-- Hoogle documentation, generated by Haddock
-- See Hoogle, http://www.haskell.org/hoogle/


-- | Automatic inductive functional programmer by systematic search
--   
--   MagicHaskeller is an inductive functional programming system for
--   Haskell. This package contains the MagicHaskeller library, which can
--   be used within GHCi or as an API for inductive program synthesis. It
--   also contains the MagicHaskeller executable that is a standalone
--   synthesis program which can be used interactively or as a backend
--   server, and the MagicHaskeller.cgi executable that is a CGI frontend
--   for providing the Web interface.
@package MagicHaskeller
@version 0.9.6.7

module MagicHaskeller.PolyDynamic
data Dynamic
Dynamic :: Type -> (forall a. a) -> Exp -> Dynamic
[dynType] :: Dynamic -> Type
[unsafeFromDyn] :: Dynamic -> forall a. a
[dynExp] :: Dynamic -> Exp
fromDyn :: Typeable a => TyConLib -> Dynamic -> a -> a
fromDynamic :: MonadPlus m => Type -> Dynamic -> m a
dynApply :: Dynamic -> Dynamic -> Maybe Dynamic
dynApp :: Dynamic -> Dynamic -> Dynamic
infixl 9 `dynApp`
dynAppErr :: String -> Dynamic -> Dynamic -> Dynamic
unsafeToDyn :: TyConLib -> Type -> a -> Exp -> Dynamic
aLittleSafeFromDyn :: Type -> Dynamic -> a
fromPD :: a -> a
dynamic :: ExpQ -> ExpQ -> ExpQ
dynamicH :: ExpQ -> Name -> TypeQ -> ExpQ
instance GHC.Show.Show MagicHaskeller.PolyDynamic.Dynamic

module MagicHaskeller.GetTime
batchWrite :: FilePath -> [IO a] -> IO ()
batchRun :: [IO a] -> IO [Integer]
time :: IO a -> IO (a, Integer)
showZero :: [Char] -> [Char]
showCPUTime :: Integer -> String
lenPrec :: Int

module MagicHaskeller.FastRatio
data Ratio a
(:%) :: !Integer -> !Integer -> Ratio a
type Rational = Ratio Integer
(%) :: Integral a => a -> a -> Ratio a
numerator :: Integral a => Ratio a -> a
denominator :: Integral a => Ratio a -> a
notANumber :: Ratio a
reduce :: Integer -> Integer -> Ratio a
choose :: Ratio a -> Ratio a
instance GHC.Classes.Ord (MagicHaskeller.FastRatio.Ratio a)
instance GHC.Classes.Eq (MagicHaskeller.FastRatio.Ratio a)
instance GHC.Real.Integral a => GHC.Num.Num (MagicHaskeller.FastRatio.Ratio a)
instance GHC.Real.Integral a => GHC.Real.Fractional (MagicHaskeller.FastRatio.Ratio a)
instance GHC.Real.Integral a => GHC.Real.RealFrac (MagicHaskeller.FastRatio.Ratio a)
instance (GHC.Show.Show a, GHC.Real.Integral a) => GHC.Show.Show (MagicHaskeller.FastRatio.Ratio a)
instance GHC.Real.Integral a => GHC.Real.Real (MagicHaskeller.FastRatio.Ratio a)
instance GHC.Real.Integral a => GHC.Enum.Enum (MagicHaskeller.FastRatio.Ratio a)

module MagicHaskeller.CoreLang
type Var = Int16
data CoreExpr
S :: CoreExpr
K :: CoreExpr
I :: CoreExpr
B :: CoreExpr
C :: CoreExpr
S' :: CoreExpr
B' :: CoreExpr
C' :: CoreExpr
Y :: CoreExpr
Lambda :: CoreExpr -> CoreExpr
X :: {-# UNPACK #-} !Int8 -> CoreExpr
FunLambda :: CoreExpr -> CoreExpr
FunX :: Int8 -> CoreExpr
Tuple :: {-# UNPACK #-} !Int8 -> CoreExpr
Primitive :: {-# UNPACK #-} !Var -> CoreExpr
[primId] :: CoreExpr -> {-# UNPACK #-} !Var
PrimCon :: {-# UNPACK #-} !Var -> CoreExpr
[primId] :: CoreExpr -> {-# UNPACK #-} !Var
Context :: Dictionary -> CoreExpr
(:$) :: CoreExpr -> CoreExpr -> CoreExpr
Case :: CoreExpr -> [(Var, Int8, CoreExpr)] -> CoreExpr
Fix :: CoreExpr -> Int8 -> [Int8] -> CoreExpr
VarName :: String -> CoreExpr
newtype Dictionary
Dict :: Dynamic -> Dictionary
[undict] :: Dictionary -> Dynamic
arityCE :: CoreExpr -> Int
isAbsent :: Int -> CoreExpr -> Bool
isa :: Integer -> CoreExpr -> Integer
type VarLib = Array Var Dynamic
type VarPriorityLib = Array Var Int
actualVarName :: String -> Exp
stripByd_ :: [Char] -> [Char]
headIsX :: CoreExpr -> Bool
isAPrimitiveCombinator :: CoreExpr -> Bool
removeAbsents :: CoreExpr -> CoreExpr
adjustXs :: (Num a, Bits a) => a -> Int8 -> CoreExpr -> CoreExpr
unboundXs :: (Num a, Bits a) => Int8 -> CoreExpr -> a
subexprs :: CoreExpr -> [CoreExpr]
sub :: Integral i => i -> CoreExpr -> [CoreExpr]
branches :: CoreExpr -> [CoreExpr]
bra :: Integral i => i -> CoreExpr -> [CoreExpr]

-- | <a>parentsOfLeaves</a> collects branch nodes whose children are leaf
--   nodes. This can be used for incremental learning.
parentsOfLeaves :: CoreExpr -> [CoreExpr]
pol :: Integral i => i -> CoreExpr -> [CoreExpr]
args :: CoreExpr -> [CoreExpr]
isALeaf :: CoreExpr -> Bool
ceToPriority :: VarPriorityLib -> CoreExpr -> Int
exprToTHExp :: VarLib -> CoreExpr -> Exp
exprToTHExpLite :: VarLib -> CoreExpr -> Exp
exprToTHExp' :: Bool -> Array Var Dynamic -> CoreExpr -> Exp
funOccursIn :: Int8 -> CoreExpr -> Bool
lightBeta :: CoreExpr -> CoreExpr
replace :: Int8 -> Int8 -> CoreExpr -> CoreExpr
liftFun :: Int8 -> CoreExpr -> CoreExpr
nlift :: Int8 -> Int8 -> CoreExpr -> CoreExpr
nliftInt :: Int8 -> Int8 -> Int8 -> Int8
napply :: Integral i => i -> (a -> a) -> a -> a
type Primitive = (HValue, Exp, Type)
newtype HValue
HV :: (forall a. a) -> HValue
primitivesToTCL :: [Primitive] -> TyConLib
primitivesToVL :: TyConLib -> [Primitive] -> VarLib

-- | <a>dynamicsToVL</a> is useful for incremental learning.
dynamicsToVL :: [Dynamic] -> VarLib
prioritiesToVPL :: [Int] -> VarPriorityLib
listToArray :: (Integral i, Ix i) => [a] -> Array i a
primitiveToDynamic :: TyConLib -> Primitive -> Dynamic

-- | <a>defaultVarLib</a> can be used as a VarLib for testing and
--   debugging. Currently this is used only by the analytical synthesizer.
defaultVarLib :: VarLib
lenDefaultPrimitives :: Integer

-- | <tt>defaultPrimitives</tt> is the set of primitives that we want to
--   make sure to appear in VarLib but may not appear in the primitive set
--   with which to synthesize. In other words, it is the set of primitives
--   we want to make sure to assign IDs to.
defaultPrimitives :: [Dynamic]
instance GHC.Classes.Ord MagicHaskeller.CoreLang.CoreExpr
instance GHC.Show.Show MagicHaskeller.CoreLang.CoreExpr
instance GHC.Classes.Eq MagicHaskeller.CoreLang.CoreExpr
instance GHC.Show.Show MagicHaskeller.CoreLang.Dictionary
instance GHC.Classes.Ord MagicHaskeller.CoreLang.Dictionary
instance GHC.Classes.Eq MagicHaskeller.CoreLang.Dictionary
instance GHC.Read.Read Language.Haskell.TH.Syntax.Exp

module MagicHaskeller.ExecuteAPI610
pathToGHC :: FilePath
loadObj :: [String] -> IO (VarLib -> CoreExpr -> Dynamic)
prepareAPI :: [FilePath] -> [FilePath] -> IO HscEnv
packageNameToFlag :: String -> PackageFlag
unsafeExecuteAPI :: HscEnv -> VarLib -> CoreExpr -> Dynamic
executeAPI :: HscEnv -> VarLib -> CoreExpr -> IO a
executeTHExp :: HscEnv -> Exp -> IO a
compileCoreExpr :: HscEnv -> Exp -> IO CoreExpr
unwrapCore :: HscEnv -> CoreExpr -> IO a
ce2b :: HscEnv -> CoreExpr -> IO UnlinkedBCO
runCoreExpr :: HscEnv -> CoreExpr -> IO a
runPrepedCoreExpr :: HscEnv -> CoreExpr -> IO a
stmtToCore :: HscEnv -> GhciLStmt RdrName -> IO (Maybe ([Id], CoreExpr))
perror :: DynFlags -> (Bag ErrMsg, Bag ErrMsg) -> IO (Maybe a)
thExpToStmt :: HscEnv -> Exp -> Located (StmtLR RdrName RdrName body)
wrapLHsExpr :: LHsExpr RdrName -> Located (StmtLR RdrName RdrName body)
thExpToLHsExpr :: HscEnv -> Exp -> LHsExpr RdrName
compileExprHscMain :: HscEnv -> CoreExpr -> IO HValue
repeatN :: Int -> (a1 -> a) -> a1 -> a
repeatIO :: Monad f => Int -> f b -> f b
force :: [a] -> a
instance GHC.Classes.Eq (CoreSyn.Expr a)

module Control.Monad.Search.Combinatorial
newtype Matrix a
Mx :: Stream (Bag a) -> Matrix a
[unMx] :: Matrix a -> Stream (Bag a)
(/\) :: Monad m => (a -> m b) -> (t -> m a) -> t -> m b
(\/) :: MonadPlus m => (t -> m a) -> (t -> m a) -> t -> m a
newtype Recomp a
Rc :: (Int -> Bag a) -> Recomp a
[unRc] :: Recomp a -> Int -> Bag a
newtype RecompT m a
RcT :: (Int -> m (Bag a)) -> RecompT m a
[unRcT] :: RecompT m a -> Int -> m (Bag a)
rcToMx :: Recomp a -> Matrix a
mxToRc :: Matrix a -> Recomp a
class (Delay m, MonadPlus m, Functor m) => Search m where catBags = mapDepth concat mergesortDepthWithBy combiner comp = mapDepth (mergesortWithBy combiner comp)
fromRc :: Search m => Recomp a -> m a
toRc :: Search m => m a -> Recomp a
fromMx :: Search m => Matrix a -> m a
toMx :: Search m => m a -> Matrix a
fromDB :: Search m => DBound a -> m a
fromDF :: Search m => [a] -> m a
toDF :: Search m => m a -> [a]

-- | <a>mapDepth</a> applies a function to the bag at each depth.
mapDepth :: Search m => (Bag a -> Bag b) -> m a -> m b

-- | <a>catBags</a> flattens each bag.
catBags :: Search m => m (Bag a) -> m a

-- | <a>mergesortDepthWithBy</a> converts bags to sets, by (possibly
--   sorting each bag and) removing duplicates. Efficiency on lists with
--   lots of duplicates is required.
mergesortDepthWithBy :: Search m => (k -> k -> k) -> (k -> k -> Ordering) -> m k -> m k
ifDepth :: Search m => (Int -> Bool) -> m a -> m a -> m a
diag :: Stream (Stream a) -> Stream (Bag a)
class Delay m where delay = ndelay 1 ndelay n x = iterate delay x !! n
delay :: Delay m => m a -> m a
ndelay :: Delay m => Int -> m a -> m a
getDepth :: Delay m => m Int
msumMx :: Bag a -> Matrix a
msumRc :: Bag a -> Recomp a
listToRc :: Bag a -> Recomp a
consMx :: Bag a -> Matrix a -> Matrix a
consRc :: Bag a -> Recomp a -> Recomp a
zipWithBF :: Monad m => (a -> b -> m c) -> m a -> m b -> m c
printMx :: Show a => Matrix a -> IO ()
printNMx :: Show a => Int -> Matrix a -> IO ()
mapDepthDB :: DB m => (Bag (a, Int) -> Bag (b, Int)) -> m a -> m b
type Bag a = [a]
type Stream a = [a]
cat :: [[a]] -> [a]
toList :: a -> a
getDepth :: Delay m => m Int
scanl1BF :: Search m => m x -> m x
zipDepthMx :: (Int -> Bag a -> Bag b) -> Matrix a -> Matrix b
zipDepthRc :: (Int -> Bag a -> Bag b) -> Recomp a -> Recomp b
zipDepth3Mx :: (Int -> Bag a -> Bag b -> Bag c) -> Matrix a -> Matrix b -> Matrix c
zipDepth3Rc :: (Int -> Bag a -> Bag b -> Bag c) -> Recomp a -> Recomp b -> Recomp c
scanlRc :: (Bag a -> Bag b -> Bag a) -> Bag a -> Recomp b -> Recomp a
newtype DBound a
DB :: (Int -> Bag (a, Int)) -> DBound a
[unDB] :: DBound a -> Int -> Bag (a, Int)
newtype DBoundT m a
DBT :: (Int -> m (Bag (a, Int))) -> DBoundT m a
[unDBT] :: DBoundT m a -> Int -> m (Bag (a, Int))
zipDepthDB :: DB m => (Int -> Bag (a, Int) -> Bag (b, Int)) -> m a -> m b
newtype DBMemo a
DBM :: Stream (Bag (a, Int)) -> DBMemo a
[unDBM] :: DBMemo a -> Stream (Bag (a, Int))
class (Search n) => Memoable m n
tabulate :: Memoable m n => n a -> m a
applyMemo :: Memoable m n => m a -> n a
shrink :: (Num t, Ix t) => (t1 -> t1 -> t1) -> (t1 -> t1 -> Maybe Ordering) -> t -> [(t1, t)] -> [(t1, t)]
class Search m => DB m
mapDepthDB :: DB m => (Bag (a, Int) -> Bag (b, Int)) -> m a -> m b
zipDepthDB :: DB m => (Int -> Bag (a, Int) -> Bag (b, Int)) -> m a -> m b
dbtToRcT :: Monad m => DBoundT m a -> RecompT m a
instance GHC.Show.Show a => GHC.Show.Show (Control.Monad.Search.Combinatorial.Matrix a)
instance GHC.Base.Monoid (Control.Monad.Search.Combinatorial.Matrix a)
instance GHC.Base.Monoid (Control.Monad.Search.Combinatorial.Recomp a)
instance (GHC.Base.Functor m, GHC.Base.Monad m) => GHC.Base.Monoid (Control.Monad.Search.Combinatorial.RecompT m a)
instance GHC.Base.Applicative Control.Monad.Search.Combinatorial.Matrix
instance GHC.Base.Monad Control.Monad.Search.Combinatorial.Matrix
instance GHC.Base.Alternative Control.Monad.Search.Combinatorial.Matrix
instance GHC.Base.MonadPlus Control.Monad.Search.Combinatorial.Matrix
instance GHC.Base.Functor Control.Monad.Search.Combinatorial.Matrix
instance GHC.Base.Functor Control.Monad.Search.Combinatorial.Recomp
instance GHC.Base.Functor Control.Monad.Search.Combinatorial.DBound
instance GHC.Base.Functor f => GHC.Base.Functor (Control.Monad.Search.Combinatorial.RecompT f)
instance GHC.Base.Functor f => GHC.Base.Functor (Control.Monad.Search.Combinatorial.DBoundT f)
instance GHC.Base.Applicative Control.Monad.Search.Combinatorial.Recomp
instance GHC.Base.Monad Control.Monad.Search.Combinatorial.Recomp
instance (GHC.Base.Functor m, GHC.Base.Monad m) => GHC.Base.Applicative (Control.Monad.Search.Combinatorial.RecompT m)
instance (GHC.Base.Functor m, GHC.Base.Monad m) => GHC.Base.Monad (Control.Monad.Search.Combinatorial.RecompT m)
instance GHC.Base.Alternative Control.Monad.Search.Combinatorial.Recomp
instance GHC.Base.MonadPlus Control.Monad.Search.Combinatorial.Recomp
instance (GHC.Base.Functor m, GHC.Base.Monad m) => GHC.Base.Alternative (Control.Monad.Search.Combinatorial.RecompT m)
instance (GHC.Base.Functor m, GHC.Base.Monad m) => GHC.Base.MonadPlus (Control.Monad.Search.Combinatorial.RecompT m)
instance Control.Monad.Search.Combinatorial.DB Control.Monad.Search.Combinatorial.DBound
instance (GHC.Base.Functor m, GHC.Base.Monad m) => Control.Monad.Search.Combinatorial.DB (Control.Monad.Search.Combinatorial.DBoundT m)
instance Control.Monad.Search.Combinatorial.Delay Control.Monad.Search.Combinatorial.DepthFst
instance Control.Monad.Search.Combinatorial.Delay Control.Monad.Search.Combinatorial.Recomp
instance Control.Monad.Search.Combinatorial.Delay Control.Monad.Search.Combinatorial.Matrix
instance GHC.Base.Monad m => Control.Monad.Search.Combinatorial.Delay (Control.Monad.Search.Combinatorial.RecompT m)
instance (GHC.Base.Monad m, Control.Monad.Search.Combinatorial.Delay m) => Control.Monad.Search.Combinatorial.Delay (Control.Monad.Trans.State.Lazy.StateT s m)
instance Control.Monad.Search.Combinatorial.Search Control.Monad.Search.Combinatorial.DepthFst
instance Control.Monad.Search.Combinatorial.Search Control.Monad.Search.Combinatorial.Recomp
instance (GHC.Base.Functor m, GHC.Base.Monad m) => Control.Monad.Search.Combinatorial.Search (Control.Monad.Search.Combinatorial.RecompT m)
instance Control.Monad.Search.Combinatorial.Search Control.Monad.Search.Combinatorial.Matrix
instance GHC.Show.Show (Control.Monad.Search.Combinatorial.Recomp a)
instance GHC.Show.Show (Control.Monad.Search.Combinatorial.DBound a)
instance GHC.Base.Applicative Control.Monad.Search.Combinatorial.DBound
instance GHC.Base.Monad Control.Monad.Search.Combinatorial.DBound
instance (GHC.Base.Functor m, GHC.Base.Monad m) => GHC.Base.Applicative (Control.Monad.Search.Combinatorial.DBoundT m)
instance (GHC.Base.Functor m, GHC.Base.Monad m) => GHC.Base.Monad (Control.Monad.Search.Combinatorial.DBoundT m)
instance GHC.Base.Alternative Control.Monad.Search.Combinatorial.DBound
instance GHC.Base.MonadPlus Control.Monad.Search.Combinatorial.DBound
instance (GHC.Base.Functor m, GHC.Base.Monad m) => GHC.Base.Alternative (Control.Monad.Search.Combinatorial.DBoundT m)
instance (GHC.Base.Functor m, GHC.Base.Monad m) => GHC.Base.MonadPlus (Control.Monad.Search.Combinatorial.DBoundT m)
instance Control.Monad.Search.Combinatorial.Delay Control.Monad.Search.Combinatorial.DBound
instance GHC.Base.Monad m => Control.Monad.Search.Combinatorial.Delay (Control.Monad.Search.Combinatorial.DBoundT m)
instance Control.Monad.Search.Combinatorial.Search Control.Monad.Search.Combinatorial.DBound
instance (GHC.Base.Functor m, GHC.Base.Monad m) => Control.Monad.Search.Combinatorial.Search (Control.Monad.Search.Combinatorial.DBoundT m)
instance Control.Monad.Search.Combinatorial.Memoable Control.Monad.Search.Combinatorial.Matrix Control.Monad.Search.Combinatorial.Recomp
instance Control.Monad.Search.Combinatorial.Memoable Control.Monad.Search.Combinatorial.DBMemo Control.Monad.Search.Combinatorial.DBound

module MagicHaskeller.Instantiate
mkRandTrie :: [Int] -> TyConLib -> Generator -> RTrie
type RTrie = (CmpMap, Maps, MemoMap, Tries, MapType (Dynamic, Dynamic))
uncurryDyn :: Dynamic -> Type -> Dynamic -> Dynamic

-- | <a>uncurryTy</a> converts <tt>a-&gt;b-&gt;c-&gt;d-&gt;e-&gt;r</tt>
--   into <tt>((((a,b),c),d),e)-&gt;r</tt> Note that <tt>Arbitrary
--   (a,b,c,d,e)</tt> is not defined in <tt>Test.QuickCheck</tt>.
uncurryTy :: TyConLib -> Type -> Type
mkUncurry :: TyConLib -> Dynamic
typeToOrd :: CmpMap -> Type -> Maybe Dynamic
typeToRandomsOrd :: TyConLib -> RTrie -> Type -> Order
typeToRandomsOrdDM :: [Int] -> TyConLib -> RTrie -> Type -> Maybe ([[Dynamic]], PackedOrd)
mkCurry :: TyConLib -> Dynamic
curryDyn :: Dynamic -> Type -> Dynamic -> Dynamic
argTypeToRandoms :: TyConLib -> CmpMap -> Maps -> Type -> Maybe [Dynamic]
typeToArb :: ArbMap -> CoarbMap -> Type -> Maybe Dynamic
type PackedOrd = Dynamic -> Dynamic -> Ordering
typeToCompare :: TyConLib -> CmpMap -> Type -> Maybe (Dynamic -> Dynamic -> Ordering)
compareRealFloat :: (NearEq a, RealFloat a) => a -> a -> Ordering

module MagicHaskeller.Expression
data AnnExpr
AE :: CoreExpr -> Dynamic -> AnnExpr
data MemoExpr
ME :: CoreExpr -> Dynamic -> Dynamic -> MemoExpr
aeToME :: TyConLib -> RTrie -> Type -> AnnExpr -> MemoExpr
meToAE :: MemoExpr -> AnnExpr
class (Ord e, Show e) => Expression e where reorganizeId' fun avail = case cvtAvails' avail of { (args, newavail) -> fmap (\ e -> replaceVars' 0 e args) $ fun newavail }
mkHead :: (Expression e, Integral i, Integral j) => (CoreExpr -> Dynamic) -> i -> j -> j -> CoreExpr -> e
toCE :: Expression e => e -> CoreExpr
fromCE :: Expression e => (CoreExpr -> Dynamic) -> CoreExpr -> e
mapCE :: Expression e => (CoreExpr -> CoreExpr) -> e -> e
aeAppErr :: Expression e => String -> e -> e -> e
appEnv :: Expression e => Int8 -> e -> e -> e
toAnnExpr :: Expression e => (CoreExpr -> Dynamic) -> e -> AnnExpr
toAnnExprWind :: Expression e => (CoreExpr -> Dynamic) -> Type -> e -> AnnExpr
toAnnExprWindWind :: Expression e => (CoreExpr -> Dynamic) -> Type -> e -> AnnExpr
fromAnnExpr :: Expression e => AnnExpr -> e
reorganize :: (Expression e, Monad m) => ([Type] -> m [e]) -> [Type] -> m [e]
reorganize' :: (Expression e, Monad m) => ([Type] -> m [e]) -> [Type] -> m [e]
reorganizeId :: Expression e => ([Type] -> [e]) -> [Type] -> [e]
replaceVars' :: Expression e => Int8 -> e -> [Int8] -> e
reorganizeId' :: (Expression e, Functor m) => ([Type] -> m e) -> [Type] -> m e
decodeVars :: Expression e => Int -> [Int8] -> e -> e
mapFst3 :: (t3 -> t2) -> (t3, t1, t) -> (t2, t1, t)
decodeVarsPos :: [Int8] -> ([CoreExpr], t1, t) -> ([CoreExpr], t1, t)
decodeVarsCE :: [Int8] -> CoreExpr -> CoreExpr
decodeVarsCE' :: Int8 -> Array Int8 Int8 -> CoreExpr -> CoreExpr
decodeVarsAE :: Int -> [Int8] -> AnnExpr -> AnnExpr
decodeVarsDyn :: Int -> [Int8] -> Dynamic -> Dynamic
insAbsents :: Int8 -> [Int8] -> Dynamic
(<$>) :: Expression e => e -> e -> e
mkHeadAE :: (CoreExpr -> Dynamic) -> Int8 -> Int -> Int8 -> CoreExpr -> AnnExpr
windType :: Type -> CoreExpr -> CoreExpr
dynSn :: Int8 -> Dynamic
getDyn :: Int8 -> Int8 -> Dynamic
mkDyn :: Int8 -> Int8 -> Dynamic
dynss :: [[Dynamic]]
x :: Integral t => t -> Dynamic
finiteDynar :: Array (Int8, Int8) Dynamic
finiteDynarr :: Array (Int8, Int8, Int8) Dynamic
finiteDynss :: [[Dynamic]]
finiteDynsss :: [[[Dynamic]]]
getDyn_LambdaBoundHead :: Int8 -> Int8 -> Int8 -> Dynamic
mkDyn_LambdaBoundHead :: Int8 -> Int8 -> Int8 -> Dynamic
dynsss :: [[[Dynamic]]]
dynBK :: Dynamic
reorganizer :: Monad m => ([Type] -> m [CoreExpr]) -> [Type] -> m [CoreExpr]
reorganizerId :: ([Type] -> [CoreExpr]) -> [Type] -> [CoreExpr]
replaceVars :: Int8 -> CoreExpr -> [[Int8]] -> [CoreExpr]
cvtAvails :: [Type] -> ([Type], [[Int8]])
tkr10 :: [(Type, a)] -> [(Type, [a])]
annotate :: [Type] -> [(Type, Int8)]
reorganizeCE' :: Monad m => ([Type] -> m [CoreExpr]) -> [Type] -> m [CoreExpr]
replaceVarsCE' :: Int8 -> CoreExpr -> [Int8] -> CoreExpr
cvtAvails' :: [Type] -> ([Int8], [Type])
uniqSorter :: (Expression e) => [(e, Int)] -> [(e, Int)]
uniqSortPatAVL :: (Expression e) => [(e, Int)] -> [(e, Int)]
uniqSort :: Ord a => [a] -> [a]
uniqSortAVL :: Ord a => [a] -> [a]
swapUniqSort :: (Ord a, Ord b) => [(a, b)] -> [(a, b)]
see :: Int8 -> Int8 -> String
seeType :: Int8 -> Int8 -> CoreExpr
sees :: Int8 -> Int8 -> Int8 -> String
seesType :: Int8 -> Int8 -> Int8 -> CoreExpr
e2THE :: CoreExpr -> Exp
printTables :: IO ()
printTable :: IO ()
pprintType :: Type -> String
mkVName :: Char -> Int -> Q Name
mkVNames :: Char -> Int -> Q [Name]
mkEs :: Int -> Q [Name]
mkAs :: Int -> Q [Name]
mkXs :: Int -> Q [Name]
mkHd :: Q Name
hdmnTHEQ :: Int8 -> Int8 -> ExpQ
aimnTHEQ :: Int8 -> Int8 -> Int8 -> ExpQ
hdmnTHE :: Int8 -> Int8 -> Exp
aimnTHE :: Int8 -> Int8 -> Int8 -> Exp
hdmnty :: Int8 -> Int8 -> Type
aimnty :: Int8 -> Int8 -> Int8 -> Type
mkTV :: TyVar -> Type
tvrs :: [Type]
tvas :: [Type]
tvr :: Type
maxArity :: Int8
maxLenavails :: Int8
maxDebindex :: Int8
mkCE :: Int8 -> Int8 -> CoreExpr
mkCE_LambdaBoundHead :: Int8 -> Int8 -> Int8 -> CoreExpr
data CoreExpr
instance GHC.Show.Show MagicHaskeller.Expression.AnnExpr
instance GHC.Classes.Eq MagicHaskeller.Expression.AnnExpr
instance GHC.Classes.Ord MagicHaskeller.Expression.AnnExpr
instance MagicHaskeller.Expression.Expression MagicHaskeller.CoreLang.CoreExpr
instance MagicHaskeller.Expression.Expression MagicHaskeller.Expression.AnnExpr

module MagicHaskeller.Options

-- | options that limit the hypothesis space.
data Opt a
Opt :: Maybe a -> Int -> (Type -> Int -> Bool) -> MemoCond -> (VarLib -> CoreExpr -> Dynamic) -> Maybe Int -> Bool -> Bool -> Bool -> Bool -> Int -> Bool -> Bool -> TFGen -> [Int] -> (Int -> Int) -> Opt a

-- | Use this option if you want to use a different component library for
--   the stage of solving the inhabitation problem. <tt>Nothing</tt> means
--   using the same one. This option makes sense only when using *SF style
--   generators, because otherwise the program generation is not staged.
--   Using a minimal set for solving the inhabitation and a redundant
--   library for the real program generation can be a good bet.
[primopt] :: Opt a -> Maybe a

-- | memoization depth. (Sub)expressions within this size are memoized,
--   while greater expressions will be recomputed (to save the heap space).
--   Only effective when using <tt>ProgGen</tt> and unless using the
--   <tt>everythingIO</tt> family.
[memodepth] :: Opt a -> Int

-- | This represents when to memoize. It takes the query type and the query
--   depth, and returns <tt>True</tt> if the corresponding entry should be
--   looked up from the lazy memo table. Currently this only works for
--   ProgGenSF.
[memoCondPure] :: Opt a -> Type -> Int -> Bool

-- | This represents which memoization table to be used based on the query
--   type and the search depth, when using the <tt>everythingIO</tt>
--   family.
[memoCond] :: Opt a -> MemoCond
[execute] :: Opt a -> VarLib -> CoreExpr -> Dynamic

-- | <tt>Just ms</tt> sets the timeout to <tt>ms</tt> microseconds. Also,
--   my implementation of timeout also catches inevitable exceptions like
--   stack space overflow. Note that setting timeout makes the library
--   referentially untransparent. (But currently <tt>Just 20000</tt> is the
--   default!) Setting this option to <tt>Nothing</tt> disables both
--   timeout and capturing exceptions.
[timeout] :: Opt a -> Maybe Int

-- | If this option is <tt>True</tt>, <a>forkProcess</a> instead of
--   <a>forkIO</a> is used for timeout. The former is much heavier than the
--   latter, but is more preemptive and thus is necessary for interrupting
--   some infinite loops. This record is ignored if FORCIBLETO is not
--   defined.
[forcibleTimeout] :: Opt a -> Bool

-- | If this option is <tt>True</tt>, the program guesses whether each
--   function is a case<i>catamorphism</i>paramorphism or not. This
--   information is used to filter out some duplicate expressions.
--   (History: I once abandoned this guessing strategy around the time I
--   moved to the library implementation, because I could not formally
--   prove the exhaustiveness of the resulting algorithm. For this reason,
--   the old standalone version of MagicHaskeller uses this strategy, but
--   almost the same effect can be obtained by setting this option to True,
--   or using <a>init075</a> instead of <a>initialize</a>.
[guess] :: Opt a -> Bool

-- | This option is now obsolete, and we always assume True now. If this
--   option was <tt>False</tt>, data structures might not contain
--   functions, and thus types like <tt>[Int-&gt;Int]</tt>,
--   <tt>(Int-&gt;Bool, Char)</tt>, etc. were not permitted. (NB: recently
--   I noticed that making this <tt>False</tt> might not improve the
--   efficiency of generating lambda terms at all, though when I generated
--   combinatory expressions it WAS necessary. In fact, I mistakenly turned
--   this limitation off, and my code always regarded this as True, but I
--   did not notice that, so this option can be obsoleted.)
[contain] :: Opt a -> Bool

-- | If this option is <tt>True</tt>, matching at the antecedent of
--   induction rules may occur, which constrains generation of existential
--   types. You need to use prefixed <tt>(-&gt;)</tt> to show that some
--   parameter can be matched at the antecedent, e.g., <tt><tt>p</tt> [| (
--   []::[a], (:)::a-&gt;[a]-&gt;[a], foldr :: (a-&gt;b-&gt;b) -&gt; b
--   -&gt; (-&gt;) [a] b ) |]</tt> See LibTH.hs for examples.
[constrL] :: Opt a -> Bool

-- | Each time the type variable which appears in the return type of a
--   function (e.g. <tt>b</tt> in
--   <tt>foldr::(a-&gt;b-&gt;b)-&gt;b-&gt;[a]-&gt;b</tt>) is expanded to a
--   function type, the search priority of the current computation is
--   lowered by this number. It's default value is 1, which means there is
--   nothing special, and the priority for each expression corresponds to
--   the number of function applications in the expression.
--   
--   Example: when tvndelay = 1,
--   
--   The priority of
--   
--   <pre>
--   \xs -&gt; foldr (\x y -&gt; x+y) 0 xs
--   </pre>
--   
--   is 5, because there are five <tt>$</tt>'s in
--   
--   <pre>
--   \xs -&gt; ((foldr $ (\x y -&gt; ((+) $ x) $ y)) $ 0) xs
--   </pre>
--   
--   The priority of
--   
--   <pre>
--   \xs ys -&gt; foldr (\x y zs -&gt; x : y zs) (\ws-&gt;ws) xs ys
--   </pre>
--   
--   is 7, because there are seven <tt>$</tt>'s in
--   
--   <pre>
--   \xs ys -&gt; (((foldr $ (\x y zs -&gt; (((:) $ x) $ y) $ zs)) $ (\ws-&gt;ws)) $ xs) $ ys
--   </pre>
--   
--   Example: when tvndelay = 2,
--   
--   The priority of
--   
--   <pre>
--   \xs -&gt; foldr (\x y -&gt; x+y) 0 xs
--   </pre>
--   
--   is 5, because there are five <tt>$</tt>'s in
--   
--   <pre>
--   \xs -&gt; ((foldr $ (\x y -&gt; ((+) $ x) $ y)) $ 0) xs
--   </pre>
--   
--   The priority of
--   
--   <pre>
--   \xs ys -&gt; foldr (\x y zs -&gt; x : y zs) (\ws-&gt;ws) xs ys
--   </pre>
--   
--   is 8, because there are eight <tt>$</tt>'s in
--   
--   <pre>
--   \xs ys -&gt; (((foldr $ (\x y zs -&gt; (((:) $ x) $ y) $ zs)) $ (\ws-&gt;ws)) $ xs) $$ ys
--   </pre>
--   
--   where <tt>$$</tt> denotes the function application caused by expanding
--   a type variable into a function type.
[tvndelay] :: Opt a -> Int

-- | If this option is <tt>True</tt>, the return type of functions
--   returning a type variable (e.g. <tt>b</tt> in
--   <tt>foldr::(a-&gt;b-&gt;b)-&gt;b-&gt;[a]-&gt;b</tt>) can only be
--   replaced with <tt>Eval t =&gt; t</tt> and <tt>Eval t =&gt; u -&gt;
--   t</tt>, while if <tt>False</tt> with <tt>Eval t =&gt; t</tt>, <tt>Eval
--   t =&gt; u-&gt;t</tt>, <tt>Eval t =&gt; u-&gt;v-&gt;t</tt>, etc., where
--   <tt>Eval t</tt> means t cannot be replaced with a function. The
--   restriction can be amended if the tuple constructor and destructors
--   are available.
[tv1] :: Opt a -> Bool
[tv0] :: Opt a -> Bool

-- | The random seed.
[stdgen] :: Opt a -> TFGen

-- | number of random samples at each depth, for each type, for the filter
--   applied during synthesis (used by ProgGenSF, &amp;c.).
[nrands] :: Opt a -> [Int]

-- | number of random samples at each depth, for each type, for the filter
--   applied after synthesis (used by filterThenF, &amp;c.).
[fcnrand] :: Opt a -> Int -> Int

-- | default options
--   
--   <pre>
--   options = Opt{ primopt = Nothing
--                , memodepth = 10
--                , memoCondPure = \ _type depth -&gt; 0&lt;depth
--                , memoCond = \ _type depth -&gt; return $ if depth &lt; 10 then Ram else Recompute
--                , execute = unsafeExecute
--                , timeout = Just 20000
--                , forcibleTimeout = False
--                , guess   = False
--                , contain = True
--                , constrL = False
--                , tv1     = False
--   </pre>
options :: Opt a
forget :: Opt a -> Opt ()
nrnds :: [Int]
chopRnds :: [[a]] -> [[a]]
fnrnds :: Num t => t1 -> t

module MagicHaskeller.Classification
class (Search m) => SStrategy m
sfilter :: (SStrategy m, Relation r) => (k -> k -> r) -> (Int -> Int) -> m ([k], e) -> m ([k], e)
ofilter :: (SStrategy m, Relation r) => (k -> k -> r) -> m (k, e) -> m (k, e)
arbitraries :: Arbitrary a => [a]
arbs :: Arbitrary a => Int -> TFGen -> [a]
(/~) :: [a] -> (a -> a -> Bool) -> [[a]]
nubSortBy :: (a -> a -> Ordering) -> [a] -> [a]
nubSortByBot :: (a -> a -> Maybe Ordering) -> [a] -> [a]
(/<) :: [a] -> (a -> a -> Ordering) -> [[a]]
(/<?) :: [a] -> (a -> a -> Maybe Ordering) -> [[a]]
class Eq rel => Relation rel where fromListBy cmp = map head . (/ cmp) fromListByDB rel ts = map (minimumBy (\ x y -> compare (snd y) (snd x))) (ts / (\ x y -> rel (fst x) (fst y)))
fromListBy :: Relation rel => (k -> k -> rel) -> [k] -> [k]
fromListByDB :: Relation rel => (k -> k -> rel) -> [(k, Int)] -> [(k, Int)]
(/) :: Relation rel => [k] -> (k -> k -> rel) -> [[k]]
appendWithBy :: Relation rel => (k -> k -> k) -> (k -> k -> rel) -> [k] -> [k] -> [k]
diffBy :: Relation rel => (k -> k -> rel) -> [k] -> [k] -> [k]
cEQ :: Relation rel => rel
appendQuotientsBy :: (Relation rel) => (k -> k -> rel) -> [[k]] -> [[k]] -> [[k]]
appendRepresentativesBy :: (Relation rel) => (k -> k -> rel) -> [k] -> [k] -> [k]
unionWithBy :: (a -> a -> a) -> (a -> a -> Bool) -> [a] -> [a] -> [a]
randomTestFilter :: (SStrategy m, Filtrable a) => (Int -> Int) -> m (e, a) -> m (e, a)
unsafeRandomTestFilter :: (SStrategy m, Filtrable a) => Maybe Int -> (Int -> Int) -> m (e, a) -> m (e, a)
mapFst :: (t2 -> t1) -> (t2, t) -> (t1, t)
class Filtrable a
filt :: (Filtrable a, SStrategy m) => (Int -> Int) -> m (a, e) -> m e
filtFun :: (Filtrable a, SStrategy m, Arbitrary b) => (Int -> Int) -> m (b -> a, e) -> m e
unsafeFilt :: (Filtrable a, SStrategy m) => Maybe Int -> (Int -> Int) -> m (a, e) -> m e
unsafeFiltFun :: (Filtrable a, SStrategy m, Arbitrary b) => Maybe Int -> (Int -> Int) -> m (b -> a, e) -> m e
filtNullary :: (SStrategy m, Relation r) => (k -> k -> r) -> (Int -> Int) -> m (k, e) -> m e
filtUnary :: (Arbitrary a, Relation r, SStrategy f) => (k -> k -> r) -> (Int -> Int) -> f (a -> k, b) -> f b
compareCx :: (RealFloat a, Ord a) => Complex a -> Complex a -> Ordering
ofilterMx :: Relation r => (k -> k -> r) -> Matrix (k, e) -> Matrix (k, e)
ofilterDB :: Relation rel => (k -> k -> rel) -> DBound (k, e) -> DBound (k, e)
cumulativeRepresentatives :: Relation rel => [a -> a -> rel] -> Matrix a -> Matrix a
representatives :: Relation rel => [a -> a -> rel] -> Matrix a -> Matrix a
unscanlByList :: Relation r => [k -> k -> r] -> Matrix k -> Matrix k
sfilterMx :: Relation r => (k -> k -> r) -> (Int -> Int) -> Matrix ([k], e) -> Matrix ([k], e)
liftRelation :: Relation r => (k -> k -> r) -> Int -> ([k], e) -> ([k], e) -> r
liftRel :: (Eq t, Relation t1, Num t) => (t3 -> t2 -> t1) -> t -> [t3] -> [t2] -> t1
sfilterDB :: Relation rel => (k -> k -> rel) -> (Int -> Int) -> DBound ([k], e) -> DBound ([k], e)
cumulativeQuotients :: Relation rel => [k -> k -> rel] -> Matrix k -> Matrix [k]
ns :: [Integer]
instance MagicHaskeller.Classification.SStrategy Control.Monad.Search.Combinatorial.Matrix
instance MagicHaskeller.Classification.SStrategy Control.Monad.Search.Combinatorial.DBound
instance MagicHaskeller.Classification.Relation GHC.Types.Bool
instance MagicHaskeller.Classification.Relation GHC.Types.Ordering
instance MagicHaskeller.Classification.Relation (GHC.Base.Maybe GHC.Types.Ordering)
instance (MagicHaskeller.MyCheck.Arbitrary a, MagicHaskeller.Classification.Filtrable r) => MagicHaskeller.Classification.Filtrable (a -> r)
instance GHC.Classes.Ord a => MagicHaskeller.Classification.Filtrable a
instance MagicHaskeller.Classification.Filtrable GHC.Types.Double
instance (GHC.Float.RealFloat a, GHC.Classes.Ord a) => MagicHaskeller.Classification.Filtrable (Data.Complex.Complex a)

module MagicHaskeller.TICE
type TI = PriorSubsts Maybe
ceToDynamic :: TyConLib -> VarLib -> CoreExpr -> Dynamic
tiCE :: (Functor m, MonadPlus m) => TyConLib -> VarLib -> CoreExpr -> m Type
tiEx :: (MonadPlus m, IArray a Dynamic) => t -> a Var Dynamic -> CoreExpr -> PriorSubsts m Type

module MagicHaskeller.ProgramGenerator

-- | annotated 'Typed [CoreExpr]'
type Prim = (Int, Int, Type, TyVar, Typed [CoreExpr])
class WithCommon a
extractCommon :: WithCommon a => a -> Common

-- | ProgramGenerator is a generalization of the old <tt>Memo</tt> type.
class WithCommon a => ProgramGenerator a where mkTrie cmn c t = mkTrieOpt cmn c t t mkTrieOpt cmn c _ t = mkTrie cmn c t matchingPrograms ty memodeb = unifyingPrograms (quantify ty) memodeb matchingProgramsWOAbsents ty memodeb = mapDepth (filter (not . isAbsent (getArity ty) . toCE)) $ matchingPrograms ty memodeb

-- | |mkTrie| creates the generator with the default parameters.
mkTrie :: ProgramGenerator a => Common -> [Typed [CoreExpr]] -> [[Typed [CoreExpr]]] -> a
mkTrieOpt :: ProgramGenerator a => Common -> [Typed [CoreExpr]] -> [[Typed [CoreExpr]]] -> [[Typed [CoreExpr]]] -> a
matchingPrograms, matchingProgramsWOAbsents, unifyingPrograms :: (ProgramGenerator a, Search m) => Type -> a -> m AnnExpr
matchingPrograms, matchingProgramsWOAbsents, unifyingPrograms :: (ProgramGenerator a, Search m) => Type -> a -> m AnnExpr
matchingPrograms, matchingProgramsWOAbsents, unifyingPrograms :: (ProgramGenerator a, Search m) => Type -> a -> m AnnExpr
class WithCommon a => ProgramGeneratorIO a where mkTrieIO cmn c t = mkTrieOptIO cmn c t t mkTrieOptIO cmn c _ t = mkTrieIO cmn c t matchingProgramsIO ty memodeb = unifyingProgramsIO (quantify ty) memodeb

-- | |mkTrie| creates the generator with the default parameters.
mkTrieIO :: ProgramGeneratorIO a => Common -> [Typed [CoreExpr]] -> [[Typed [CoreExpr]]] -> IO a
mkTrieOptIO :: ProgramGeneratorIO a => Common -> [Typed [CoreExpr]] -> [[Typed [CoreExpr]]] -> [[Typed [CoreExpr]]] -> IO a

-- | Use memoization requiring IO
matchingProgramsIO, unifyingProgramsIO :: ProgramGeneratorIO a => Type -> a -> RecompT IO AnnExpr

-- | Use memoization requiring IO
matchingProgramsIO, unifyingProgramsIO :: ProgramGeneratorIO a => Type -> a -> RecompT IO AnnExpr
extractTCL :: WithCommon a => a -> TyConLib
extractVL :: WithCommon a => a -> VarLib
extractRTrie :: WithCommon a => a -> RTrie
reducer :: Common -> CoreExpr -> Dynamic
data Common
Cmn :: Opt () -> TyConLib -> VarLib -> VarLib -> VarPriorityLib -> RTrie -> Common
[opt] :: Common -> Opt ()
[tcl] :: Common -> TyConLib
[vl] :: Common -> VarLib
[pvl] :: Common -> VarLib
[vpl] :: Common -> VarPriorityLib
[rt] :: Common -> RTrie
mkCommon :: Options -> [Primitive] -> [Primitive] -> [Int] -> Common
initCommon :: Options -> [Primitive] -> Common

-- | <a>updateCommon</a> can be used for incremetal learning
updateCommon :: [Dynamic] -> [Dynamic] -> [Int] -> Common -> Common

-- | options for limiting the hypothesis space.
type Options = Opt [[Primitive]]
retsTVar :: (t3, t2, Type, t1, t) -> Bool
annotateTCEs :: Typed [CoreExpr] -> Prim
splitPrims :: [Typed [CoreExpr]] -> ([Prim], [Prim])
splitPrimss :: [[Typed [CoreExpr]]] -> ([[Prim]], [[Prim]])
mapSum :: (MonadPlus m, Delay m) => (a -> m b) -> [[a]] -> m b
applyDo :: (Functor m, Monad m) => ([Type] -> Type -> PriorSubsts m a) -> [Type] -> Type -> PriorSubsts m a
wind :: (a -> a) -> ([Type] -> Type -> a) -> [Type] -> Type -> a
wind_ :: ([Type] -> Type -> a) -> [Type] -> Type -> a
fromAssumptions :: (Search m, Expression e) => Common -> Int -> (Type -> PriorSubsts m [e]) -> (Type -> Type -> PriorSubsts m ()) -> Type -> [Type] -> PriorSubsts m [e]
retMono :: (Search m, Expression e) => Common -> Int -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m ()) -> (Int8, (Int, [Type], Type)) -> PriorSubsts m [e]
fromAvail :: [Type] -> [(Int8, (Int, [Type], Type))]
mguAssumptions :: (Functor m, MonadPlus m) => Type -> [Type] -> PriorSubsts m [CoreExpr]
mguAssumptions' :: MonadPlus m => [Type] -> Type -> PriorSubsts m [CoreExpr]
matchAssumptions :: (Functor m, MonadPlus m, Expression e) => Common -> Int -> Type -> [Type] -> PriorSubsts m [e]
mguAssumptions_ :: (Functor m, MonadPlus m) => Type -> [Type] -> PriorSubsts m ()
mguAssumptions_' :: MonadPlus m => [Type] -> Type -> PriorSubsts m ()
retPrimMono :: (Search m, Expression e) => Common -> Int -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> (Type -> Type -> PriorSubsts m ()) -> Type -> Prim -> PriorSubsts m [e]
funApSub :: (Search m, Expression e) => (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> Type -> [e] -> PriorSubsts m [e]
funApSubOp :: (Monad m, Monad m1) => (r -> a2 -> r) -> (Type -> m1 (m a2)) -> (Type -> m1 (m a2)) -> (Type -> m1 (m a2)) -> Type -> m r -> m1 (m r)
fap :: (Expression r, Monad m, Monad m1, Foldable t) => (t1 -> m1 (m r)) -> t t1 -> m r -> m1 (m r)
mapAndFoldM :: Monad m => (t2 -> t1 -> t2) -> t2 -> (t -> m t1) -> [t] -> m t2
retGen :: (Search m, Expression e) => Common -> Int -> (Type -> Type -> [e] -> [e]) -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> Type -> Prim -> PriorSubsts m [e]
retGenOrd :: (Search m, Expression e) => Common -> Int -> (Type -> Type -> [e] -> [e]) -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> Type -> Prim -> PriorSubsts m [e]
retGenTV1 :: (Search m, Expression e) => Common -> Int -> (Type -> Type -> [e] -> [e]) -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> (Type -> PriorSubsts m [e]) -> Type -> Prim -> PriorSubsts m [e]
retGen' :: (Integral i, Expression e, Search n) => (Type -> t1 -> PriorSubsts n b) -> Common -> i -> (Type -> Type -> [e] -> t1) -> (Type -> PriorSubsts n [e]) -> (Type -> PriorSubsts n [e]) -> (Type -> PriorSubsts n [e]) -> Type -> (Int, Int, t, TyVar, Typed [CoreExpr]) -> PriorSubsts n b
orderedAndUsedArgs :: Type -> Bool
usedArg :: TyVar -> Type -> Bool
retGenTV0 :: (Integral i, Integral j, Expression e, Search n) => Common -> i -> (Type -> Type -> [e] -> b) -> (Type -> PriorSubsts n [e]) -> (Type -> PriorSubsts n [e]) -> (Type -> PriorSubsts n [e]) -> Type -> (j, j, t, TyVar, Typed [CoreExpr]) -> PriorSubsts n b
filtExprs :: Expression e => Bool -> Type -> Type -> [e] -> [e]
filterExprs :: Expression e => Type -> Type -> [e] -> [e]
getArgExprs :: CoreExpr -> [CoreExpr]
gae :: CoreExpr -> [CoreExpr] -> [CoreExpr]
constEq :: Type -> [CoreExpr] -> Bool
ceq :: CoreExpr -> Type -> [CoreExpr] -> Bool
recHead :: Type -> CoreExpr -> Bool
retSameVal :: Type -> [CoreExpr] -> Bool
rsv :: Type -> [CoreExpr] -> Bool
rsv' :: CoreExpr -> Type -> [CoreExpr] -> Bool
returnsAtoA :: Type -> Bool
returnsId :: Type -> CoreExpr -> Bool
isId :: CoreExpr -> Bool
isId' :: Int8 -> CoreExpr -> Bool
isId'' :: Int8 -> Int8 -> CoreExpr -> Bool
retVal :: Type -> CoreExpr -> CoreExpr
rv :: Type -> Int8 -> CoreExpr -> CoreExpr
mapsub :: Int8 -> CoreExpr -> CoreExpr
isConstrExpr :: CoreExpr -> Bool
isClosed :: CoreExpr -> Bool
isClosed' :: Int8 -> CoreExpr -> Bool
includesStrictArg :: [CoreExpr] -> Bool
anyRec :: Type -> [CoreExpr] -> Bool
recursive :: Type -> CoreExpr -> Bool
constRec :: Int8 -> CoreExpr -> Bool
belowIsUsed :: Int8 -> CoreExpr -> Bool
isUsed :: Int8 -> CoreExpr -> Bool
mkSubsts :: Search m => Int -> TyVar -> Type -> PriorSubsts m Int
mkSubst :: Search m => Int -> TyVar -> Type -> PriorSubsts m Int
mkRetty :: Type -> (Type, Type)
reorganizer_ :: ([Type] -> a) -> [Type] -> a
hit :: Type -> [Type] -> Bool
combs :: (Num t1, Eq t1) => t1 -> [t] -> [[t]]
tails :: [t] -> [[t]]

module MagicHaskeller.ProgGen

-- | The vanilla program generator corresponding to Version 0.7.*
newtype ProgGen

-- | internal data representation
PG :: (MemoDeb (ClassLib CoreExpr) CoreExpr) -> ProgGen
mkCL :: Common -> [Typed [CoreExpr]] -> ClassLib CoreExpr
newtype ClassLib e
CL :: (MemoDeb (ClassLib e) e) -> ClassLib e
mguPrograms :: (Search m) => Generator m CoreExpr
instance MagicHaskeller.ProgramGenerator.WithCommon MagicHaskeller.ProgGen.ProgGen
instance MagicHaskeller.ProgramGenerator.ProgramGenerator MagicHaskeller.ProgGen.ProgGen
instance MagicHaskeller.ProgramGenerator.ProgramGeneratorIO MagicHaskeller.ProgGen.ProgGen

module MagicHaskeller.ProgGenSF
type ProgGenSF = PGSF CoreExpr

-- | Program generator with synergetic filtration. This program generator
--   employs filtration by random testing, and rarely generate semantically
--   equivalent expressions more than once, while different expressions
--   will eventually appear (for most of the types, represented with
--   Prelude types, whose arguments are instance of Arbitrary and which
--   return instance of Ord). The idea is to apply random numbers to the
--   generated expressions, compute the quotient set of the resulting
--   values at each depth of the search tree, and adopt the complete system
--   of representatives for the depth and push the remaining expressions to
--   one step deeper in the search tree. (Thus, adoption of expressions
--   that may be equivalent to another already-generated-expression will be
--   postponed until their "uniqueness" is proved.) As a result, (unlike
--   <a>ProgGen</a>,) expressions with size N may not appear at depth N but
--   some deeper place.
--   
--   <a>ProgGenSF</a> is more efficient along with a middle-sized primitive
--   set (like <tt>reallyall</tt> found in LibTH.hs), but is slower than
--   <a>ProgGen</a> for a small-sized one.
--   
--   Also note that <a>ProgGenSF</a> depends on hard use of unsafe* stuff,
--   so if there is a bug, it may segfault....
data PGSF e
PGSF :: (MemoDeb e) -> TypeTrie -> (ExpTrie e) -> PGSF e
freezePS :: Type -> PriorSubsts Recomp Type -> Matrix (Type, Subst, TyVar)
funApSub_ :: (Search m, Monoid a) => (Type -> PriorSubsts m ()) -> (Type -> PriorSubsts m a) -> (Type -> PriorSubsts m a) -> Type -> PriorSubsts m a
funApSub_spec :: (Monoid a, Search m) => (Type -> PriorSubsts m ()) -> (Type -> PriorSubsts m a) -> Type -> PriorSubsts m a
lookupNormalized :: (Functor m, MonadPlus m) => (Type -> m (e, Subst, TyVar)) -> [Type] -> Type -> PriorSubsts m e
tokoro10fst :: (Eq k, Ord k) => [(k, s, i)] -> [(k, s, i)]
mkTrieOptSFIO :: Expression e => Common -> [Typed [CoreExpr]] -> [[Typed [CoreExpr]]] -> [[Typed [CoreExpr]]] -> IO (PGSF e)
instance MagicHaskeller.Expression.Expression e => MagicHaskeller.ProgramGenerator.ProgramGenerator (MagicHaskeller.ProgGenSF.PGSF e)
instance MagicHaskeller.Expression.Expression e => MagicHaskeller.ProgramGenerator.WithCommon (MagicHaskeller.ProgGenSF.PGSF e)
instance GHC.Base.Monoid MagicHaskeller.ProgGenSF.BitSet

module MagicHaskeller.ProgGenSFIORef
type ProgGenSFIORef = PGSFIOR CoreExpr

-- | Program generator with synergetic filtration. This program generator
--   employs filtration by random testing, and rarely generate semantically
--   equivalent expressions more than once, while different expressions
--   will eventually appear (for most of the types, represented with
--   Prelude types, whose arguments are instance of Arbitrary and which
--   return instance of Ord). The idea is to apply random numbers to the
--   generated expressions, compute the quotient set of the resulting
--   values at each depth of the search tree, and adopt the complete system
--   of representatives for the depth and push the remaining expressions to
--   one step deeper in the search tree. (Thus, adoption of expressions
--   that may be equivalent to another already-generated-expression will be
--   postponed until their "uniqueness" is proved.) As a result, (unlike
--   <a>ProgGen</a>,) expressions with size N may not appear at depth N but
--   some deeper place.
--   
--   <a>ProgGenSF</a> is more efficient along with a middle-sized primitive
--   set (like <tt>reallyall</tt> found in LibTH.hs), but is slower than
--   <a>ProgGen</a> for a small-sized one.
--   
--   Also note that <a>ProgGenSF</a> depends on hard use of unsafe* stuff,
--   so if there is a bug, it may segfault....
data PGSFIOR e
instance MagicHaskeller.ProgramGenerator.ProgramGeneratorIO (MagicHaskeller.ProgGenSFIORef.PGSFIOR MagicHaskeller.CoreLang.CoreExpr)
instance MagicHaskeller.Expression.Expression e => MagicHaskeller.ProgramGenerator.WithCommon (MagicHaskeller.ProgGenSFIORef.PGSFIOR e)

module MagicHaskeller

-- | ProgramGenerator is a generalization of the old <tt>Memo</tt> type.
class WithCommon a => ProgramGenerator a where mkTrie cmn c t = mkTrieOpt cmn c t t mkTrieOpt cmn c _ t = mkTrie cmn c t matchingPrograms ty memodeb = unifyingPrograms (quantify ty) memodeb matchingProgramsWOAbsents ty memodeb = mapDepth (filter (not . isAbsent (getArity ty) . toCE)) $ matchingPrograms ty memodeb

-- | The vanilla program generator corresponding to Version 0.7.*
data ProgGen
type ProgGenSF = PGSF CoreExpr
type ProgGenSFIORef = PGSFIOR CoreExpr

-- | <a>p</a> is used to convert your primitive component set into the
--   internal form.
p :: ExpQ -> ExpQ

-- | <tt>setPrimitives</tt> creates a <tt>ProgGen</tt> from the given set
--   of primitives using the current set of options, and sets it as the
--   current program generator. It used to be equivalent to <tt>setPG .
--   mkPG</tt> which overwrites the options with the default, but it is not
--   now.
setPrimitives :: [Primitive] -> [Primitive] -> IO ()
mkPG :: ProgramGenerator pg => [Primitive] -> pg

-- | <a>mkPGSF</a> and <a>mkMemoSF</a> are provided mainly for backward
--   compatibility. These functions are defined only for the
--   <a>ProgramGenerator</a>s whose names end with <tt>SF</tt> (i.e.,
--   generators with synergetic filtration). For such generators, they are
--   defined as:
--   
--   <pre>
--   mkPGSF   gen nrnds optups tups = mkPGOpt (options{primopt = Just optups, contain = True,  stdgen = gen, nrands = nrnds}) tups
--   mkMemoSF gen nrnds optups tups = mkPGOpt (options{primopt = Just optups, contain = False, stdgen = gen, nrands = nrnds}) tups
--   </pre>
mkPGSF :: ProgramGenerator pg => TFGen -> [Int] -> [Primitive] -> [Primitive] -> [Primitive] -> pg
setPG :: ProgGen -> IO ()
mkMemo :: ProgramGenerator pg => [Primitive] -> pg

-- | <a>mkPGSF</a> and <a>mkMemoSF</a> are provided mainly for backward
--   compatibility. These functions are defined only for the
--   <a>ProgramGenerator</a>s whose names end with <tt>SF</tt> (i.e.,
--   generators with synergetic filtration). For such generators, they are
--   defined as:
--   
--   <pre>
--   mkPGSF   gen nrnds optups tups = mkPGOpt (options{primopt = Just optups, contain = True,  stdgen = gen, nrands = nrnds}) tups
--   mkMemoSF gen nrnds optups tups = mkPGOpt (options{primopt = Just optups, contain = False, stdgen = gen, nrands = nrnds}) tups
--   </pre>
mkMemoSF :: ProgramGenerator pg => TFGen -> [Int] -> [Primitive] -> [Primitive] -> [Primitive] -> pg
mkPG075 :: ProgramGenerator pg => [Primitive] -> [Primitive] -> pg
mkMemo075 :: ProgramGenerator pg => [Primitive] -> [Primitive] -> pg
mkPGOpt :: ProgramGenerator pg => Options -> [Primitive] -> [Primitive] -> pg

-- | <a>mkPG</a> is defined as:
--   
--   <pre>
--   mkPG prims = mkPGSF (mkStdGen 123456) (repeat 5) prims prims
--   </pre>
mkPGX :: ProgramGenerator pg => [Primitive] -> [[Primitive]] -> pg
mkPGXOpt :: ProgramGenerator pg => Options -> [Primitive] -> [(Primitive, Primitive)] -> [[Primitive]] -> [[(Primitive, Primitive)]] -> pg
mkPGXOpts :: (Common -> [Typed [CoreExpr]] -> [[Typed [CoreExpr]]] -> [[Typed [CoreExpr]]] -> a) -> Options -> [Primitive] -> [(Primitive, Primitive)] -> [[Primitive]] -> [[(Primitive, Primitive)]] -> a
updatePGXOpts :: (Common -> [Typed [CoreExpr]] -> [[Typed [CoreExpr]]] -> [[Typed [CoreExpr]]] -> a) -> Maybe [[Primitive]] -> [Dynamic] -> [(Dynamic, Dynamic)] -> [[Dynamic]] -> [[(Dynamic, Dynamic)]] -> Common -> a
updatePGXOptsFilt :: Int -> (Common -> [Typed [CoreExpr]] -> [[Typed [CoreExpr]]] -> [[Typed [CoreExpr]]] -> a) -> Maybe [[Primitive]] -> [Dynamic] -> [(Dynamic, Dynamic)] -> [[Dynamic]] -> [[(Dynamic, Dynamic)]] -> Common -> a

-- | options for limiting the hypothesis space.
type Options = Opt [[Primitive]]

-- | options that limit the hypothesis space.
data Opt a
Opt :: Maybe a -> Int -> (Type -> Int -> Bool) -> MemoCond -> (VarLib -> CoreExpr -> Dynamic) -> Maybe Int -> Bool -> Bool -> Bool -> Bool -> Int -> Bool -> Bool -> TFGen -> [Int] -> (Int -> Int) -> Opt a

-- | Use this option if you want to use a different component library for
--   the stage of solving the inhabitation problem. <tt>Nothing</tt> means
--   using the same one. This option makes sense only when using *SF style
--   generators, because otherwise the program generation is not staged.
--   Using a minimal set for solving the inhabitation and a redundant
--   library for the real program generation can be a good bet.
[primopt] :: Opt a -> Maybe a

-- | memoization depth. (Sub)expressions within this size are memoized,
--   while greater expressions will be recomputed (to save the heap space).
--   Only effective when using <tt>ProgGen</tt> and unless using the
--   <tt>everythingIO</tt> family.
[memodepth] :: Opt a -> Int

-- | This represents when to memoize. It takes the query type and the query
--   depth, and returns <tt>True</tt> if the corresponding entry should be
--   looked up from the lazy memo table. Currently this only works for
--   ProgGenSF.
[memoCondPure] :: Opt a -> Type -> Int -> Bool

-- | This represents which memoization table to be used based on the query
--   type and the search depth, when using the <tt>everythingIO</tt>
--   family.
[memoCond] :: Opt a -> MemoCond
[execute] :: Opt a -> VarLib -> CoreExpr -> Dynamic

-- | <tt>Just ms</tt> sets the timeout to <tt>ms</tt> microseconds. Also,
--   my implementation of timeout also catches inevitable exceptions like
--   stack space overflow. Note that setting timeout makes the library
--   referentially untransparent. (But currently <tt>Just 20000</tt> is the
--   default!) Setting this option to <tt>Nothing</tt> disables both
--   timeout and capturing exceptions.
[timeout] :: Opt a -> Maybe Int

-- | If this option is <tt>True</tt>, <a>forkProcess</a> instead of
--   <a>forkIO</a> is used for timeout. The former is much heavier than the
--   latter, but is more preemptive and thus is necessary for interrupting
--   some infinite loops. This record is ignored if FORCIBLETO is not
--   defined.
[forcibleTimeout] :: Opt a -> Bool

-- | If this option is <tt>True</tt>, the program guesses whether each
--   function is a case<i>catamorphism</i>paramorphism or not. This
--   information is used to filter out some duplicate expressions.
--   (History: I once abandoned this guessing strategy around the time I
--   moved to the library implementation, because I could not formally
--   prove the exhaustiveness of the resulting algorithm. For this reason,
--   the old standalone version of MagicHaskeller uses this strategy, but
--   almost the same effect can be obtained by setting this option to True,
--   or using <a>init075</a> instead of <a>initialize</a>.
[guess] :: Opt a -> Bool

-- | This option is now obsolete, and we always assume True now. If this
--   option was <tt>False</tt>, data structures might not contain
--   functions, and thus types like <tt>[Int-&gt;Int]</tt>,
--   <tt>(Int-&gt;Bool, Char)</tt>, etc. were not permitted. (NB: recently
--   I noticed that making this <tt>False</tt> might not improve the
--   efficiency of generating lambda terms at all, though when I generated
--   combinatory expressions it WAS necessary. In fact, I mistakenly turned
--   this limitation off, and my code always regarded this as True, but I
--   did not notice that, so this option can be obsoleted.)
[contain] :: Opt a -> Bool

-- | If this option is <tt>True</tt>, matching at the antecedent of
--   induction rules may occur, which constrains generation of existential
--   types. You need to use prefixed <tt>(-&gt;)</tt> to show that some
--   parameter can be matched at the antecedent, e.g., <tt><tt>p</tt> [| (
--   []::[a], (:)::a-&gt;[a]-&gt;[a], foldr :: (a-&gt;b-&gt;b) -&gt; b
--   -&gt; (-&gt;) [a] b ) |]</tt> See LibTH.hs for examples.
[constrL] :: Opt a -> Bool

-- | Each time the type variable which appears in the return type of a
--   function (e.g. <tt>b</tt> in
--   <tt>foldr::(a-&gt;b-&gt;b)-&gt;b-&gt;[a]-&gt;b</tt>) is expanded to a
--   function type, the search priority of the current computation is
--   lowered by this number. It's default value is 1, which means there is
--   nothing special, and the priority for each expression corresponds to
--   the number of function applications in the expression.
--   
--   Example: when tvndelay = 1,
--   
--   The priority of
--   
--   <pre>
--   \xs -&gt; foldr (\x y -&gt; x+y) 0 xs
--   </pre>
--   
--   is 5, because there are five <tt>$</tt>'s in
--   
--   <pre>
--   \xs -&gt; ((foldr $ (\x y -&gt; ((+) $ x) $ y)) $ 0) xs
--   </pre>
--   
--   The priority of
--   
--   <pre>
--   \xs ys -&gt; foldr (\x y zs -&gt; x : y zs) (\ws-&gt;ws) xs ys
--   </pre>
--   
--   is 7, because there are seven <tt>$</tt>'s in
--   
--   <pre>
--   \xs ys -&gt; (((foldr $ (\x y zs -&gt; (((:) $ x) $ y) $ zs)) $ (\ws-&gt;ws)) $ xs) $ ys
--   </pre>
--   
--   Example: when tvndelay = 2,
--   
--   The priority of
--   
--   <pre>
--   \xs -&gt; foldr (\x y -&gt; x+y) 0 xs
--   </pre>
--   
--   is 5, because there are five <tt>$</tt>'s in
--   
--   <pre>
--   \xs -&gt; ((foldr $ (\x y -&gt; ((+) $ x) $ y)) $ 0) xs
--   </pre>
--   
--   The priority of
--   
--   <pre>
--   \xs ys -&gt; foldr (\x y zs -&gt; x : y zs) (\ws-&gt;ws) xs ys
--   </pre>
--   
--   is 8, because there are eight <tt>$</tt>'s in
--   
--   <pre>
--   \xs ys -&gt; (((foldr $ (\x y zs -&gt; (((:) $ x) $ y) $ zs)) $ (\ws-&gt;ws)) $ xs) $$ ys
--   </pre>
--   
--   where <tt>$$</tt> denotes the function application caused by expanding
--   a type variable into a function type.
[tvndelay] :: Opt a -> Int

-- | If this option is <tt>True</tt>, the return type of functions
--   returning a type variable (e.g. <tt>b</tt> in
--   <tt>foldr::(a-&gt;b-&gt;b)-&gt;b-&gt;[a]-&gt;b</tt>) can only be
--   replaced with <tt>Eval t =&gt; t</tt> and <tt>Eval t =&gt; u -&gt;
--   t</tt>, while if <tt>False</tt> with <tt>Eval t =&gt; t</tt>, <tt>Eval
--   t =&gt; u-&gt;t</tt>, <tt>Eval t =&gt; u-&gt;v-&gt;t</tt>, etc., where
--   <tt>Eval t</tt> means t cannot be replaced with a function. The
--   restriction can be amended if the tuple constructor and destructors
--   are available.
[tv1] :: Opt a -> Bool
[tv0] :: Opt a -> Bool

-- | The random seed.
[stdgen] :: Opt a -> TFGen

-- | number of random samples at each depth, for each type, for the filter
--   applied during synthesis (used by ProgGenSF, &amp;c.).
[nrands] :: Opt a -> [Int]

-- | number of random samples at each depth, for each type, for the filter
--   applied after synthesis (used by filterThenF, &amp;c.).
[fcnrand] :: Opt a -> Int -> Int

-- | default options
--   
--   <pre>
--   options = Opt{ primopt = Nothing
--                , memodepth = 10
--                , memoCondPure = \ _type depth -&gt; 0&lt;depth
--                , memoCond = \ _type depth -&gt; return $ if depth &lt; 10 then Ram else Recompute
--                , execute = unsafeExecute
--                , timeout = Just 20000
--                , forcibleTimeout = False
--                , guess   = False
--                , contain = True
--                , constrL = False
--                , tv1     = False
--   </pre>
options :: Opt a
data MemoType

-- | Recompute instead of memoizing.
Recompute :: MemoType

-- | Use the memoization table based on lazy evaluation, like in older
--   versions.
Ram :: MemoType

-- | Use the directory specified by <tt>FilePath</tt> as the persistent
--   memoization table.
Disk :: FilePath -> MemoType
mkPGIO :: ProgramGeneratorIO pg => [Primitive] -> [Primitive] -> IO pg
mkPGXOptIO :: ProgramGeneratorIO pg => Options -> [Primitive] -> [(Primitive, Primitive)] -> [[Primitive]] -> [[(Primitive, Primitive)]] -> IO pg

-- | <a>load</a> loads a component library file.
load :: FilePath -> ExpQ

-- | f is supposed to be used by load, but not hidden.
f :: String -> ExpQ

-- | Currently the default depth is 10. You may want to lower the value if
--   your computer often swaps, or increase it if you have a lot of memory.
setDepth :: Int -> IO ()

-- | <a>setTimeout</a> sets the timeout in microseconds. Also, my
--   implementation of timeout also catches inevitable exceptions like
--   stack space overflow. Note that setting timeout makes the library
--   referentially untransparent. (But currently <tt>setTimeout 20000</tt>
--   is the default!)
setTimeout :: Int -> IO ()

-- | <a>unsetTimeout</a> disables timeout. This is the safe choice.
unsetTimeout :: IO ()

-- | <a>define</a> eases use of this library by automating some function
--   definitions. For example,
--   
--   <pre>
--   $( define ''ProgGen "Foo" (p [| (1 :: Int, (+) :: Int -&gt; Int -&gt; Int) |]) )
--   </pre>
--   
--   is equivalent to
--   
--   <pre>
--   memoFoo :: ProgGen
--   memoFoo = mkPG (p [| (1 :: Int, (+) :: Int -&gt; Int -&gt; Int) |])
--   everyFoo :: Everything
--   everyFoo = everything memoFoo
--   filterFoo :: Filter
--   filterFoo pred = filterThen pred everyFoo
--   </pre>
--   
--   If you do not think this function reduces the number of your
--   keystrokes a lot, you can do without it.
define :: Name -> String -> ExpQ -> Q [Dec]
type Everything = forall a. Typeable a => Every a
type Filter = forall a. Typeable a => (a -> Bool) -> IO (Every a)
type Every a = [[(Exp, a)]]
type EveryIO a = Int -> IO [(Exp, a)]

-- | <tt><a>findOne</a> pred</tt> finds an expression <tt>e</tt> that
--   satisfies <tt>pred e == True</tt>, and returns it in <a>Exp</a>.
findOne :: Typeable a => Bool -> (a -> Bool) -> Exp

-- | <a>printOne</a> prints the expression found first.
printOne :: Typeable a => Bool -> (a -> Bool) -> IO Exp

-- | <a>printAll</a> prints all the expressions satisfying the given
--   predicate.
printAll :: Typeable a => Bool -> (a -> Bool) -> IO ()
printAllF :: (Typeable a, Filtrable a) => Bool -> (a -> Bool) -> IO ()

-- | <tt>io2pred</tt> converts a specification given as a set of I/O pairs
--   to the predicate form which other functions accept.
io2pred :: Eq b => [(a, b)] -> ((a -> b) -> Bool)

-- | <a>filterFirst</a> is like <a>printAll</a>, but by itself it does not
--   print anything. Instead, it creates a stream of expressions
--   represented in tuples of <a>Exp</a> and the expressions themselves.
filterFirst :: Typeable a => Bool -> (a -> Bool) -> IO (Every a)
filterFirstF :: (Typeable a, Filtrable a) => Bool -> (a -> Bool) -> IO (Every a)

-- | <a>filterThen</a> may be used to further filter the results.
filterThen :: Typeable a => (a -> Bool) -> Every a -> IO (Every a)
filterThenF :: (Filtrable a, Typeable * a) => (a -> Bool) -> Every a -> IO [[(Exp, a)]]
fp :: Typeable a => Maybe Int -> (a -> Bool) -> [(Exp, a)] -> [(Exp, a)]

-- | <a>getEverything</a> uses the 'global' values set with <tt>set*</tt>
--   functions. <a>getEverythingF</a> is its filtered version
getEverything :: Typeable a => Bool -> IO (Every a)

-- | <a>everything</a> generates all the expressions that fit the inferred
--   type, and their representations in the <a>Exp</a> form. It returns a
--   stream of lists, which is equivalent to Spivey's <tt>Matrix</tt> data
--   type, i.e., that contains expressions consisted of n primitive
--   components at the n-th element (n = 1,2,...). <a>everythingF</a> is
--   its filtered version
everything :: (ProgramGenerator pg, Typeable a) => pg -> Bool -> Every a
everythingM :: (ProgramGenerator pg, Typeable a, Monad m, Functor m) => pg -> Bool -> Int -> m [(Exp, a)]
everythingIO :: (ProgramGeneratorIO pg, Typeable a) => pg -> EveryIO a

-- | Those functions are like <a>everything</a>, but take <a>Type</a> as an
--   argument, which may be polymorphic. For example, <tt><a>printQ</a>
--   ([t| forall a. a-&gt;a-&gt;a |] &gt;&gt;= return . <a>unifyable</a>
--   True 10 memo)</tt> will print all the expressions using <tt>memo</tt>
--   whose types unify with <tt>forall a. a-&gt;a-&gt;a</tt>. (At first I
--   (Susumu) could not find usefulness in finding unifyable expressions,
--   but seemingly Hoogle does something alike, and these functions might
--   enhance it.)
unifyable :: ProgramGenerator pg => pg -> Type -> [[Exp]]

-- | Those functions are like <a>everything</a>, but take <a>Type</a> as an
--   argument, which may be polymorphic. For example, <tt><a>printQ</a>
--   ([t| forall a. a-&gt;a-&gt;a |] &gt;&gt;= return . <a>unifyable</a>
--   True 10 memo)</tt> will print all the expressions using <tt>memo</tt>
--   whose types unify with <tt>forall a. a-&gt;a-&gt;a</tt>. (At first I
--   (Susumu) could not find usefulness in finding unifyable expressions,
--   but seemingly Hoogle does something alike, and these functions might
--   enhance it.)
matching :: ProgramGenerator pg => pg -> Type -> [[Exp]]
getEverythingF :: Typeable a => Bool -> IO (Every a)

-- | <a>everything</a> generates all the expressions that fit the inferred
--   type, and their representations in the <a>Exp</a> form. It returns a
--   stream of lists, which is equivalent to Spivey's <tt>Matrix</tt> data
--   type, i.e., that contains expressions consisted of n primitive
--   components at the n-th element (n = 1,2,...). <a>everythingF</a> is
--   its filtered version
everythingF :: (ProgramGenerator pg, Typeable a) => pg -> Bool -> Every a

-- | Those functions are like <a>everything</a>, but take <a>Type</a> as an
--   argument, which may be polymorphic. For example, <tt><a>printQ</a>
--   ([t| forall a. a-&gt;a-&gt;a |] &gt;&gt;= return . <a>unifyable</a>
--   True 10 memo)</tt> will print all the expressions using <tt>memo</tt>
--   whose types unify with <tt>forall a. a-&gt;a-&gt;a</tt>. (At first I
--   (Susumu) could not find usefulness in finding unifyable expressions,
--   but seemingly Hoogle does something alike, and these functions might
--   enhance it.)
unifyableF :: ProgramGenerator pg => pg -> Type -> [[Exp]]

-- | Those functions are like <a>everything</a>, but take <a>Type</a> as an
--   argument, which may be polymorphic. For example, <tt><a>printQ</a>
--   ([t| forall a. a-&gt;a-&gt;a |] &gt;&gt;= return . <a>unifyable</a>
--   True 10 memo)</tt> will print all the expressions using <tt>memo</tt>
--   whose types unify with <tt>forall a. a-&gt;a-&gt;a</tt>. (At first I
--   (Susumu) could not find usefulness in finding unifyable expressions,
--   but seemingly Hoogle does something alike, and these functions might
--   enhance it.)
matchingF :: ProgramGenerator pg => pg -> Type -> [[Exp]]
everyACE :: (ProgramGenerator pg, Typeable a) => pg -> Bool -> [[(CoreExpr, a)]]
everyF :: (Typeable a, Filtrable a) => Opt b -> [[(e, a)]] -> [[(e, a)]]
stripEvery :: Every a -> a

-- | <a>pprs</a> pretty prints the results to the console, using
--   <a>pprintUC</a>
pprs :: Every a -> IO ()

-- | <a>pprsIO</a> is the <a>EveryIO</a> version of pprs
pprsIO :: EveryIO a -> IO ()

-- | <tt>pprsIOn depth eio</tt> is the counterpart of <tt>pprs (take depth
--   eio)</tt>, while <tt>pprsIO eio</tt> is the counterpart of <tt>pprs
--   eio</tt>. Example: <tt>pprsIOn 5 (everythingIO (mlist::ProgGen) ::
--   EveryIO ([Char]-&gt;[Char]))</tt>
pprsIOn :: Int -> EveryIO a -> IO ()
lengths :: Every a -> IO ()
lengthsIO :: EveryIO a -> IO ()
lengthsIOn :: Int -> EveryIO a -> IO ()
lengthsIOnLn :: Int -> EveryIO a -> IO ()
printQ :: (Ppr a, Data a) => Q a -> IO ()
type Primitive = (HValue, Exp, Type)
newtype HValue
HV :: (forall a. a) -> HValue

-- | The function <tt>unsafeCoerce#</tt> allows you to side-step the
--   typechecker entirely. That is, it allows you to coerce any type into
--   any other type. If you use this function, you had better get it right,
--   otherwise segmentation faults await. It is generally used when you
--   want to write a program that you know is well-typed, but where
--   Haskell's type system is not expressive enough to prove that it is
--   well typed.
--   
--   The following uses of <tt>unsafeCoerce#</tt> are supposed to work
--   (i.e. not lead to spurious compile-time or run-time crashes):
--   
--   <ul>
--   <li>Casting any lifted type to <tt>Any</tt></li>
--   <li>Casting <tt>Any</tt> back to the real type</li>
--   <li>Casting an unboxed type to another unboxed type of the same size
--   (but not coercions between floating-point and integral types)</li>
--   <li>Casting between two types that have the same runtime
--   representation. One case is when the two types differ only in
--   "phantom" type parameters, for example <tt>Ptr Int</tt> to <tt>Ptr
--   Float</tt>, or <tt>[Int]</tt> to <tt>[Float]</tt> when the list is
--   known to be empty. Also, a <tt>newtype</tt> of a type <tt>T</tt> has
--   the same representation at runtime as <tt>T</tt>.</li>
--   </ul>
--   
--   Other uses of <tt>unsafeCoerce#</tt> are undefined. In particular, you
--   should not use <tt>unsafeCoerce#</tt> to cast a T to an algebraic data
--   type D, unless T is also an algebraic data type. For example, do not
--   cast <tt>Int-&gt;Int</tt> to <tt>Bool</tt>, even if you later cast
--   that <tt>Bool</tt> back to <tt>Int-&gt;Int</tt> before applying it.
--   The reasons have to do with GHC's internal representation details (for
--   the congnoscenti, data values can be entered but function closures
--   cannot). If you want a safe type to cast things to, use <tt>Any</tt>,
--   which is not an algebraic data type.
unsafeCoerce# :: a -> b
exprToTHExp :: VarLib -> CoreExpr -> Exp
trToTHType :: TypeRep -> Type

-- | <a>printAll</a> prints all the expressions satisfying the given
--   predicate.
printAny :: Typeable a => Bool -> (a -> Bool) -> IO ()
p1 :: Exp -> ExpQ
class Filtrable a
zipAppend :: [[a]] -> [[a]] -> [[a]]
mapIO :: (a -> IO b) -> [a] -> IO [b]
fpIO :: Typeable a => Maybe Int -> (a -> Bool) -> [((Exp, a), (Exp, a))] -> IO [(Exp, a)]
fIO :: Typeable a => Maybe Int -> (a -> Bool) -> ((Exp, a), (Exp, a)) -> Int -> IO (Maybe (Exp, a))
fpartial :: Typeable a => Maybe Int -> (a -> Bool) -> [((Exp, a), (Exp, a))] -> [(Exp, a)]
fpartialIO :: Typeable a => Maybe Int -> (a -> Bool) -> [((e, a), (e, a))] -> IO [(e, a)]
ftotalIO :: Typeable a => Maybe Int -> (a -> Bool) -> [(e, a)] -> IO [(e, a)]
etup :: (ProgramGenerator pg, Typeable a) => a -> pg -> Bool -> [[((Exp, a), (Exp, a))]]
mkCurriedDecls :: String -> ExpQ -> ExpQ -> DecsQ

module MagicHaskeller.LibExcel
succOnlyForNumbers :: Bool
last' :: a -> [a] -> a

-- | <a>ppExcel</a> replaces uncommon functions like catamorphisms with
--   well-known functions.
ppExcel :: Exp -> Exp
ppv :: Exp -> Exp
ppopn :: Name -> Name
ppdrop :: Integer -> Exp -> Exp
constE :: Exp
flipE :: Exp
plusE :: Exp
dropE :: Exp
reverseE :: Exp
lengthE :: Exp
sumE :: Exp
productE :: Exp
leftE :: Exp
rightE :: Exp
lenE :: Exp
absE :: Exp
mkIF :: Exp -> Exp -> Exp -> Exp
mkUncurried :: String -> [Exp] -> Exp
mkSUBST4 :: [Exp] -> Exp
mkVarOp :: Exp -> String -> Exp -> Exp
char7 :: Exp
lit0 :: Exp
lit1 :: Exp
procSucc :: Integer -> Exp -> Exp
nrnds :: Num a => [a]
mkPgExcel :: IO ProgGenSF
mkPgExcels :: Int -> IO ProgGenSF
(<>) :: Eq a => a -> a -> Bool
excel :: [[(HValue, Exp, Type)]]
totalGCD :: Integral t => t -> t -> t
curry2 :: ((a, b) -> c) -> a -> b -> c
curry3 :: ((a, b, c) -> d) -> a -> b -> c -> d
curry4 :: ((a, b, c, d) -> e) -> a -> b -> c -> d -> e
curry5 :: ((a, b, c, d, e) -> f) -> a -> b -> c -> d -> e -> f
curry6 :: ((a, b, c, d, e, f) -> g) -> a -> b -> c -> d -> e -> f -> g
iF :: (Bool, a, a) -> a
upper :: [Char] -> [Char]
lower :: [Char] -> [Char]
proper :: [Char] -> [Char]
right :: ([b], Int) -> [b]
left :: ([b], Int) -> [b]
left1 :: [a] -> [a]
right1 :: [b] -> [b]
dropLeft :: [Char] -> Int -> [Char]
mid :: ([a], Int, Int) -> [a]
len :: Num a => String -> a
concatenate :: ([a], [a]) -> [a]
concatenatE :: ([a], [a], [a]) -> [a]
concatenaTE :: ([a], [a], [a], [a]) -> [a]
concatenATE :: ([a], [a], [a], [a], [a]) -> [a]
concateNATE :: ([a], [a], [a], [a], [a], [a]) -> [a]
cEILING :: (Double, Double) -> Double
fLOOR :: (Double, Double) -> Double
mround :: (Double, Double) -> Double
fLOOR0 :: RealFrac t => t -> t -> t
rOUND :: (Double, Int) -> Double
roundup :: (Double, Int) -> Double
rounddown :: (Double, Int) -> Double
trim :: String -> String
fIND :: (Num b) => (String, String, Int) -> Maybe b
ifERROR :: (Maybe a, a) -> a
aND :: (Bool, Bool) -> Bool
oR :: (Bool, Bool) -> Bool
sign :: Num a => a -> a
power :: RealFloat a => (a, a) -> Maybe a
sQRT :: (Floating a, Ord a) => a -> Maybe a
lOG :: (Floating a, Ord a) => (a, a) -> Maybe a
ln :: (Floating a, Ord a) => a -> Maybe a
pI :: Floating a => () -> a
aTAN2 :: RealFloat a => (a, a) -> a
fact :: (Enum a, Num a, Ord a) => a -> Maybe a
combin :: Integral a => (a, a) -> Maybe a
mOD :: (Int, Int) -> Maybe Int
degrees :: Double -> Double
radians :: Double -> Double
gCD :: (RealFrac a, RealFrac a1, Integral t) => (a1, a) -> t
findIx :: Num a => [Char] -> [Char] -> Int -> a
finD :: Num b => (String, String) -> b
char :: Int -> [Char]
sUBsTITUTE :: (String, String, String) -> String
sUBSTITUTE :: (String, String, String, Int) -> String
sUB :: (Num a, Ord a) => [Char] -> [Char] -> [Char] -> a -> [Char]
sUBST4 :: String -> String -> String -> Int -> String
countStr :: Num a => String -> String -> a
gCD'2 :: Double -> Double -> Int
mOD'2 :: Int -> Int -> Maybe Int
combin'2 :: Int -> Int -> Maybe Int
aTAN2'2 :: Double -> Double -> Double
lOG'2 :: Double -> Double -> Maybe Double
power'2 :: Double -> Double -> Maybe Double
oR'2 :: Bool -> Bool -> Bool
aND'2 :: Bool -> Bool -> Bool
ifERROR'2 :: Maybe c -> c -> c
rounddown'2 :: Double -> Int -> Double
roundup'2 :: Double -> Int -> Double
rOUND'2 :: Double -> Int -> Double
mround'2 :: Double -> Double -> Double
cEILING'2 :: Double -> Double -> Double
concatenate'2 :: [a] -> [a] -> [a]
right'2 :: [b] -> Int -> [b]
left'2 :: [b] -> Int -> [b]
concatenatE'3 :: [a] -> [a] -> [a] -> [a]
sUBsTITUTE'3 :: String -> String -> String -> String
fIND'3 :: String -> String -> Int -> Maybe Int
mid'3 :: [a] -> Int -> Int -> [a]
iF'3 :: Bool -> d -> d -> d
concatenaTE'4 :: [a] -> [a] -> [a] -> [a] -> [a]
concatenATE'5 :: [a] -> [a] -> [a] -> [a] -> [a] -> [a]
concateNATE'6 :: [a] -> [a] -> [a] -> [a] -> [a] -> [a] -> [a]

module MagicHaskeller.LibTH
succOnlyForNumbers :: Bool
last' :: a -> [a] -> a
tail :: [a] -> [a]
gcd :: Integral t => t -> t -> t
enumFromThenTo :: (Enum t2, Enum t1, Enum t, Enum b) => t2 -> t1 -> t -> [b]
initialize :: IO ()
init075 :: IO ()
inittv1 :: IO ()
mall :: ProgramGenerator pg => pg
mlist :: ProgramGenerator pg => pg
mlist' :: ProgramGenerator pg => pg
mnat :: ProgramGenerator pg => pg
mlistnat :: ProgramGenerator pg => pg
mnat_nc :: ProgramGenerator pg => pg
mnatural :: ProgramGenerator pg => pg
mlistnatural :: ProgramGenerator pg => pg
hd :: [a] -> Maybe a
mb :: [Primitive]
mb' :: [Primitive]
nat :: [Primitive]
natural :: [Primitive]
nat' :: [Primitive]
nat'woPred :: [Primitive]
natural' :: [Primitive]
plusInt :: [Primitive]
plusInteger :: [Primitive]
list'' :: [Primitive]
list' :: [Primitive]
list :: [Primitive]
bool :: [Primitive]
boolean :: [Primitive]
intinst :: [Primitive]
list1 :: [Primitive]
list1' :: [Primitive]
list2 :: [Primitive]
list3 :: [Primitive]
list3' :: [Primitive]
nats :: [Primitive]
tuple :: [Primitive]
tuple' :: [Primitive]
rich :: [Primitive]
rich' :: [Primitive]
debug :: [Primitive]
nat_para :: Integral i => i -> a -> (i -> a -> a) -> a
nat_cata :: Integral i => i -> a -> (a -> a) -> a
list_para :: [b] -> a -> (b -> [b] -> a -> a) -> a
iF :: Bool -> a -> a -> a

-- | <a>postprocess</a> replaces uncommon functions like catamorphisms with
--   well-known functions.
postprocess :: Exp -> Exp
byMap :: IntMap (Exp -> Exp -> Exp)
byEqs :: [(Int, Exp -> Exp -> Exp)]
byOrds :: [(Int, Exp -> Exp -> Exp)]
skip :: String -> String -> Exp -> Exp -> Exp
skipEq :: String -> Exp -> Exp -> Exp
skipOrd :: String -> Exp -> Exp -> Exp
appearsIn :: Data a => String -> a -> Bool
ppLambda :: [Pat] -> Exp -> Exp
ppv :: Exp -> Exp
ppopn :: Name -> Name
ppdrop :: Integer -> Exp -> Exp
constE :: Exp
flipE :: Exp
plusE :: Exp
dropE :: Exp
reverseE :: Exp
lengthE :: Exp
sumE :: Exp
productE :: Exp
procSucc :: Integer -> Exp -> Exp
postprocessQ :: Exp -> ExpQ
exploit :: (Typeable a, Filtrable a) => Bool -> (a -> Bool) -> IO ()
newtype Partial a
Part :: a -> Partial a
[undef] :: Partial a -> a
undefs :: [((HValue, Exp, Type), (HValue, Exp, Type))]
by1_head :: Partial a -> [a] -> a
(--#!!) :: Partial a -> [a] -> Int -> a
prelPartial :: [(HValue, Exp, Type)]
newtype Equivalence a
Eq :: (a -> a -> Bool) -> Equivalence a
[--#==] :: Equivalence a -> a -> a -> Bool
eq :: Eq a => Equivalence a
by1_eqMaybe :: Equivalence a -> Equivalence (Maybe a)
eqMaybeBy :: (t1 -> t -> Bool) -> Maybe t1 -> Maybe t -> Bool
by1_eqList :: Equivalence a -> Equivalence [a]
eqListBy :: (t1 -> t -> Bool) -> [t1] -> [t] -> Bool
by2_eqEither :: Equivalence a -> Equivalence b -> Equivalence (Either a b)
eqEitherBy :: (t3 -> t2 -> Bool) -> (t1 -> t -> Bool) -> Either t3 t1 -> Either t2 t -> Bool
by2_eqPair :: Equivalence a -> Equivalence b -> Equivalence (a, b)
eqPairBy :: (t3 -> t2 -> Bool) -> (t1 -> t -> Bool) -> (t3, t1) -> (t2, t) -> Bool
eqs :: [(HValue, Exp, Type)]
prelEqRelated :: [[(HValue, Exp, Type)]]
dataListEqRelated :: [[(HValue, Exp, Type)]]
(--#/=) :: Equivalence a -> a -> a -> Bool
by1_elem :: Equivalence a -> a -> [a] -> Bool
by1_group :: Equivalence a -> [a] -> [[a]]
by1_nub :: Equivalence a -> [a] -> [a]
by1_isPrefixOf :: Equivalence a -> [a] -> [a] -> Bool
by1_isSuffixOf :: Equivalence a -> [a] -> [a] -> Bool
by1_isInfixOf :: Equivalence a -> [a] -> [a] -> Bool
by1_stripPrefix :: Equivalence a -> [a] -> [a] -> Maybe [a]
by1_lookup :: Equivalence a -> a -> (->) [(a, b)] (Maybe b)
newtype Ordered a
Ord :: (a -> a -> Ordering) -> Ordered a
[by1_compare] :: Ordered a -> a -> a -> Ordering
cmp :: Ord a => Ordered a
by1_cmpMaybe :: Ordered a -> Ordered (Maybe a)
compareMaybeBy :: (t1 -> t -> Ordering) -> Maybe t1 -> Maybe t -> Ordering
by1_cmpList :: Ordered a -> Ordered [a]
compareListBy :: (t1 -> t -> Ordering) -> [t1] -> [t] -> Ordering
by2_cmpEither :: Ordered a -> Ordered b -> Ordered (Either a b)
compareEitherBy :: (t3 -> t2 -> Ordering) -> (t1 -> t -> Ordering) -> Either t3 t1 -> Either t2 t -> Ordering
by2_cmpPair :: Ordered a -> Ordered b -> Ordered (a, b)
comparePairBy :: (t3 -> t2 -> Ordering) -> (t1 -> t -> Ordering) -> (t3, t1) -> (t2, t) -> Ordering
ords :: [(HValue, Exp, Type)]
prelOrdRelated :: [[(HValue, Exp, Type)]]
dataListOrdRelated :: [[(HValue, Exp, Type)]]
(--#<=) :: Ordered t -> t -> t -> Bool
(--#<) :: Ordered t -> t -> t -> Bool
by1_max :: Ordered t -> t -> t -> t
by1_min :: Ordered t -> t -> t -> t
by1_sort :: Ordered t -> [t] -> [t]
intinst1 :: [(HValue, Exp, Type)]
intpartials :: [(HValue, Exp, Type)]
intinst2 :: [(HValue, Exp, Type)]
reallyall :: ProgramGenerator pg => pg
nrnds :: Num a => [a]
generator :: TFGen
mix :: ProgramGenerator pg => pg
poormix :: ProgramGenerator pg => pg
soso :: [Primitive]
ra :: ProgramGenerator pg => pg
mx :: ProgramGenerator pg => pg

-- | Library used by the program server backend
pgfull :: ProgGenSF
pgfulls :: [ProgGenSF]
mkPgFull :: IO ProgGenSF
mkPgTotal :: IO ProgGenSF
mkDebugPg :: IO ProgGenSF
deb :: [[(HValue, Exp, Type)]]
pgfullIO :: IO ProgGenSFIORef
full :: [[(HValue, Exp, Type)]]
clspartialss :: [(Primitive, Primitive)]
tupartialss :: [[(Primitive, Primitive)]]
tupartialssNormal :: [[(Primitive, Primitive)]]
literals :: [[(HValue, Exp, Type)]]
fromPrelude :: [[Primitive]]
fromDataList :: [[(HValue, Exp, Type)]]
fromDataChar :: [[(HValue, Exp, Type)]]
fromDataMaybe :: [[(HValue, Exp, Type)]]
pgWithDoubleRatio :: ProgGenSF
pgWithDoubleRatios :: [ProgGenSF]
withDoubleRatio :: [[(HValue, Exp, Type)]]
pgWithRatio :: ProgGenSF
pgWithRatios :: [ProgGenSF]
pgRatio :: ProgGenSF
pgRatios :: [ProgGenSF]
withRatio :: [[(HValue, Exp, Type)]]
ratioCls :: [(HValue, Exp, Type)]
fromPrelRatio :: [[(HValue, Exp, Type)]]
fromDataRatio :: [[(HValue, Exp, Type)]]
pgWithDouble :: ProgGenSF
pgWithDoubles :: [ProgGenSF]
mkPgWithDouble :: IO ProgGenSF
withDouble :: [[(HValue, Exp, Type)]]
doubleCls :: [(HValue, Exp, Type)]
fromPrelDouble :: [[(HValue, Exp, Type)]]

module MagicHaskeller.IOGenerator
arbitraries :: Arbitrary a => [a]
arbs :: Arbitrary a => Int -> TFGen -> [a]
showIOPairsHTML :: String -> [ShownIOPair] -> String
showIOPairsWithFormsHTML :: String -> String -> String -> [ShownIOPair] -> String
showIOPairsHTML' :: (Int -> ShownIOPair -> String) -> String -> [ShownIOPair] -> String
nubOn :: Eq a => (b -> a) -> [b] -> [b]
nubSortedOn :: Ord a => (b -> a) -> [b] -> [b]
nubSortedOn' :: Ord a => (b -> a) -> [b] -> [b]
type ShownIOPair = ([AnnShowS], String)
iopairToInputs :: ShownIOPair -> [String]
assToString :: AnnShowS -> String
type AnnShowS = (String -> String)  annotater -> String -> String
showIOPairHTML :: ShownIOPair -> String
showIOPairWithFormHTML :: String -> Int -> ([AnnShowS], String) -> String
mkForm :: String -> Int -> ShownIOPair -> String
showsInputs :: Foldable t => t ((a -> a) -> [Char] -> [Char]) -> [Char] -> [Char]
escapeQuote :: Char -> [Char]
class IOGenerator a
generateIOPairs :: IOGenerator a => a -> [ShownIOPair]
generateIOPairsLitNum :: (Num a, Ord a, Show a, IOGenerator b) => [a] -> (a -> b) -> [ShownIOPair]
integrals :: Integral i => [i]
mhGenerateIOPairs :: (ShowArbitrary a, IOGenerator b) => (a -> b) -> [ShownIOPair]

-- | <a>ShowArbitrary</a> is a variant of <a>Arbitrary</a> for presenting
--   I/O example pairs. It uses everythingF for generating printable
--   functions. Here `good presentation' is more important than `good
--   randomness'.
class ShowArbitrary a
showArbitraries :: ShowArbitrary a => [(AnnShowS, a)]
sas :: (Show a) => (a -> Bool) -> [a] -> [(AnnShowS, a)]
sasNum :: (Show a, Arbitrary a, Num a, Ord a) => [(AnnShowS, a)]
sasFalse :: (Show a) => [a] -> [(AnnShowS, a)]
sasIntegral :: (Show a, Arbitrary a, Integral a, Ord a) => [(AnnShowS, a)]
mapSA :: [Char] -> (t2 -> t1) -> (t -> String -> [Char], t2) -> (t -> ShowS, t1)
skip :: Int -> [a] -> [a]
chopBy :: [Int] -> [a] -> [[a]]
cvt :: [(AnnShowS, a)] -> (AnnShowS, [a])
showsList :: [(a -> a) -> [Char] -> [Char]] -> (a -> a) -> ShowS
generateIOPairsFun :: (Ord a, Show a, Arbitrary a, IOGenerator b) => Bool -> (a -> b) -> [ShownIOPair]
uniqSort :: Ord a => [a] -> [a]
class NearEq a
(~=) :: NearEq a => a -> a -> Bool
instance MagicHaskeller.IOGenerator.IOGenerator r => MagicHaskeller.IOGenerator.IOGenerator (GHC.Types.Int -> r)
instance MagicHaskeller.IOGenerator.IOGenerator r => MagicHaskeller.IOGenerator.IOGenerator (GHC.Integer.Type.Integer -> r)
instance MagicHaskeller.IOGenerator.IOGenerator r => MagicHaskeller.IOGenerator.IOGenerator (GHC.Types.Float -> r)
instance MagicHaskeller.IOGenerator.IOGenerator r => MagicHaskeller.IOGenerator.IOGenerator (GHC.Types.Double -> r)
instance MagicHaskeller.IOGenerator.IOGenerator r => MagicHaskeller.IOGenerator.IOGenerator (() -> r)
instance MagicHaskeller.IOGenerator.IOGenerator r => MagicHaskeller.IOGenerator.IOGenerator (GHC.Types.Bool -> r)
instance MagicHaskeller.IOGenerator.IOGenerator r => MagicHaskeller.IOGenerator.IOGenerator (GHC.Types.Ordering -> r)
instance MagicHaskeller.IOGenerator.IOGenerator r => MagicHaskeller.IOGenerator.IOGenerator (GHC.Types.Char -> r)
instance MagicHaskeller.IOGenerator.IOGenerator r => MagicHaskeller.IOGenerator.IOGenerator (GHC.Base.String -> r)
instance (MagicHaskeller.IOGenerator.ShowArbitrary a, MagicHaskeller.IOGenerator.IOGenerator r) => MagicHaskeller.IOGenerator.IOGenerator (a -> r)
instance MagicHaskeller.IOGenerator.ShowArbitrary ()
instance MagicHaskeller.IOGenerator.ShowArbitrary GHC.Types.Bool
instance MagicHaskeller.IOGenerator.ShowArbitrary GHC.Types.Int
instance MagicHaskeller.IOGenerator.ShowArbitrary GHC.Integer.Type.Integer
instance MagicHaskeller.IOGenerator.ShowArbitrary GHC.Types.Float
instance MagicHaskeller.IOGenerator.ShowArbitrary GHC.Types.Double
instance MagicHaskeller.IOGenerator.ShowArbitrary GHC.Types.Char
instance MagicHaskeller.IOGenerator.ShowArbitrary GHC.Types.Ordering
instance (GHC.Real.Integral i, System.Random.TF.Instances.Random i, GHC.Show.Show i) => MagicHaskeller.IOGenerator.ShowArbitrary (MagicHaskeller.FastRatio.Ratio i)
instance MagicHaskeller.IOGenerator.ShowArbitrary a => MagicHaskeller.IOGenerator.ShowArbitrary (GHC.Base.Maybe a)
instance (MagicHaskeller.IOGenerator.ShowArbitrary a, MagicHaskeller.IOGenerator.ShowArbitrary b) => MagicHaskeller.IOGenerator.ShowArbitrary (Data.Either.Either a b)
instance (MagicHaskeller.IOGenerator.ShowArbitrary a, MagicHaskeller.IOGenerator.ShowArbitrary b) => MagicHaskeller.IOGenerator.ShowArbitrary (a, b)
instance (MagicHaskeller.IOGenerator.ShowArbitrary a, MagicHaskeller.IOGenerator.ShowArbitrary b, MagicHaskeller.IOGenerator.ShowArbitrary c) => MagicHaskeller.IOGenerator.ShowArbitrary (a, b, c)
instance MagicHaskeller.IOGenerator.ShowArbitrary a => MagicHaskeller.IOGenerator.ShowArbitrary [a]
instance (Data.Typeable.Internal.Typeable a, Data.Typeable.Internal.Typeable b) => MagicHaskeller.IOGenerator.ShowArbitrary (a -> b)
instance GHC.Show.Show a => MagicHaskeller.IOGenerator.IOGenerator a

module MagicHaskeller.Individual
availableNames :: [String]
prioritizedNamesToPg :: Maybe Int -> [(Int, String)] -> IO ProgGenSF

module MagicHaskeller.Minimal
e :: Typeable a => (Exp -> Exp) -> a -> ProgGenSF -> Bool -> [[Exp]]
f1E :: Typeable a => (Exp -> Exp) -> (a -> Bool) -> ProgGenSF -> Bool -> [[Exp]]
f1EF :: (Filtrable a, Typeable a) => (Exp -> Exp) -> (a -> Bool) -> ProgGenSF -> Bool -> [[Exp]]
f1EIO :: Typeable a => (Exp -> Exp) -> (a -> Bool) -> ProgGenSF -> Bool -> IO [[Exp]]
f1EFIO :: (Filtrable a, Typeable a) => (Exp -> Exp) -> (a -> Bool) -> ProgGenSF -> Bool -> IO [[Exp]]
simpleEF :: (Filtrable a, Typeable a) => ProgGenSF -> Bool -> [[(CoreExpr, a)]]
type ProgGenSF = PGSF CoreExpr
class NearEq a
(~=) :: NearEq a => a -> a -> Bool

-- | <a>postprocess</a> replaces uncommon functions like catamorphisms with
--   well-known functions.
postprocess :: Exp -> Exp

-- | <a>ppExcel</a> replaces uncommon functions like catamorphisms with
--   well-known functions.
ppExcel :: Exp -> Exp

module Control.Monad.Search.Best

-- | Unlike <a>Matrix</a>, <a>Recomp</a>, etc., the <a>Best</a> monad only
--   keeps the best set of results. This makes the analytical synthesis
--   like IgorII, and the exhaustive synthesis like Djinn, i.e., the
--   resulting algorithms are more efficient, but cannot be used for
--   (analytically-)generate-and-test.
data Best a
Result :: [a] -> Best a
Delay :: (Best a) -> Best a
getBests :: Best a -> [a]
zero :: Best a
fromLists :: [[a]] -> Best a
instance GHC.Read.Read a => GHC.Read.Read (Control.Monad.Search.Best.Best a)
instance GHC.Show.Show a => GHC.Show.Show (Control.Monad.Search.Best.Best a)
instance GHC.Base.Functor Control.Monad.Search.Best.Best
instance GHC.Base.Applicative Control.Monad.Search.Best.Best
instance GHC.Base.Monad Control.Monad.Search.Best.Best
instance GHC.Base.Alternative Control.Monad.Search.Best.Best
instance GHC.Base.MonadPlus Control.Monad.Search.Best.Best
instance Control.Monad.Search.Combinatorial.Delay Control.Monad.Search.Best.Best
instance Control.Monad.Search.Combinatorial.Search Control.Monad.Search.Best.Best
instance Control.Monad.Search.Combinatorial.Memoable Control.Monad.Search.Best.Best Control.Monad.Search.Best.Best

module MagicHaskeller.Analytical

-- | get1 can be used to synthesize one expression. For example,
--   
--   <pre>
--   &gt;&gt;&gt; putStrLn $ pprint $ get1 $(c [d| f [] = 0; f [a] = 1; f [a,b] = 2 |]) noBK
--   &gt; \a -&gt; let fa (b@([])) = 0
--   &gt;           fa (b@(_ : d)) = succ (fa d)
--   &gt;       in fa a
--   </pre>
get1 :: SplicedPrims -> SplicedPrims -> Exp

-- | getMany does what you expect from its name.
getMany :: SplicedPrims -> SplicedPrims -> [[Exp]]
getManyM :: (Search m) => SplicedPrims -> SplicedPrims -> m Exp

-- | getManyTyped is a variant of <a>getMany</a> that generates typed
--   expressions. This alone is not very useful, but the type info is
--   required when compiling the expression and is used in
--   <a>MagicHaskeller.RunAnalytical</a>.
getManyTyped :: SplicedPrims -> SplicedPrims -> [[Exp]]
noBK :: SplicedPrims

-- | Also, <tt> $(c [d| ... |]) :: SplicedPrims </tt> <a>c</a> is a helper
--   function for extracting some info from the quoted declarations.
c :: Q [Dec] -> ExpQ
type SplicedPrims = ([Dec], [Primitive])

-- | Example:
--   
--   <pre>
--   &gt;&gt;&gt; runQ [d| f [] = 0; f [a] = 1; f [a,b] = 2 |] &gt;&gt;= \iops -&gt; putStrLn $ pprint $ getOne iops []
--   &gt; \a -&gt; let fa (b@([])) = 0
--   &gt;           fa (b@(_ : d)) = succ (fa d)
--   &gt;       in fa a
--   </pre>
getOne :: [Dec] -> [Dec] -> Exp
synth :: [Dec] -> [Dec] -> [[Exp]]
synthM :: Search m => [Dec] -> [Dec] -> m Exp

-- | <a>synthTyped</a> is like synth, but adds the infered type signature
--   to each expression. This is useful for executing the expression at
--   runtime using GHC API.
synthTyped :: [Dec] -> [Dec] -> [[Exp]]

module MagicHaskeller.RunAnalytical

-- | Example of <a>quickStart</a>
--   
--   <pre>
--   &gt;&gt;&gt; quickStart [d| f [] = 0; f [a] = 1 |] noBKQ (\f -&gt; f "12345" == 5)
--   &gt; \a -&gt; let fa (b@([])) = 0
--   &gt;           fa (b@(c : d)) = succ (fa d)
--   &gt;       in fa a :: forall t2 . [t2] -&gt; Int
--   &gt; ^CInterrupted.
--   </pre>
quickStart :: (Typeable a) => Q [Dec] -> Q [Dec] -> (a -> Bool) -> IO ()
quickStartF :: (Filtrable a, Typeable a) => Q [Dec] -> Q [Dec] -> (a -> Bool) -> IO ()
filterGetOne_ :: Typeable * a => HscEnv -> Q [Dec] -> (a -> Bool) -> IO ()
filterGetOne :: (Typeable a) => HscEnv -> Q [Dec] -> (a -> Bool) -> IO (Every a)
filterGetOneBK :: (Typeable a) => HscEnv -> Q [Dec] -> Q [Dec] -> (a -> Bool) -> IO (Every a)
synthFilt :: (Typeable a) => HscEnv -> Q [Dec] -> Q [Dec] -> (a -> Bool) -> IO (Every a)
synthFiltF :: (Filtrable a, Typeable a) => HscEnv -> Q [Dec] -> Q [Dec] -> (a -> Bool) -> IO (Every a)
synthAll :: (Typeable a) => HscEnv -> Q [Dec] -> Q [Dec] -> IO (Every a)
noBKQ :: Q [Dec]