EquationSet RuleSet ~> Module)
op-hook sortMappingSymbol (sort_to_. : Sort Sort ~> SortMapping [ctor] .)
op-hook emptySortMappingSetSymbol (none : ~> SortMappingSet)
op-hook sortMappingSetSymbol
(__ : SortMappingSet SortMappingSet ~> SortMappingSet)
op-hook opMappingSymbol (op_to_. : Qid Qid ~> OpMapping)
op-hook opSpecificMappingSymbol (op_:_->_to_. : Qid TypeList Type Qid ~> OpMapping)
op-hook opTermMappingSymbol (op_to`term_. : Term Term ~> OpMapping)
op-hook emptyOpMappingSetSymbol (none : ~> OpMappingSet)
op-hook opMappingSetSymbol
(__ : OpMappingSet OpMappingSet ~> OpMappingSet)
op-hook viewSymbol
(view_from_to_is__endv : Header ModuleExpression ModuleExpression
SortMappingSet OpMappingSet ~> View)
op-hook anyTypeSymbol (anyType : ~> Type?)
op-hook unificandPairSymbol (_=?_ : Term Term ~> UnificandPair)
op-hook unificationConjunctionSymbol
(_/\_ : UnificationProblem UnificationProblem ~> UnificationProblem)
op-hook resultPairSymbol ({_,_} : Term Type ~> ResultPair)
op-hook resultTripleSymbol
({_,_,_} : Term Type Substitution ~> ResultTriple)
op-hook result4TupleSymbol
({_,_,_,_} : Term Type Substitution Context ~> Result4Tuple)
op-hook matchPairSymbol ({_,_} : Substitution Context ~> MatchPair)
op-hook unificationPairSymbol ({_,_} : Substitution Nat ~> UnificationPair)
op-hook unificationTripleSymbol ({_,_,_} : Substitution Substitution Nat ~> UnificationTriple)
op-hook variantSymbol ({_,_,_} : Term Substitution Nat ~> Variant)
op-hook traceStepSymbol ({_,_,_} : Term Type Rule ~> TraceStep)
op-hook nilTraceSymbol (nil : ~> Trace)
op-hook traceSymbol (__ : Trace Trace ~> Trace)
op-hook noParseSymbol (noParse : Nat ~> ResultPair?)
op-hook ambiguitySymbol (ambiguity : ResultPair ResultPair ~> ResultPair?)
op-hook failure2Symbol (failure : ~> ResultPair?)
op-hook failure3Symbol (failure : ~> ResultTriple?)
op-hook failure4Symbol (failure : ~> Result4Tuple?)
op-hook noUnifierPairSymbol (noUnifier : ~> UnificationPair?)
op-hook noUnifierTripleSymbol (noUnifier : ~> UnificationTriple?)
op-hook noVariantSymbol (noVariant : ~> Variant?)
op-hook noMatchSubstSymbol (noMatch : ~> Substitution?)
op-hook noMatchPairSymbol (noMatch : ~> MatchPair?)
op-hook failureTraceSymbol (failure : ~> Trace?)
op-hook mixfixSymbol (mixfix : ~> PrintOption)
op-hook withParensSymbol (with-parens : ~> PrintOption)
op-hook flatSymbol (flat : ~> PrintOption)
op-hook formatPrintOptionSymbol (format : ~> PrintOption)
op-hook numberSymbol (number : ~> PrintOption)
op-hook ratSymbol (rat : ~> PrintOption)
op-hook emptyPrintOptionSetSymbol (none : ~> PrintOptionSet)
op-hook printOptionSetSymbol (__ : PrintOptionSet PrintOptionSet ~> PrintOptionSet)
term-hook trueTerm (true)
term-hook falseTerm (false))] .
op metaNormalize : Module Term ~> ResultPair
[special (
id-hook MetaLevelOpSymbol (metaNormalize)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaRewrite : Module Term Bound ~> ResultPair
[special (
id-hook MetaLevelOpSymbol (metaRewrite)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaFrewrite : Module Term Bound Nat ~> ResultPair
[special (
id-hook MetaLevelOpSymbol (metaFrewrite)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaApply : Module Term Qid Substitution Nat ~> ResultTriple?
[special (
id-hook MetaLevelOpSymbol (metaApply)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaXapply : Module Term Qid Substitution Nat Bound Nat ~> Result4Tuple?
[special (
id-hook MetaLevelOpSymbol (metaXapply)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaMatch : Module Term Term Condition Nat ~> Substitution?
[special (
id-hook MetaLevelOpSymbol (metaMatch)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaXmatch : Module Term Term Condition Nat Bound Nat ~> MatchPair?
[special (
id-hook MetaLevelOpSymbol (metaXmatch)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaUnify : Module UnificationProblem Nat Nat ~> UnificationPair?
[special (
id-hook MetaLevelOpSymbol (metaUnify)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaDisjointUnify : Module UnificationProblem Nat Nat ~> UnificationTriple?
[special (
id-hook MetaLevelOpSymbol (metaDisjointUnify)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaSearch : Module Term Term Condition Qid Bound Nat ~> ResultTriple?
[special (
id-hook MetaLevelOpSymbol (metaSearch)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaSearchPath : Module Term Term Condition Qid Bound Nat ~> Trace?
[special (
id-hook MetaLevelOpSymbol (metaSearchPath)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaNarrow : Module Term Term Qid Bound Nat ~> ResultTriple?
[special (
id-hook MetaLevelOpSymbol (metaNarrow)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaNarrow : Module Term Qid Bound Bool Nat ~> ResultPair?
[special (
id-hook MetaLevelOpSymbol (metaNarrow2)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaGetVariant : Module Term TermList Nat Nat ~> Variant?
[special (
id-hook MetaLevelOpSymbol (metaGetVariant)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaGetIrredundantVariant : Module Term TermList Nat Nat ~> Variant?
[special (
id-hook MetaLevelOpSymbol (metaGetIrredundantVariant)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaVariantUnify : Module UnificationProblem TermList Nat Nat ~> UnificationPair?
[special (
id-hook MetaLevelOpSymbol (metaVariantUnify)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaVariantDisjointUnify : Module UnificationProblem TermList Nat Nat ~> UnificationTriple?
[special (
id-hook MetaLevelOpSymbol (metaVariantDisjointUnify)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op sortLeq : Module Type Type ~> Bool
[special (
id-hook MetaLevelOpSymbol (metaSortLeq)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op sameKind : Module Type Type ~> Bool
[special (
id-hook MetaLevelOpSymbol (metaSameKind)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op lesserSorts : Module Type ~> SortSet
[special (
id-hook MetaLevelOpSymbol (metaLesserSorts)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op glbSorts : Module Type Type ~> TypeSet
[special (
id-hook MetaLevelOpSymbol (metaGlbSorts)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op leastSort : Module Term ~> Type
[special (
id-hook MetaLevelOpSymbol (metaLeastSort)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op completeName : Module Type ~> Type
[special (
id-hook MetaLevelOpSymbol (metaCompleteName)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaParse : Module QidList Type? ~> ResultPair?
[special (
id-hook MetaLevelOpSymbol (metaParse)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op metaPrettyPrint : Module Term PrintOptionSet ~> QidList
[special (
id-hook MetaLevelOpSymbol (metaPrettyPrint)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op wellFormed : Module -> Bool
[special (
id-hook MetaLevelOpSymbol (metaWellFormedModule)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op wellFormed : Module Term ~> Bool
[special (
id-hook MetaLevelOpSymbol (metaWellFormedTerm)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op wellFormed : Module Substitution ~> Bool
[special (
id-hook MetaLevelOpSymbol (metaWellFormedSubstitution)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op getKind : Module Type ~> Kind
[special (
id-hook MetaLevelOpSymbol (metaGetKind)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op getKinds : Module ~> KindSet
[special (
id-hook MetaLevelOpSymbol (metaGetKinds)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op maximalSorts : Module Kind ~> SortSet
[special (
id-hook MetaLevelOpSymbol (metaMaximalSorts)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op minimalSorts : Module Kind ~> SortSet
[special (
id-hook MetaLevelOpSymbol (metaMinimalSorts)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op maximalAritySet : Module Qid TypeList Sort ~> TypeListSet
[special (
id-hook MetaLevelOpSymbol (metaMaximalAritySet)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upModule : Qid Bool ~> Module
[special (
id-hook MetaLevelOpSymbol (metaUpModule)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upImports : Qid ~> ImportList
[special (
id-hook MetaLevelOpSymbol (metaUpImports)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upSorts : Qid Bool ~> SortSet
[special (
id-hook MetaLevelOpSymbol (metaUpSorts)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upSubsortDecls : Qid Bool ~> SubsortDeclSet
[special (
id-hook MetaLevelOpSymbol (metaUpSubsortDecls)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upOpDecls : Qid Bool ~> OpDeclSet
[special (
id-hook MetaLevelOpSymbol (metaUpOpDecls)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upMbs : Qid Bool ~> MembAxSet
[special (
id-hook MetaLevelOpSymbol (metaUpMbs)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upEqs : Qid Bool ~> EquationSet
[special (
id-hook MetaLevelOpSymbol (metaUpEqs)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upRls : Qid Bool ~> RuleSet
[special (
id-hook MetaLevelOpSymbol (metaUpRls)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upView : Qid ~> View
[special (
id-hook MetaLevelOpSymbol (metaUpView)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op upTerm : Universal -> Term
[poly (1)
special (
id-hook MetaLevelOpSymbol (metaUpTerm)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
op downTerm : Term Universal -> Universal
[poly (2 0)
special (
id-hook MetaLevelOpSymbol (metaDownTerm)
op-hook shareWith (metaReduce : Module Term ~> ResultPair))] .
*** backward compatibility
op metaPrettyPrint : Module Term ~> QidList .
eq metaPrettyPrint(M:Module, T:Term) = metaPrettyPrint(M:Module, T:Term, mixfix flat format number rat) .
endfm
***
*** System modules.
***
mod COUNTER is
protecting NAT .
op counter : -> [Nat]
[special (id-hook CounterSymbol
op-hook succSymbol (s_ : Nat ~> NzNat))] .
endm
mod LOOP-MODE is
protecting QID-LIST .
sorts State System .
op [_,_,_] : QidList State QidList -> System
[ctor special (
id-hook LoopSymbol
op-hook qidSymbol (<Qids> : ~> Qid)
op-hook nilQidListSymbol (nil : ~> QidList)
op-hook qidListSymbol (__ : QidList QidList ~> QidList))] .
endm
mod CONFIGURATION is
sorts Attribute AttributeSet .
subsort Attribute < AttributeSet .
op none : -> AttributeSet [ctor] .
op _,_ : AttributeSet AttributeSet -> AttributeSet [ctor assoc comm id: none] .
sorts Oid Cid Object Msg Portal Configuration .
subsort Object Msg Portal < Configuration .
op <_:_|_> : Oid Cid AttributeSet -> Object [ctor object] .
op none : -> Configuration [ctor] .
op __ : Configuration Configuration -> Configuration [ctor config assoc comm id: none] .
op <> : -> Portal [ctor] .
endm
set include BOOL on .
set omod include CONFIGURATION on .
select CONVERSION .
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