idk
build / build (push) Failing after 51s

This commit is contained in:
2026-07-22 23:47:33 -06:00
parent 80164acb96
commit c3c4866fa8
11 changed files with 286 additions and 294 deletions
+4
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@@ -0,0 +1,4 @@
(let ((make-adder (lambda (x)
(lambda (y)
(+ x y)))))
((make-adder 4) 5))
+3 -2
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@@ -52,6 +52,7 @@ library
-- cabal-fmt: expand src
exposed-modules:
Gyehoek.CPS.Close
Gyehoek.CPS.Convert
Gyehoek.CPS.Lower
Gyehoek.CPS.Syntax
@@ -65,8 +66,8 @@ library
build-depends:
, base ^>=4.21.2.0
, binary
, bytestring
, containers
, typed-process
, effectful
, effectful-core
, effectful-plugin
@@ -87,9 +88,9 @@ library
, template-haskell
, text
, text-short
, typed-process
, unordered-containers
, vector
, bytestring
hs-source-dirs: src
default-language: GHC2024
+29
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@@ -0,0 +1,29 @@
module Gyehoek.CPS.Close
( closeProgram
) where
import Gyehoek.CPS.Syntax
import Effectful
import Data.Functor.Foldable
import Control.Monad ((>=>))
import Control.Lens
import Data.List.NonEmpty (NonEmpty)
import qualified Data.HashSet as HS
cataM
:: (Monad m, Traversable (Base t), Recursive t)
=> (Base t a -> m a) -> t -> m a
cataM f = cata (sequenceA >=> f)
close :: Exp -> Exp
close = cata \case
ExpLetRecF {bindersF,bodyF} -> ExpLetRec binders bodyF
where
binders = bindersF & (each . _2 . _AbsLambda' . _3) %~ \e -> _
e -> embed e
-- let frees = freeWithBound' (HS.fromList $ ktail : bs) e'
closeProgram :: Program -> Eff es Program
closeProgram (MkProgram e) = pure . MkProgram . close $ e
+15
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@@ -65,6 +65,21 @@ convert (Scm.ExpIf c t f) k =
convert c \c' ->
ExpIf c' <$> convert t k <*> convert f k
-- let-bindings are desugared into continuation calls whose parameters
-- are the left-hand sides and whose arguments are the right-hand
-- sides.
convert (Scm.ExpLet bs e) k =
let rhss = bs ^.. each . _2
in telescope (convert @es) rhss \rhss' -> do
e' <- convert e k
kbody <- gensym' @Name "letrec-body"
let bs' = bs ^.. each . _1
pure [cps|
(letrec ((#{kbody} (κ #{bs'} #{e'})))
(continue #{kbody} ##{rhss'}))
|]
convert _ k = _
convertProgram :: forall es. (GenSym :> es) => Scm.Program -> Eff es Program
+44 -44
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@@ -26,9 +26,12 @@ import Language.Sexp.Located qualified as SL
import Control.Monad.Fix
import qualified Gyehoek.Sexp
import Data.Text qualified as T
import Data.List qualified
import Data.Foldable (fold)
import Gyehoek.Sexp (encodeOrShow, toSexp)
import Debug.Pretty.Simple
import GHC.Stack (HasCallStack)
import Data.String.Interpolate
data Env = MkEnv
@@ -58,31 +61,34 @@ makeSmallFixnum = [expr|
ref.i31
|]
getArgRegister :: Natural -> SL.Sexp
getArgRegister n = SL.Symbol [i|$arg#{n}|]
-- | Given an expression @e@ leaving a @ref eq@ atop the stack,
-- @pushArg rt n e@ sets the nth slot of the arg-passing array to the
-- result of @e@.
pushArg :: Natural -> Wasm.Expr -> Wasm.Expr
pushArg n e = [expr|
(@gyehoek "push argument")
(global.get $arg-array)
(i32.const #{n})
(@gyehoek begin pushArg)
##{e}
(array.set $arg-array-type)
(global.set #{reg})
(@gyehoek end pushArg)
|]
where reg = getArgRegister n
-- | Pop the nth arg from the arg-passing array onto the stack.
popArg :: Int -> Wasm.Expr
popArg :: Natural -> Wasm.Expr
popArg n = [expr|
(@gyehoek "pop argument")
(global.get $arg-array)
(i32.const #{n})
(array.get $arg-array-type)
(@gyehoek begin popArg)
(global.get #{reg})
ref.as_non_null
(@gyehoek end popArg)
|]
where reg = getArgRegister n
lowerVal :: GenMod :> es => Env -> Val -> Eff es Wasm.Expr
lowerVal :: (HasCallStack, GenMod :> es) => Env -> Val -> Eff es Wasm.Expr
lowerVal g (ValLit l) =
pure $ case l of
@@ -97,17 +103,10 @@ lowerVal g (ValLit l) =
where b' :: Int = if b then 0b11 else 0b01
_ -> _
lowerVal g (ValVar x) = pure $ [expr|(local.get #{l})|]
lowerVal g (ValVar x) = do
pure [expr|(global.get #{l})|]
where
l = succ $ V.elemIndex x g.vars ^?! _Just
-- lowerVal g (ValLambda lam) = do
-- idx <- lowerLambda g lam
-- pure [expr|
-- (i32.const 0)
-- (ref.func #{idx})
-- (struct.new $closure)
-- |]
l = getArgRegister . fromIntegral . succ $ V.elemIndex x g.vars ^?! _Just
lower' :: (GenMod :> es) => Env -> Exp -> Eff es Wasm.Expr
@@ -159,11 +158,12 @@ lower' g (ExpLetRec [(r,AbsLambda lam)] e) = do
let g' = g & #vars <>~ [r]
let n = succ $ length g.vars
e' <- lower' g' e
let reg = getArgRegister . fromIntegral $ n
pure [expr|
(i32.const 0)
(ref.func #{idx})
(struct.new $closure)
(local.set #{n})
(global.set #{reg})
##{e'}
|]
@@ -219,20 +219,14 @@ lower' g e = error $ case Gyehoek.Sexp.encode e of
lowerKappa :: GenMod :> es => Env -> Kappa -> Eff es Idx
lowerKappa g e@(MkKappa xs m) = do
let g' = g & #vars .~ V.fromList xs
let g' = g & #vars <>~ V.fromList xs
m' <- lower' g' m
let body = mconcat
[ xs & ifoldMap \n _ ->
let n' = succ n
in popArg n <> [expr|(local.set #{n'})|]
, m'
]
let origin = encodeOrShow @_ @Text e
idx <- Wasm.defineFunction [wat|
(func (param i32)
(@gyehoek :origin #{origin})
(local (ref eq) (ref eq) (ref eq) (ref eq) (ref eq))
##{body})
##{m'})
|]
Wasm.emit [wats|(elem declare funcref (ref.func #{idx}))|]
pure idx
@@ -242,18 +236,12 @@ lowerLambda g e@(MkLambda xs ktail m) = do
let g' = g & #vars .~ V.fromList xs
& #kvars <>~ [ktail]
m' <- lower' g' m
let body = mconcat
[ xs & ifoldMap \n _ ->
let n' = succ n
in popArg n <> [expr|(local.set #{n'})|]
, m'
]
let origin = encodeOrShow @_ @Text e
idx <- Wasm.defineFunction [wat|
(func (param i32)
(@gyehoek :origin #{origin})
(local (ref eq) (ref eq) (ref eq) (ref eq) (ref eq))
##{body})
##{m'})
|]
Wasm.emit [wats|(elem declare funcref (ref.func #{idx}))|]
pure idx
@@ -265,6 +253,7 @@ lowerBinOp op g x y (MkKappa [r] e) = do
let op' = SL.Symbol op
let g' = g & #vars <>~ [r]
let n = succ $ length (g ^. #vars)
let reg = getArgRegister . fromIntegral $ n
x' <- lowerVal g x
y' <- lowerVal g y
e' <- lower' g' e
@@ -279,7 +268,7 @@ lowerBinOp op g x y (MkKappa [r] e) = do
i32.shr_u
#{op'}
##{makeSmallFixnum}
(local.set #{n})
(global.set #{reg})
##{e'}
|]
@@ -306,13 +295,24 @@ emitRuntime = mfix \runtime -> do
(global $cont-stack (ref $cont-stack-type)
(array.new_default $cont-stack-type (i32.const 128)))
|]
-- arg array
Wasm.defineType [wat|
(type $arg-array-type (array (mut (ref null eq))))
|]
Wasm.defineGlobal [wat|
(global $arg-array (ref $arg-array-type)
(array.new_default $arg-array-type (i32.const 32)))
-- arg registers
Wasm.defineGlobals [wats|
(global $arg0 (mut (ref null eq)) (ref.null eq))
(global $arg1 (mut (ref null eq)) (ref.null eq))
(global $arg2 (mut (ref null eq)) (ref.null eq))
(global $arg3 (mut (ref null eq)) (ref.null eq))
(global $arg4 (mut (ref null eq)) (ref.null eq))
(global $arg5 (mut (ref null eq)) (ref.null eq))
(global $arg6 (mut (ref null eq)) (ref.null eq))
(global $arg7 (mut (ref null eq)) (ref.null eq))
(global $arg8 (mut (ref null eq)) (ref.null eq))
(global $arg9 (mut (ref null eq)) (ref.null eq))
(global $arg10 (mut (ref null eq)) (ref.null eq))
(global $arg11 (mut (ref null eq)) (ref.null eq))
(global $arg12 (mut (ref null eq)) (ref.null eq))
(global $arg13 (mut (ref null eq)) (ref.null eq))
(global $arg14 (mut (ref null eq)) (ref.null eq))
(global $arg15 (mut (ref null eq)) (ref.null eq))
|]
-- other things 😼
Wasm.defineGlobal [wat|
+100 -42
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@@ -9,6 +9,7 @@ module Gyehoek.CPS.Syntax
, Kappa(..)
, Lambda(..)
, Exp(..)
, ExpF(..)
, Name(..)
, Prim(..)
, Program(..)
@@ -20,6 +21,7 @@ module Gyehoek.CPS.Syntax
, _ExpPrim
, _ExpLetRec
, _ExpApply
, _AbsLambda'
, binders
, body
, op
@@ -29,8 +31,9 @@ module Gyehoek.CPS.Syntax
, pattern AbsLambda'
, pattern AbsKappa'
, Abs(..)
, free
, free'
, Free(..)
, Vars(..)
, Subst(..)
)
where
@@ -55,6 +58,8 @@ import qualified Data.HashSet as HS
import Data.Hashable (Hashable)
import Data.Monoid (Endo)
import Data.Containers.ListUtils (nubOrd)
import Data.Functor.Foldable.TH
import Data.Functor.Foldable (Recursive(..), Corecursive (..))
-- Data types
@@ -114,6 +119,7 @@ makePrisms ''Exp
makeFieldsId ''Exp
makeFieldsId ''Kappa
makeFieldsId ''Lambda
makeBaseFunctor ''Exp
instance HasBinders Abs (List Name) where
binders k (AbsKappa kap) = AbsKappa <$> binders k kap
@@ -123,6 +129,12 @@ instance HasBody Abs Exp where
body k (AbsKappa kap) = AbsKappa <$> body k kap
body k (AbsLambda lam) = AbsLambda <$> body k lam
_AbsLambda' :: Prism' Abs (List Name, Name, Exp)
_AbsLambda' = prism'
(\(bs,ktail,e) -> AbsLambda' bs ktail e)
(\case AbsLambda' bs ktail e -> Just (bs,ktail,e)
_ -> Nothing)
-- SexpIso instances
@@ -234,49 +246,95 @@ insertFrom = flip $ foldr HS.insert
toHashSetOf :: Hashable a => Getting (Endo (HashSet a)) s a -> s -> HashSet a
toHashSetOf l = foldrOf l HS.insert mempty
free :: Exp -> HashSet Name
free = go where
gokap (MkKappa xs m) = go m & deleteFrom xs
golam (MkLambda xs k m) = go m & deleteFrom xs & sans k
goabs = \case
AbsKappa kap -> gokap kap
AbsLambda lam -> golam lam
go = \case
class Free a where
free :: a -> HashSet Name
free = freeWithBound mempty
freeWithBound :: HashSet Name -> a -> HashSet Name
freeWithBound bound = HS.fromList . freeWithBound' bound
-- | Free variables given in the order of their appearance.
free' :: a -> List Name
free' = freeWithBound' mempty
freeWithBound' :: HashSet Name -> a -> List Name
instance Free Abs where
freeWithBound' bound (AbsKappa kap) = freeWithBound' bound kap
freeWithBound' bound (AbsLambda lam) = freeWithBound' bound lam
instance Free Exp where
freeWithBound' bound = \case
ExpPrim p k ->
p & toHashSetOf (folded . #ValVar)
& HS.union (gokap k)
p & toListOf (folded . #ValVar . filtered (`notElem` bound))
& (<> freeWithBound' bound k)
ExpLetRec bs m ->
foldMapOf (each . _2) goabs bs <> go m
& deleteFrom (bs ^.. each . _1)
ExpContinue k xs -> HS.fromList $ k : xs ^.. each . #ValVar
ExpIf c t f -> toHashSetOf #ValVar c <> go t <> go f
ExpApply f xs k -> toHashSetOf (each . #ValVar) (f:xs) <> HS.singleton k
foldMapOf (each . _2) (freeWithBound' bound') bs
<> freeWithBound' bound' m
where bound' = bound & insertFrom (bs ^.. each . _1)
ExpContinue k xs -> filter (`notElem` bound) (k : xs ^.. each . #ValVar)
ExpIf c t f ->
(c ^.. #ValVar . filtered (`notElem` bound))
<> freeWithBound' bound t <> freeWithBound' bound f
ExpApply f xs k ->
(f:xs) ^.. (each . #ValVar . filtered (`notElem` bound))
<> (k ^.. filtered (`notElem` bound))
-- | Free variables given in the order of their appearance.
free' :: Exp -> List Name
free' = nubOrd . goFree HS.empty where
instance Free Kappa where
freeWithBound' bound (MkKappa xs m) =
freeWithBound' (bound & insertFrom xs) m
goFreeKap bound (MkKappa xs m) = goFree (bound & insertFrom xs) m
goFreeLam bound (MkLambda xs k m) = goFree (bound & insertFrom (k:xs)) m
goFreeAbs bound = \case
AbsKappa kap -> goFreeKap bound kap
AbsLambda lam -> goFreeLam bound lam
instance Free Lambda where
freeWithBound' bound (MkLambda xs k m) =
freeWithBound' (bound & insertFrom (k:xs)) m
goFree :: HashSet Name -> Exp -> List Name
goFree bound = \case
ExpPrim p k ->
p & toListOf (folded . #ValVar . filtered (`notElem` bound))
& (<> goFreeKap bound k)
ExpLetRec bs m ->
foldMapOf (each . _2) (goFreeAbs bound') bs <> goFree bound' m
where bound' = bound & insertFrom (bs ^.. each . _1)
ExpContinue k xs -> filter (`notElem` bound) (k : xs ^.. each . #ValVar)
ExpIf c t f ->
(c ^.. #ValVar . filtered (`notElem` bound))
<> goFree bound t <> goFree bound f
ExpApply f xs k ->
(f:xs) ^.. (each . #ValVar . filtered (`notElem` bound))
<> (k ^.. filtered (`notElem` bound))
freeLambda :: Lambda -> List Name
freeLambda (MkLambda {binders,ktail,body}) = _
class Vars a where
-- | Traverse the immediate variables of an expression.
vars :: Traversal' a Name
instance Vars Val where
vars k (ValVar x) = ValVar <$> k x
vars _ x = pure x
instance Vars a => Vars (Prim a) where
vars k p = traverseOf (each . vars) k p
instance Vars Exp where
vars k (ExpPrim p kap) = ExpPrim <$> vars k p <*> pure kap
vars k (ExpContinue kname xs) = ExpContinue <$> k kname <*> pure xs
vars _ e = pure e
data Scope
= Bind (List Name) Scope
| Use (List Name) Scope
| Leaf
deriving (Show, Eq)
makeBaseFunctor ''Scope
class Subst a where
substWith :: (Name -> Val) -> a -> a
instance Subst Exp where
substWith sub = cata \e ->
_
class Scoped a where
scope :: a -> Scope
instance Scoped Kappa where
scope (MkKappa bs e) =
Bind bs (scope e)
instance Scoped Val where
scope = \case
ValVar x -> Use [x] Leaf
_ -> Leaf
instance Scoped Exp where
scope = \case
ExpApply f xs k = _
+4 -5
View File
@@ -1,5 +1,5 @@
module Gyehoek.Driver
(main, lower_e2e, convert_e2e, parse_e2e)
(main, lower_e2e, convert_e2e, parse_e2e, readScm)
where
import Gyehoek.Options
@@ -102,10 +102,9 @@ driver opts = do
when opts.dumpCPS do
hPutStrLn FS.stdout $ Sexp.encodePretty cps ^?! _Right
wat <- lowerProgram cps
if not opts.inspectWasm then
withFile opts.output FS.WriteMode \h ->
hPutStrLn h wat
else
withFile opts.output FS.WriteMode \h ->
hPutStrLn h wat
when opts.inspectWasm do
inspectWasm wat
parse_e2e :: FilePath -> IO Scm.Program
+5
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@@ -72,6 +72,7 @@ data Prim e
| PrimWrite e
| PrimZeroP e
| PrimNewline
| PrimMakeClosure { code :: e, upvals :: List e }
deriving (Show, Generic, Functor, Foldable, Traversable, Data, Eq)
instance Each (Prim e) (Prim e') e e'
@@ -94,6 +95,7 @@ data Def
data Exp
= ExpLet (NonEmpty (Name, Exp)) Exp
| ExpLetRec (NonEmpty (Name, Exp)) Exp
| ExpPrim (Prim Exp)
| ExpBegin (List Exp)
| ExpIf Exp Exp Exp
@@ -154,12 +156,14 @@ primSexpIso namefn a = match
$ With (. unop "write")
$ With (. unop "zero?")
$ With (. nullop "newline")
$ With (. mkclosure)
$ End
where
idn s = el (sym (namefn s))
nullop s = list $ idn s
unop s = list $ idn s >>> el a
binop s = list $ idn s >>> el a >>> el a
mkclosure = list $ idn "make-closure" >>> el a >>> rest a
instance SexpIso a => SexpIso (Prim a) where
-- sexpIso = primSexpIso ("prim:"<>) sexpIso
@@ -203,6 +207,7 @@ instance SexpIso Def where
instance SexpIso Exp where
sexpIso = match
$ With (. Gyehoek.Sexp.let_ "let" sexpIso sexpIso sexpIso)
$ With (. Gyehoek.Sexp.let_ "letrec" sexpIso sexpIso sexpIso)
$ With (. sexpIso)
$ With (\bgn -> bgn . list (el (sym "begin") >>> rest sexpIso))
$ With (. if_)
+3 -1
View File
@@ -1 +1,3 @@
(values 1 2)
(letrec ((x 3)
(y 4))
(values x y))
+68 -191
View File
@@ -22,38 +22,60 @@
$cont-stack
(ref $cont-stack-type)
(array.new_default $cont-stack-type (i32.const 128)))
(type $arg-array-type (array (mut (ref null eq))))
(global
$arg-array
(ref $arg-array-type)
(array.new_default $arg-array-type (i32.const 32)))
(global $arg0 (mut (ref null eq)) (ref.null eq))
(global $arg1 (mut (ref null eq)) (ref.null eq))
(global $arg2 (mut (ref null eq)) (ref.null eq))
(global $arg3 (mut (ref null eq)) (ref.null eq))
(global $arg4 (mut (ref null eq)) (ref.null eq))
(global $arg5 (mut (ref null eq)) (ref.null eq))
(global $arg6 (mut (ref null eq)) (ref.null eq))
(global $arg7 (mut (ref null eq)) (ref.null eq))
(global $arg8 (mut (ref null eq)) (ref.null eq))
(global $arg9 (mut (ref null eq)) (ref.null eq))
(global $arg10 (mut (ref null eq)) (ref.null eq))
(global $arg11 (mut (ref null eq)) (ref.null eq))
(global $arg12 (mut (ref null eq)) (ref.null eq))
(global $arg13 (mut (ref null eq)) (ref.null eq))
(global $arg14 (mut (ref null eq)) (ref.null eq))
(global $arg15 (mut (ref null eq)) (ref.null eq))
(global $result (mut (ref null eq)) (ref.null eq))
(func
$halt
(param i32)
(@gyehoek "pop argument")
(global.get $arg-array)
(i32.const 0)
(array.get $arg-array-type)
(@gyehoek begin popArg)
(global.get $arg0)
ref.as_non_null
(@gyehoek end popArg)
(global.set $result))
(func
(param i32)
(@gyehoek :origin "(κ (x5) (continue λ-tail1 x5))")
(@gyehoek
:origin
"(λ (x λ-tail1) (prim (* x x) (κ (r2) (continue λ-tail1 r2))))")
(local (ref eq) (ref eq) (ref eq) (ref eq) (ref eq))
(@gyehoek "pop argument")
(global.get $arg-array)
(i32.const 0)
(array.get $arg-array-type)
ref.as_non_null
(local.set 1)
(@gyehoek :origin "(continue λ-tail1 x5)")
(@gyehoek
:origin
"(prim (* x x) (κ (r2) (continue λ-tail1 r2)))")
(global.get $arg1)
(i31.get_s (ref.cast (ref i31)))
(i32.const 1)
i32.shr_u
(global.get $arg1)
(i31.get_s (ref.cast (ref i31)))
(i32.const 1)
i32.shr_u
i32.mul
(@gyehoek "construct small fixnum")
(i32.const 1)
i32.shl
ref.i31
(global.set $arg2)
(@gyehoek :origin "(continue λ-tail1 r2)")
(@gyehoek "push args")
(@gyehoek "push argument")
(global.get $arg-array)
(i32.const 0)
(local.get 4)
(array.set $arg-array-type)
(@gyehoek begin pushArg)
(global.get $arg2)
(global.set $arg0)
(@gyehoek end pushArg)
(@gyehoek "nargs")
(i32.const 1)
(@gyehoek "pop cont stack")
@@ -69,58 +91,26 @@
(elem declare funcref (ref.func 3))
(func
(param i32)
(@gyehoek
:origin
"(κ (x3) (letrec ((r4 (κ (x5) (continue λ-tail1 x5)))) (f x3 r4)))")
(@gyehoek :origin "(κ (x4) (continue halt x4))")
(local (ref eq) (ref eq) (ref eq) (ref eq) (ref eq))
(@gyehoek "pop argument")
(global.get $arg-array)
(i32.const 0)
(array.get $arg-array-type)
ref.as_non_null
(local.set 1)
(@gyehoek :origin "(f x3 r4)")
(@gyehoek "push cont" :idx 3)
(array.set
$cont-stack-type
(global.get $cont-stack)
(global.get $cont-stack-top)
(ref.func 3))
(global.set
$cont-stack-top
(i32.add (global.get $cont-stack-top) (i32.const 1)))
(@gyehoek :origin "(f x3 r4)")
(@gyehoek "load args")
(@gyehoek "push argument")
(global.get $arg-array)
(i32.const 0)
(local.get 3)
(array.set $arg-array-type)
(i32.const 1)
(local.get 1)
(ref.cast (ref $closure))
(struct.get $closure $code)
(return_call_ref $cont-type))
(@gyehoek begin pushArg)
(global.get $arg2)
(global.set $arg0)
(@gyehoek end pushArg)
(return_call $halt (i32.const 1)))
(elem declare funcref (ref.func 4))
(func
$scm-entry
(param i32)
(@gyehoek
:origin
"(λ (f x λ-tail1) (letrec ((r2 (κ (x3) (letrec ((r4 (κ (x5) (continue λ-tail1 x5)))) (f x3 r4))))) (f x r2)))")
"(letrec ((λ-body0 (λ (x λ-tail1) (prim (* x x) (κ (r2) (continue λ-tail1 r2)))))) (letrec ((r3 (κ (x4) (continue halt x4)))) (λ-body0 5 r3)))")
(local (ref eq) (ref eq) (ref eq) (ref eq) (ref eq))
(@gyehoek "pop argument")
(global.get $arg-array)
(i32.const 0)
(array.get $arg-array-type)
ref.as_non_null
(local.set 1)
(@gyehoek "pop argument")
(global.get $arg-array)
(i32.const 1)
(array.get $arg-array-type)
ref.as_non_null
(local.set 2)
(@gyehoek :origin "(f x r2)")
(ref.func 3)
(struct.new $closure)
(global.set $arg1)
(@gyehoek :origin "(λ-body0 5 r3)")
(@gyehoek "push cont" :idx 4)
(array.set
$cont-stack-type
@@ -130,135 +120,22 @@
(global.set
$cont-stack-top
(i32.add (global.get $cont-stack-top) (i32.const 1)))
(@gyehoek :origin "(f x r2)")
(@gyehoek :origin "(λ-body0 5 r3)")
(@gyehoek "load args")
(@gyehoek "push argument")
(global.get $arg-array)
(i32.const 0)
(local.get 2)
(array.set $arg-array-type)
(@gyehoek begin pushArg)
(i32.const 5)
(@gyehoek "construct small fixnum")
(i32.const 1)
(local.get 1)
i32.shl
ref.i31
(global.set $arg0)
(@gyehoek end pushArg)
(i32.const 1)
(global.get $arg1)
(ref.cast (ref $closure))
(struct.get $closure $code)
(return_call_ref $cont-type))
(elem declare funcref (ref.func 5))
(func
(param i32)
(@gyehoek
:origin
"(λ (x λ-tail7) (prim (+ x 4) (κ (r8) (continue λ-tail7 r8))))")
(local (ref eq) (ref eq) (ref eq) (ref eq) (ref eq))
(@gyehoek "pop argument")
(global.get $arg-array)
(i32.const 0)
(array.get $arg-array-type)
ref.as_non_null
(local.set 1)
(@gyehoek
:origin
"(prim (+ x 4) (κ (r8) (continue λ-tail7 r8)))")
(local.get 1)
(i31.get_s (ref.cast (ref i31)))
(i32.const 1)
i32.shr_u
(i32.const 4)
(@gyehoek "construct small fixnum")
(i32.const 1)
i32.shl
ref.i31
(i31.get_s (ref.cast (ref i31)))
(i32.const 1)
i32.shr_u
i32.add
(@gyehoek "construct small fixnum")
(i32.const 1)
i32.shl
ref.i31
(local.set 2)
(@gyehoek :origin "(continue λ-tail7 r8)")
(@gyehoek "push args")
(@gyehoek "push argument")
(global.get $arg-array)
(i32.const 0)
(local.get 2)
(array.set $arg-array-type)
(@gyehoek "nargs")
(i32.const 1)
(@gyehoek "pop cont stack")
(global.get $cont-stack-top)
(i32.const 1)
i32.sub
(global.set $cont-stack-top)
(global.get $cont-stack)
(global.get $cont-stack-top)
(array.get $cont-stack-type)
ref.as_non_null
(return_call_ref $cont-type))
(elem declare funcref (ref.func 6))
(func
(param i32)
(@gyehoek :origin "(κ (x10) (continue halt x10))")
(local (ref eq) (ref eq) (ref eq) (ref eq) (ref eq))
(@gyehoek "pop argument")
(global.get $arg-array)
(i32.const 0)
(array.get $arg-array-type)
ref.as_non_null
(local.set 1)
(@gyehoek "push argument")
(global.get $arg-array)
(i32.const 0)
(local.get 3)
(array.set $arg-array-type)
(return_call $halt (i32.const 1)))
(elem declare funcref (ref.func 7))
(func
$scm-entry
(param i32)
(@gyehoek
:origin
"(letrec ((λ-body0 (λ (f x λ-tail1) (letrec ((r2 (κ (x3) (letrec ((r4 (κ (x5) (continue λ-tail1 x5)))) (f x3 r4))))) (f x r2))))) (letrec ((λ-body6 (λ (x λ-tail7) (prim (+ x 4) (κ (r8) (continue λ-tail7 r8)))))) (letrec ((r9 (κ (x10) (continue halt x10)))) (λ-body0 λ-body6 9 r9))))")
(local (ref eq) (ref eq) (ref eq) (ref eq) (ref eq))
(i32.const 0)
(ref.func 5)
(struct.new $closure)
(local.set 1)
(i32.const 0)
(ref.func 6)
(struct.new $closure)
(local.set 2)
(@gyehoek :origin "(λ-body0 λ-body6 9 r9)")
(@gyehoek "push cont" :idx 7)
(array.set
$cont-stack-type
(global.get $cont-stack)
(global.get $cont-stack-top)
(ref.func 7))
(global.set
$cont-stack-top
(i32.add (global.get $cont-stack-top) (i32.const 1)))
(@gyehoek :origin "(λ-body0 λ-body6 9 r9)")
(@gyehoek "load args")
(@gyehoek "push argument")
(global.get $arg-array)
(i32.const 0)
(local.get 2)
(array.set $arg-array-type)
(@gyehoek "push argument")
(global.get $arg-array)
(i32.const 1)
(i32.const 9)
(@gyehoek "construct small fixnum")
(i32.const 1)
i32.shl
ref.i31
(array.set $arg-array-type)
(i32.const 1)
(local.get 1)
(ref.cast (ref $closure))
(struct.get $closure $code)
(return_call_ref $cont-type))
(return_call_ref $cont-type)
(@gyehoek todo (f' (global.get $arg1)) (ktail 1)))
(func
(export "main")
(call $scm-entry (i32.const 0))
+11 -9
View File
@@ -18,15 +18,17 @@ root = pure . testGroup "cps syntax" $
]
freeTree :: TestTree
freeTree = testCase "free" do
Sut.free [cps|
(letrec ((x (lambda (r k1) (continue k1 y)))
(y (lambda (r k2) (continue k2 x))))
(continue x y k3))|] @=? ["k3"]
Sut.free' [cps|
(letrec ((x (lambda (r k1) (continue k1 y)))
(y (lambda (r k2) (continue k2 x))))
(continue x y k3))|] @=? ["k3"]
freeTree = testGroup "free"
[ testCase "lambda" do
Sut.free' @Sut.Lambda [cps|
(lambda (x y z k1) (continue k1 x a b c y))
|] @=? ["a","b","c"]
, testCase "exp" do
Sut.free' @Sut.Exp [cps|
(letrec ((x (lambda (r k1) (continue k1 y)))
(y (lambda (r k2) (continue k2 x))))
(continue x y k3))|] @=? ["k3"]
]
qqTree :: TestTree
qqTree = testGroup "parser"