Safe Haskell	None
Language	Haskell2010

Frames

Description

User-friendly, type safe, runtime efficient tooling for working with tabular data deserialized from comma-separated values (CSV) files. The type of each row of data is inferred from data, which can then be streamed from disk, or worked with in memory.

Synopsis

class Readable a where
- fromText :: MonadPlus m => Text -> m a
- fromBS :: MonadPlus m => ByteString -> m a
rcast :: forall k1 k2 (rs :: [k1]) (ss :: [k1]) (f :: k2 -> Type) record (is :: [Nat]). (RecSubset record rs ss is, RecSubsetFCtx record f) => record f ss -> record f rs
rsubset :: forall k1 k2 (rs :: [k2]) (ss :: [k2]) (f :: k1 -> Type) g record (is :: [Nat]). (RecSubset record rs ss is, Functor g, RecSubsetFCtx record f) => (record f rs -> g (record f rs)) -> record f ss -> g (record f ss)
(<+>) :: forall k (f :: k -> Type) (as :: [k]) (bs :: [k]). Rec f as -> Rec f bs -> Rec f (as ++ bs)
data Rec (a :: u -> Type) (b :: [u])
data ElField (field :: (Symbol, Type))
onField :: forall c (ts :: [Type]) b. RPureConstrained c ts => (forall a. (a ∈ ts, c a) => a -> b) -> Field ts -> b
onCoRec :: forall k1 k2 c f (ts :: [k1]) (b :: k2) g. RPureConstrained c ts => (forall (a :: k1). (a ∈ ts, c a) => f a -> g b) -> CoRec f ts -> g b
type Field = CoRec Identity
rfield :: forall f a b (s :: Symbol). Functor f => (a -> f b) -> ElField '(s, a) -> f (ElField '(s, b))
type (:.) (f :: l -> Type) (g :: k -> l) = Compose f g
module Data.Vinyl.Lens
type family RDelete (r :: a) (rs :: [a]) :: [a] where ...
type family RecAll (f :: u -> Type) (rs :: [u]) (c :: Type -> Constraint) where ...
type family AllConstrained (c :: u -> Constraint) (ts :: [u]) where ...
class AllSatisfied (cs :: k) (t :: k1)
type family AllAllSat (cs :: k) (ts :: [k1]) where ...
type (:->) (a :: Symbol) b = '(a, b)
pattern Col :: KnownSymbol s => t -> ElField '(s, t)
module Frames.ColumnUniverse
readTableMaybe :: (MonadSafe m, ReadRec rs, RMap rs) => FilePath -> Producer (Rec (Maybe :. ElField) rs) m ()
pipeTableMaybe :: (Monad m, ReadRec rs, RMap rs) => Pipe [Text] (Rec (Maybe :. ElField) rs) m ()
readTableOpt :: (MonadSafe m, ReadRec rs, RMap rs) => ParserOptions -> FilePath -> Producer (Record rs) m ()
readTable :: (MonadSafe m, ReadRec rs, RMap rs) => FilePath -> Producer (Record rs) m ()
pipeTable :: (ReadRec rs, RMap rs, Monad m) => Pipe [Text] (Record rs) m ()
module Frames.Exploration
module Frames.Frame
inCoreAoS :: (PrimMonad m, MonadIO m, MonadMask m, RecVec rs) => Producer (Record rs) (SafeT m) () -> m (FrameRec rs)
inCoreAoS' :: (PrimMonad m, MonadIO m, MonadMask m, RecVec rs) => (Rec ((->) Int :. ElField) rs -> Rec ((->) Int :. ElField) ss) -> Producer (Record rs) (SafeT m) () -> m (FrameRec ss)
inCore :: (PrimMonad m, MonadIO m, MonadMask m, RecVec rs, Monad n) => Producer (Record rs) (SafeT m) () -> m (Producer (Record rs) n ())
inCoreSoA :: (PrimMonad m, MonadIO m, MonadMask m, RecVec rs) => Producer (Record rs) (SafeT m) () -> m (Int, Rec ((->) Int :. ElField) rs)
toAoS :: Int -> Rec ((->) Int :. ElField) rs -> FrameRec rs
toFrame :: (Foldable f, RecVec rs) => f (Record rs) -> Frame (Record rs)
filterFrame :: RecVec rs => (Record rs -> Bool) -> FrameRec rs -> FrameRec rs
module Frames.Joins
meltRow :: (vs ⊆ ts, ss ⊆ ts, vs ~ RDeleteAll ss ts, Disjoint ss ts ~ 'True, ts ≅ (vs ++ ss), ColumnHeaders vs, RowToColumn vs vs) => proxy ss -> Record ts -> [Record (ss ++ '["value" :-> CoRec ElField vs])]
melt :: forall vs ts ss proxy. (vs ⊆ ts, ss ⊆ ts, vs ~ RDeleteAll ss ts, HasLength vs, Disjoint ss ts ~ 'True, ts ≅ (vs ++ ss), ColumnHeaders vs, RowToColumn vs vs) => proxy ss -> FrameRec ts -> FrameRec (ss ++ '["value" :-> CoRec ElField vs])
type family RecordColumns t where ...
type Record = FieldRec
(&:) :: KnownSymbol s => a -> Record rs -> Record ((s :-> a) ': rs)
recUncons :: Record ((s :-> a) ': rs) -> (a, Record rs)
recMaybe :: Rec (Maybe :. ElField) cs -> Maybe (Record cs)
showFields :: (RecMapMethod Show ElField ts, RecordToList ts) => Record ts -> [String]
rgetField :: forall t s a rs. (t ~ '(s, a), t ∈ rs) => Record rs -> a
rputField :: forall t s a rs. (t ~ '(s, a), t ∈ rs, KnownSymbol s) => a -> Record rs -> Record rs
module Frames.RecF
declareColumn :: Text -> Name -> DecsQ
tableTypes :: String -> FilePath -> DecsQ
tableTypes' :: forall a c. (c ~ CoRec ColInfo a, ColumnTypeable c, Monoid c) => RowGen a -> DecsQ
module Frames.TypeLevel
runSafeP :: forall (m :: Type -> Type) r. (MonadMask m, MonadIO m) => Effect (SafeT m) r -> Effect' m r
runSafeT :: (MonadMask m, MonadIO m) => SafeT m r -> m r
data SafeT (m :: Type -> Type) r
class (MonadCatch m, MonadMask m, MonadIO m, MonadIO (Base m)) => MonadSafe (m :: Type -> Type)
runSafeEffect :: (MonadIO m, MonadMask m) => Effect (SafeT m) r -> m r
data Text

Documentation

class Readable a where #

ByteString and Text reading using MonadPlus to handle parse failure. On error, fromText and fromBS will return mzero. You can use mplus to provide fallback defaults.

Minimal complete definition

fromText

Methods

fromText :: MonadPlus m => Text -> m a #

Reads data from a Text representation.

fromBS :: MonadPlus m => ByteString -> m a #

Reads data from a UTF8 encoded ByteString. The default implementation of this function simply decodes with UTF-8 and then calls the fromText function. If decoding fails, mzero will be returned. You can provide your own implementation if you need different behavior such as not decoding to UTF8.

Instances

Instances details

Readable Bool
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Bool # fromBS :: MonadPlus m => ByteString -> m Bool #
Readable Double
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Double # fromBS :: MonadPlus m => ByteString -> m Double #
Readable Float
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Float # fromBS :: MonadPlus m => ByteString -> m Float #
Readable Int
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Int # fromBS :: MonadPlus m => ByteString -> m Int #
Readable Int8
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Int8 # fromBS :: MonadPlus m => ByteString -> m Int8 #
Readable Int16
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Int16 # fromBS :: MonadPlus m => ByteString -> m Int16 #
Readable Int32
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Int32 # fromBS :: MonadPlus m => ByteString -> m Int32 #
Readable Int64
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Int64 # fromBS :: MonadPlus m => ByteString -> m Int64 #
Readable Integer
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Integer # fromBS :: MonadPlus m => ByteString -> m Integer #
Readable Word8
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Word8 # fromBS :: MonadPlus m => ByteString -> m Word8 #
Readable Word16
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Word16 # fromBS :: MonadPlus m => ByteString -> m Word16 #
Readable Word32
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Word32 # fromBS :: MonadPlus m => ByteString -> m Word32 #
Readable Word64
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Word64 # fromBS :: MonadPlus m => ByteString -> m Word64 #
Readable ByteString
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m ByteString # fromBS :: MonadPlus m => ByteString -> m ByteString #
Readable Text
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Text # fromBS :: MonadPlus m => ByteString -> m Text #

rcast :: forall k1 k2 (rs :: [k1]) (ss :: [k1]) (f :: k2 -> Type) record (is :: [Nat]). (RecSubset record rs ss is, RecSubsetFCtx record f) => record f ss -> record f rs #

Takes a larger record to a smaller one by forgetting fields. This is rcastC with the type arguments reordered for more convenient usage with TypeApplications.

rsubset :: forall k1 k2 (rs :: [k2]) (ss :: [k2]) (f :: k1 -> Type) g record (is :: [Nat]). (RecSubset record rs ss is, Functor g, RecSubsetFCtx record f) => (record f rs -> g (record f rs)) -> record f ss -> g (record f ss) #

A lens into a slice of the larger record. This is rsubsetC with the type arguments reordered for more convenient usage with TypeApplications.

(<+>) :: forall k (f :: k -> Type) (as :: [k]) (bs :: [k]). Rec f as -> Rec f bs -> Rec f (as ++ bs) infixr 5 #

A shorthand for rappend.

data Rec (a :: u -> Type) (b :: [u]) #

A record is parameterized by a universe u, an interpretation f and a list of rows rs. The labels or indices of the record are given by inhabitants of the kind u; the type of values at any label r :: u is given by its interpretation f r :: *.

Instances

Instances details

RecSubset (Rec :: (k -> Type) -> [k] -> Type) ('[] :: [k]) (ss :: [k]) ('[] :: [Nat])
Instance details Defined in Data.Vinyl.Lens Associated Types type RecSubsetFCtx Rec f # Methods rsubsetC :: forall g (f :: k0 -> Type). (Functor g, RecSubsetFCtx Rec f) => (Rec f '[] -> g (Rec f '[])) -> Rec f ss -> g (Rec f ss) # rcastC :: forall (f :: k0 -> Type). RecSubsetFCtx Rec f => Rec f ss -> Rec f '[] # rreplaceC :: forall (f :: k0 -> Type). RecSubsetFCtx Rec f => Rec f '[] -> Rec f ss -> Rec f ss #
(RElem r ss i, RSubset rs ss is) => RecSubset (Rec :: (k -> Type) -> [k] -> Type) (r ': rs :: [k]) (ss :: [k]) (i ': is)
Instance details Defined in Data.Vinyl.Lens Associated Types type RecSubsetFCtx Rec f # Methods rsubsetC :: forall g (f :: k0 -> Type). (Functor g, RecSubsetFCtx Rec f) => (Rec f (r ': rs) -> g (Rec f (r ': rs))) -> Rec f ss -> g (Rec f ss) # rcastC :: forall (f :: k0 -> Type). RecSubsetFCtx Rec f => Rec f ss -> Rec f (r ': rs) # rreplaceC :: forall (f :: k0 -> Type). RecSubsetFCtx Rec f => Rec f (r ': rs) -> Rec f ss -> Rec f ss #
RecElem (Rec :: (a -> Type) -> [a] -> Type) (r :: a) (r' :: a) (r ': rs :: [a]) (r' ': rs :: [a]) 'Z
Instance details Defined in Data.Vinyl.Lens Associated Types type RecElemFCtx Rec f # Methods rlensC :: (Functor g, RecElemFCtx Rec f) => (f r -> g (f r')) -> Rec f (r ': rs) -> g (Rec f (r' ': rs)) # rgetC :: (RecElemFCtx Rec f, r ~ r') => Rec f (r ': rs) -> f r # rputC :: RecElemFCtx Rec f => f r' -> Rec f (r ': rs) -> Rec f (r' ': rs) #
(RIndex r (s ': rs) ~ 'S i, RecElem (Rec :: (a -> Type) -> [a] -> Type) r r' rs rs' i) => RecElem (Rec :: (a -> Type) -> [a] -> Type) (r :: a) (r' :: a) (s ': rs :: [a]) (s ': rs' :: [a]) ('S i)
Instance details Defined in Data.Vinyl.Lens Associated Types type RecElemFCtx Rec f # Methods rlensC :: (Functor g, RecElemFCtx Rec f) => (f r -> g (f r')) -> Rec f (s ': rs) -> g (Rec f (s ': rs')) # rgetC :: (RecElemFCtx Rec f, r ~ r') => Rec f (s ': rs) -> f r # rputC :: RecElemFCtx Rec f => f r' -> Rec f (s ': rs) -> Rec f (s ': rs') #
(AllCols Grouping rs, Grouping (Record rs), Grouping (ElField (s :-> r)), Grouping r) => Grouping (Record ((s :-> r) ': rs)) Source #
Instance details Defined in Frames.ExtraInstances Methods grouping :: Group (Record ((s :-> r) ': rs)) #
Grouping (Record ('[] :: [(Symbol, Type)])) Source #
Instance details Defined in Frames.ExtraInstances Methods grouping :: Group (Record '[]) #
TestCoercion f => TestCoercion (Rec f :: [u] -> Type)
Instance details Defined in Data.Vinyl.Core Methods testCoercion :: forall (a :: k) (b :: k). Rec f a -> Rec f b -> Maybe (Coercion a b) #
TestEquality f => TestEquality (Rec f :: [u] -> Type)
Instance details Defined in Data.Vinyl.Core Methods testEquality :: forall (a :: k) (b :: k). Rec f a -> Rec f b -> Maybe (a :~: b) #
Eq (Rec f ('[] :: [u]))
Instance details Defined in Data.Vinyl.Core Methods (==) :: Rec f '[] -> Rec f '[] -> Bool # (/=) :: Rec f '[] -> Rec f '[] -> Bool #
(Eq (f r), Eq (Rec f rs)) => Eq (Rec f (r ': rs))
Instance details Defined in Data.Vinyl.Core Methods (==) :: Rec f (r ': rs) -> Rec f (r ': rs) -> Bool # (/=) :: Rec f (r ': rs) -> Rec f (r ': rs) -> Bool #
Ord (Rec f ('[] :: [u]))
Instance details Defined in Data.Vinyl.Core Methods compare :: Rec f '[] -> Rec f '[] -> Ordering # (<) :: Rec f '[] -> Rec f '[] -> Bool # (<=) :: Rec f '[] -> Rec f '[] -> Bool # (>) :: Rec f '[] -> Rec f '[] -> Bool # (>=) :: Rec f '[] -> Rec f '[] -> Bool # max :: Rec f '[] -> Rec f '[] -> Rec f '[] # min :: Rec f '[] -> Rec f '[] -> Rec f '[] #
(Ord (f r), Ord (Rec f rs)) => Ord (Rec f (r ': rs))
Instance details Defined in Data.Vinyl.Core Methods compare :: Rec f (r ': rs) -> Rec f (r ': rs) -> Ordering # (<) :: Rec f (r ': rs) -> Rec f (r ': rs) -> Bool # (<=) :: Rec f (r ': rs) -> Rec f (r ': rs) -> Bool # (>) :: Rec f (r ': rs) -> Rec f (r ': rs) -> Bool # (>=) :: Rec f (r ': rs) -> Rec f (r ': rs) -> Bool # max :: Rec f (r ': rs) -> Rec f (r ': rs) -> Rec f (r ': rs) # min :: Rec f (r ': rs) -> Rec f (r ': rs) -> Rec f (r ': rs) #
(RMap rs, ReifyConstraint Show f rs, RecordToList rs) => Show (Rec f rs)	Records may be shown insofar as their points may be shown. `reifyConstraint` is used to great effect here.
Instance details Defined in Data.Vinyl.Core Methods showsPrec :: Int -> Rec f rs -> ShowS # show :: Rec f rs -> String # showList :: [Rec f rs] -> ShowS #
Generic (Rec f ('[] :: [u]))
Instance details Defined in Data.Vinyl.Core Associated Types type Rep (Rec f '[]) :: Type -> Type # Methods from :: Rec f '[] -> Rep (Rec f '[]) x # to :: Rep (Rec f '[]) x -> Rec f '[] #
Generic (Rec f rs) => Generic (Rec f (r ': rs))
Instance details Defined in Data.Vinyl.Core Associated Types type Rep (Rec f (r ': rs)) :: Type -> Type # Methods from :: Rec f (r ': rs) -> Rep (Rec f (r ': rs)) x # to :: Rep (Rec f (r ': rs)) x -> Rec f (r ': rs) #
Semigroup (Rec f ('[] :: [u]))
Instance details Defined in Data.Vinyl.Core Methods (<>) :: Rec f '[] -> Rec f '[] -> Rec f '[] # sconcat :: NonEmpty (Rec f '[]) -> Rec f '[] # stimes :: Integral b => b -> Rec f '[] -> Rec f '[] #
(Semigroup (f r), Semigroup (Rec f rs)) => Semigroup (Rec f (r ': rs))
Instance details Defined in Data.Vinyl.Core Methods (<>) :: Rec f (r ': rs) -> Rec f (r ': rs) -> Rec f (r ': rs) # sconcat :: NonEmpty (Rec f (r ': rs)) -> Rec f (r ': rs) # stimes :: Integral b => b -> Rec f (r ': rs) -> Rec f (r ': rs) #
Monoid (Rec f ('[] :: [u]))
Instance details Defined in Data.Vinyl.Core Methods mempty :: Rec f '[] # mappend :: Rec f '[] -> Rec f '[] -> Rec f '[] # mconcat :: [Rec f '[]] -> Rec f '[] #
(Monoid (f r), Monoid (Rec f rs)) => Monoid (Rec f (r ': rs))
Instance details Defined in Data.Vinyl.Core Methods mempty :: Rec f (r ': rs) # mappend :: Rec f (r ': rs) -> Rec f (r ': rs) -> Rec f (r ': rs) # mconcat :: [Rec f (r ': rs)] -> Rec f (r ': rs) #
Storable (Rec f ('[] :: [u]))
Instance details Defined in Data.Vinyl.Core Methods sizeOf :: Rec f '[] -> Int # alignment :: Rec f '[] -> Int # peekElemOff :: Ptr (Rec f '[]) -> Int -> IO (Rec f '[]) # pokeElemOff :: Ptr (Rec f '[]) -> Int -> Rec f '[] -> IO () # peekByteOff :: Ptr b -> Int -> IO (Rec f '[]) # pokeByteOff :: Ptr b -> Int -> Rec f '[] -> IO () # peek :: Ptr (Rec f '[]) -> IO (Rec f '[]) # poke :: Ptr (Rec f '[]) -> Rec f '[] -> IO () #
(Storable (f r), Storable (Rec f rs)) => Storable (Rec f (r ': rs))
Instance details Defined in Data.Vinyl.Core Methods sizeOf :: Rec f (r ': rs) -> Int # alignment :: Rec f (r ': rs) -> Int # peekElemOff :: Ptr (Rec f (r ': rs)) -> Int -> IO (Rec f (r ': rs)) # pokeElemOff :: Ptr (Rec f (r ': rs)) -> Int -> Rec f (r ': rs) -> IO () # peekByteOff :: Ptr b -> Int -> IO (Rec f (r ': rs)) # pokeByteOff :: Ptr b -> Int -> Rec f (r ': rs) -> IO () # peek :: Ptr (Rec f (r ': rs)) -> IO (Rec f (r ': rs)) # poke :: Ptr (Rec f (r ': rs)) -> Rec f (r ': rs) -> IO () #
NFData (Rec f ('[] :: [u])) Source #
Instance details Defined in Frames.ExtraInstances Methods rnf :: Rec f '[] -> () #
ReifyConstraint NFData f xs => NFData (Rec f xs)
Instance details Defined in Data.Vinyl.Core Methods rnf :: Rec f xs -> () #
type RecSubsetFCtx (Rec :: (k -> Type) -> [k] -> Type) (f :: k -> Type)
Instance details Defined in Data.Vinyl.Lens type RecSubsetFCtx (Rec :: (k -> Type) -> [k] -> Type) (f :: k -> Type) = ()
type RecSubsetFCtx (Rec :: (k -> Type) -> [k] -> Type) (f :: k -> Type)
Instance details Defined in Data.Vinyl.Lens type RecSubsetFCtx (Rec :: (k -> Type) -> [k] -> Type) (f :: k -> Type) = ()
type RecElemFCtx (Rec :: (a -> Type) -> [a] -> Type) (f :: a -> Type)
Instance details Defined in Data.Vinyl.Lens type RecElemFCtx (Rec :: (a -> Type) -> [a] -> Type) (f :: a -> Type) = ()
type RecElemFCtx (Rec :: (a -> Type) -> [a] -> Type) (f :: a -> Type)
Instance details Defined in Data.Vinyl.Lens type RecElemFCtx (Rec :: (a -> Type) -> [a] -> Type) (f :: a -> Type) = ()
type Rep (Rec f (r ': rs))
Instance details Defined in Data.Vinyl.Core type Rep (Rec f (r ': rs)) = C1 ('MetaCons ":&" ('InfixI 'RightAssociative 7) 'False) (S1 ('MetaSel ('Nothing :: Maybe Symbol) 'NoSourceUnpackedness 'SourceStrict 'DecidedStrict) (Rec0 (f r)) :*: S1 ('MetaSel ('Nothing :: Maybe Symbol) 'NoSourceUnpackedness 'NoSourceStrictness 'DecidedLazy) (Rep (Rec f rs)))
type Rep (Rec f ('[] :: [u]))
Instance details Defined in Data.Vinyl.Core type Rep (Rec f ('[] :: [u])) = C1 ('MetaCons "RNil" 'PrefixI 'False) (S1 ('MetaSel ('Nothing :: Maybe Symbol) 'NoSourceUnpackedness 'NoSourceStrictness 'DecidedLazy) (U1 :: Type -> Type))

data ElField (field :: (Symbol, Type)) #

A value with a phantom Symbol label. It is not a Haskell Functor, but it is used in many of the same places a Functor is used in vinyl.

Instances

Instances details

Eq t => Eq (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods (==) :: ElField '(s, t) -> ElField '(s, t) -> Bool # (/=) :: ElField '(s, t) -> ElField '(s, t) -> Bool #
(Floating t, KnownSymbol s) => Floating (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods pi :: ElField '(s, t) # exp :: ElField '(s, t) -> ElField '(s, t) # log :: ElField '(s, t) -> ElField '(s, t) # sqrt :: ElField '(s, t) -> ElField '(s, t) # (**) :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) # logBase :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) # sin :: ElField '(s, t) -> ElField '(s, t) # cos :: ElField '(s, t) -> ElField '(s, t) # tan :: ElField '(s, t) -> ElField '(s, t) # asin :: ElField '(s, t) -> ElField '(s, t) # acos :: ElField '(s, t) -> ElField '(s, t) # atan :: ElField '(s, t) -> ElField '(s, t) # sinh :: ElField '(s, t) -> ElField '(s, t) # cosh :: ElField '(s, t) -> ElField '(s, t) # tanh :: ElField '(s, t) -> ElField '(s, t) # asinh :: ElField '(s, t) -> ElField '(s, t) # acosh :: ElField '(s, t) -> ElField '(s, t) # atanh :: ElField '(s, t) -> ElField '(s, t) # log1p :: ElField '(s, t) -> ElField '(s, t) # expm1 :: ElField '(s, t) -> ElField '(s, t) # log1pexp :: ElField '(s, t) -> ElField '(s, t) # log1mexp :: ElField '(s, t) -> ElField '(s, t) #
(Fractional t, KnownSymbol s) => Fractional (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods (/) :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) # recip :: ElField '(s, t) -> ElField '(s, t) # fromRational :: Rational -> ElField '(s, t) #
(Num t, KnownSymbol s) => Num (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods (+) :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) # (-) :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) # (*) :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) # negate :: ElField '(s, t) -> ElField '(s, t) # abs :: ElField '(s, t) -> ElField '(s, t) # signum :: ElField '(s, t) -> ElField '(s, t) # fromInteger :: Integer -> ElField '(s, t) #
Ord t => Ord (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods compare :: ElField '(s, t) -> ElField '(s, t) -> Ordering # (<) :: ElField '(s, t) -> ElField '(s, t) -> Bool # (<=) :: ElField '(s, t) -> ElField '(s, t) -> Bool # (>) :: ElField '(s, t) -> ElField '(s, t) -> Bool # (>=) :: ElField '(s, t) -> ElField '(s, t) -> Bool # max :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) # min :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) #
(Real t, KnownSymbol s) => Real (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods toRational :: ElField '(s, t) -> Rational #
(RealFrac t, KnownSymbol s) => RealFrac (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods properFraction :: Integral b => ElField '(s, t) -> (b, ElField '(s, t)) # truncate :: Integral b => ElField '(s, t) -> b # round :: Integral b => ElField '(s, t) -> b # ceiling :: Integral b => ElField '(s, t) -> b # floor :: Integral b => ElField '(s, t) -> b #
(Show t, KnownSymbol s) => Show (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods showsPrec :: Int -> ElField '(s, t) -> ShowS # show :: ElField '(s, t) -> String # showList :: [ElField '(s, t)] -> ShowS #
KnownSymbol s => Generic (ElField '(s, a))
Instance details Defined in Data.Vinyl.Functor Associated Types type Rep (ElField '(s, a)) :: Type -> Type # Methods from :: ElField '(s, a) -> Rep (ElField '(s, a)) x # to :: Rep (ElField '(s, a)) x -> ElField '(s, a) #
Semigroup t => Semigroup (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods (<>) :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) # sconcat :: NonEmpty (ElField '(s, t)) -> ElField '(s, t) # stimes :: Integral b => b -> ElField '(s, t) -> ElField '(s, t) #
(KnownSymbol s, Monoid t) => Monoid (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods mempty :: ElField '(s, t) # mappend :: ElField '(s, t) -> ElField '(s, t) -> ElField '(s, t) # mconcat :: [ElField '(s, t)] -> ElField '(s, t) #
(KnownSymbol s, Storable t) => Storable (ElField '(s, t))
Instance details Defined in Data.Vinyl.Functor Methods sizeOf :: ElField '(s, t) -> Int # alignment :: ElField '(s, t) -> Int # peekElemOff :: Ptr (ElField '(s, t)) -> Int -> IO (ElField '(s, t)) # pokeElemOff :: Ptr (ElField '(s, t)) -> Int -> ElField '(s, t) -> IO () # peekByteOff :: Ptr b -> Int -> IO (ElField '(s, t)) # pokeByteOff :: Ptr b -> Int -> ElField '(s, t) -> IO () # peek :: Ptr (ElField '(s, t)) -> IO (ElField '(s, t)) # poke :: Ptr (ElField '(s, t)) -> ElField '(s, t) -> IO () #
NFData a => NFData (ElField (s :-> a)) Source #
Instance details Defined in Frames.ExtraInstances Methods rnf :: ElField (s :-> a) -> () #
Grouping a => Grouping (ElField (s :-> a)) Source #
Instance details Defined in Frames.ExtraInstances Methods grouping :: Group (ElField (s :-> a)) #
(AllCols Grouping rs, Grouping (Record rs), Grouping (ElField (s :-> r)), Grouping r) => Grouping (Record ((s :-> r) ': rs)) Source #
Instance details Defined in Frames.ExtraInstances Methods grouping :: Group (Record ((s :-> r) ': rs)) #
Grouping (Record ('[] :: [(Symbol, Type)])) Source #
Instance details Defined in Frames.ExtraInstances Methods grouping :: Group (Record '[]) #
KnownSymbol s => IsoHKD ElField ('(s, a) :: (Symbol, Type))	Work with values of type `ElField` `'(s,a)` as if they were of type `a`.
Instance details Defined in Data.Vinyl.XRec Associated Types type HKD ElField '(s, a) # Methods unHKD :: HKD ElField '(s, a) -> ElField '(s, a) # toHKD :: ElField '(s, a) -> HKD ElField '(s, a) #
(i ~ RIndex t ts, NatToInt i, FieldOffset ElField ts t, Storable (Rec ElField ts), AllConstrained (FieldOffset ElField ts) ts) => RecElem (SRec2 ElField) (t :: (Symbol, Type)) (t :: (Symbol, Type)) (ts :: [(Symbol, Type)]) (ts :: [(Symbol, Type)]) i	Field accessors for `SRec2` specialized to `ElField` as the functor.
Instance details Defined in Data.Vinyl.SRec Associated Types type RecElemFCtx (SRec2 ElField) f # Methods rlensC :: (Functor g, RecElemFCtx (SRec2 ElField) f) => (f t -> g (f t)) -> SRec2 ElField f ts -> g (SRec2 ElField f ts) # rgetC :: (RecElemFCtx (SRec2 ElField) f, t ~ t) => SRec2 ElField f ts -> f t # rputC :: RecElemFCtx (SRec2 ElField) f => f t -> SRec2 ElField f ts -> SRec2 ElField f ts #
(is ~ RImage rs ss, RecSubset (Rec :: ((Symbol, Type) -> Type) -> [(Symbol, Type)] -> Type) rs ss is, Storable (Rec ElField rs), Storable (Rec ElField ss), RPureConstrained (FieldOffset ElField ss) rs, RPureConstrained (FieldOffset ElField rs) rs, RFoldMap rs, RMap rs, RApply rs) => RecSubset (SRec2 ElField) (rs :: [(Symbol, Type)]) (ss :: [(Symbol, Type)]) is
Instance details Defined in Data.Vinyl.SRec Associated Types type RecSubsetFCtx (SRec2 ElField) f # Methods rsubsetC :: forall g (f :: k -> Type). (Functor g, RecSubsetFCtx (SRec2 ElField) f) => (SRec2 ElField f rs -> g (SRec2 ElField f rs)) -> SRec2 ElField f ss -> g (SRec2 ElField f ss) # rcastC :: forall (f :: k -> Type). RecSubsetFCtx (SRec2 ElField) f => SRec2 ElField f ss -> SRec2 ElField f rs # rreplaceC :: forall (f :: k -> Type). RecSubsetFCtx (SRec2 ElField) f => SRec2 ElField f rs -> SRec2 ElField f ss -> SRec2 ElField f ss #
type Rep (ElField '(s, a))
Instance details Defined in Data.Vinyl.Functor type Rep (ElField '(s, a)) = C1 ('MetaCons s 'PrefixI 'False) (Rec0 a)
type HKD ElField ('(s, a) :: (Symbol, Type))
Instance details Defined in Data.Vinyl.XRec type HKD ElField ('(s, a) :: (Symbol, Type)) = a
type RecElemFCtx (SRec2 ElField) (f :: (Symbol, Type) -> Type)
Instance details Defined in Data.Vinyl.SRec type RecElemFCtx (SRec2 ElField) (f :: (Symbol, Type) -> Type) = f ~ ElField
type RecSubsetFCtx (SRec2 ElField) (f :: (Symbol, Type) -> Type)
Instance details Defined in Data.Vinyl.SRec type RecSubsetFCtx (SRec2 ElField) (f :: (Symbol, Type) -> Type) = f ~ ElField

onField :: forall c (ts :: [Type]) b. RPureConstrained c ts => (forall a. (a ∈ ts, c a) => a -> b) -> Field ts -> b #

Apply a type class method to a Field. Intended for use with TypeApplications, e.g. onField @Show show r.

onCoRec :: forall k1 k2 c f (ts :: [k1]) (b :: k2) g. RPureConstrained c ts => (forall (a :: k1). (a ∈ ts, c a) => f a -> g b) -> CoRec f ts -> g b #

Apply methods from a type class to a CoRec. Intended for use with TypeApplications, e.g. onCoRec @Show show r

type Field = CoRec Identity #

A Field of a Rec Identity is a CoRec Identity.

rfield :: forall f a b (s :: Symbol). Functor f => (a -> f b) -> ElField '(s, a) -> f (ElField '(s, b)) #

Lens for an ElField's data payload.

type (:.) (f :: l -> Type) (g :: k -> l) = Compose f g infixr 9 #

module Data.Vinyl.Lens

type family RDelete (r :: a) (rs :: [a]) :: [a] where ... #

Remove the first occurence of a type from a type-level list.

Equations

RDelete (r :: a) (r ': rs :: [a]) = rs
RDelete (r :: a) (s ': rs :: [a]) = s ': RDelete r rs

type family RecAll (f :: u -> Type) (rs :: [u]) (c :: Type -> Constraint) where ... #

A constraint-former which applies to every field in a record.

Equations

RecAll (f :: u -> Type) ('[] :: [u]) c = ()
RecAll (f :: u -> Type) (r ': rs :: [u]) c = (c (f r), RecAll f rs c)

type family AllConstrained (c :: u -> Constraint) (ts :: [u]) where ... #

Constraint that all types in a type-level list satisfy a constraint.

Equations

AllConstrained (c :: u -> Constraint) ('[] :: [u]) = ()
AllConstrained (c :: u -> Constraint) (t ': ts :: [u]) = (c t, AllConstrained c ts)

class AllSatisfied (cs :: k) (t :: k1) #

Constraint that each Constraint in a type-level list is satisfied by a particular type.

Instances

Instances details

AllSatisfied ('[] :: [k2]) (t :: k1)
Instance details Defined in Data.Vinyl.TypeLevel
(c t, AllSatisfied cs t) => AllSatisfied (c ': cs :: [k -> Constraint]) (t :: k)
Instance details Defined in Data.Vinyl.TypeLevel

type family AllAllSat (cs :: k) (ts :: [k1]) where ... #

Constraint that all types in a type-level list satisfy each constraint from a list of constraints.

AllAllSat cs ts should be equivalent to AllConstrained (AllSatisfied cs) ts if partial application of type families were legal.

Equations

AllAllSat (cs :: k1) ('[] :: [k2]) = ()
AllAllSat (cs :: k1) (t ': ts :: [k2]) = (AllSatisfied cs t, AllAllSat cs ts)

type (:->) (a :: Symbol) b = '(a, b) Source #

pattern Col :: KnownSymbol s => t -> ElField '(s, t) Source #

module Frames.ColumnUniverse

readTableMaybe :: (MonadSafe m, ReadRec rs, RMap rs) => FilePath -> Producer (Rec (Maybe :. ElField) rs) m () Source #

Produce rows where any given entry can fail to parse.

pipeTableMaybe :: (Monad m, ReadRec rs, RMap rs) => Pipe [Text] (Rec (Maybe :. ElField) rs) m () Source #

Stream lines of CSV data into rows of ’Rec’ values where any given entry can fail to parse.

readTableOpt :: (MonadSafe m, ReadRec rs, RMap rs) => ParserOptions -> FilePath -> Producer (Record rs) m () Source #

Returns a producer of rows for which each column was successfully parsed.

readTable :: (MonadSafe m, ReadRec rs, RMap rs) => FilePath -> Producer (Record rs) m () Source #

Returns a producer of rows for which each column was successfully parsed.

pipeTable :: (ReadRec rs, RMap rs, Monad m) => Pipe [Text] (Record rs) m () Source #

Pipe lines of CSV text into rows for which each column was successfully parsed.

module Frames.Exploration

module Frames.Frame

inCoreAoS :: (PrimMonad m, MonadIO m, MonadMask m, RecVec rs) => Producer (Record rs) (SafeT m) () -> m (FrameRec rs) Source #

Stream a finite sequence of rows into an efficient in-memory representation for further manipulation. Each column of the input table will be stored optimally based on its type, making use of the resulting generators a matter of indexing into a densely packed representation. Returns a Frame that provides a function to index into the table.

inCoreAoS' :: (PrimMonad m, MonadIO m, MonadMask m, RecVec rs) => (Rec ((->) Int :. ElField) rs -> Rec ((->) Int :. ElField) ss) -> Producer (Record rs) (SafeT m) () -> m (FrameRec ss) Source #

Like inCoreAoS, but applies the provided function to the record of columns before building the Frame.

inCore :: (PrimMonad m, MonadIO m, MonadMask m, RecVec rs, Monad n) => Producer (Record rs) (SafeT m) () -> m (Producer (Record rs) n ()) Source #

Stream a finite sequence of rows into an efficient in-memory representation for further manipulation. Each column of the input table will be stored optimally based on its type, making use of the resulting generator a matter of indexing into a densely packed representation.

inCoreSoA :: (PrimMonad m, MonadIO m, MonadMask m, RecVec rs) => Producer (Record rs) (SafeT m) () -> m (Int, Rec ((->) Int :. ElField) rs) Source #

Stream a finite sequence of rows into an efficient in-memory representation for further manipulation. Each column of the input table will be stored optimally based on its type, making use of the resulting generators a matter of indexing into a densely packed representation. Returns the number of rows and a record of column indexing functions. See toAoS to convert the result to a Frame which provides an easier-to-use function that indexes into the table in a row-major fashion.

toAoS :: Int -> Rec ((->) Int :. ElField) rs -> FrameRec rs Source #

Convert a structure-of-arrays to an array-of-structures. This can simplify usage of an in-memory representation.

toFrame :: (Foldable f, RecVec rs) => f (Record rs) -> Frame (Record rs) Source #

Build a Frame from a collection of Records using efficient column-based storage.

filterFrame :: RecVec rs => (Record rs -> Bool) -> FrameRec rs -> FrameRec rs Source #

Keep only those rows of a FrameRec that satisfy a predicate.

module Frames.Joins

meltRow :: (vs ⊆ ts, ss ⊆ ts, vs ~ RDeleteAll ss ts, Disjoint ss ts ~ 'True, ts ≅ (vs ++ ss), ColumnHeaders vs, RowToColumn vs vs) => proxy ss -> Record ts -> [Record (ss ++ '["value" :-> CoRec ElField vs])] Source #

Like melt in the reshape2 package for the R language. It stacks multiple columns into a single column over multiple rows. Takes a specification of the id columns that remain unchanged. The remaining columns will be stacked.

Suppose we have a record, r :: Record [Name,Age,Weight]. If we apply melt [pr1|Name|] r, we get two values with type Record [Name, "value" :-> CoRec Identity [Age,Weight]]. The first will contain Age in the value column, and the second will contain Weight in the value column.

melt :: forall vs ts ss proxy. (vs ⊆ ts, ss ⊆ ts, vs ~ RDeleteAll ss ts, HasLength vs, Disjoint ss ts ~ 'True, ts ≅ (vs ++ ss), ColumnHeaders vs, RowToColumn vs vs) => proxy ss -> FrameRec ts -> FrameRec (ss ++ '["value" :-> CoRec ElField vs]) Source #

Applies meltRow to each row of a FrameRec.

type family RecordColumns t where ... Source #

Equations

RecordColumns (Record ts) = ts

type Record = FieldRec Source #

A record with unadorned values. This is Vinyl's Rec ElField. We give this type a name as it is used pervasively for records in Frames.

(&:) :: KnownSymbol s => a -> Record rs -> Record ((s :-> a) ': rs) infixr 5 Source #

A cons function for building Record values.

recUncons :: Record ((s :-> a) ': rs) -> (a, Record rs) Source #

Separate the first element of a Record from the rest of the row.

recMaybe :: Rec (Maybe :. ElField) cs -> Maybe (Record cs) Source #

Undistribute Maybe from a Rec Maybe. This is just a specific usage of rtraverse, but it is quite common.

showFields :: (RecMapMethod Show ElField ts, RecordToList ts) => Record ts -> [String] Source #

Show each field of a Record without its column name.

rgetField :: forall t s a rs. (t ~ '(s, a), t ∈ rs) => Record rs -> a Source #

Get the value of a field of a Record. This is intended for use with TypeApplications, as compared to rgetv that is intended for use with OverloadedLabels.

rputField :: forall t s a rs. (t ~ '(s, a), t ∈ rs, KnownSymbol s) => a -> Record rs -> Record rs Source #

Replace the value of a field of a Record. This is intended for use with TypeApplications, as compared to rputf that is intended for use with OverloadedLabels.

module Frames.RecF

declareColumn :: Text -> Name -> DecsQ Source #

Splice for manually declaring a column of a given type. For example, declareColumn "x2" ''Double will declare a type synonym type X2 = "x2" :-> Double and a lens x2.

tableTypes :: String -> FilePath -> DecsQ Source #

Like tableType, but additionally generates a type synonym for each column, and a proxy value of that type. If the CSV file has column names "foo", "bar", and "baz", then this will declare type Foo = "foo" :-> Int, for example, foo = rlens @Foo, and foo' = rlens' @Foo.

tableTypes' :: forall a c. (c ~ CoRec ColInfo a, ColumnTypeable c, Monoid c) => RowGen a -> DecsQ Source #

Generate a type for a row of a table. This will be something like Record ["x" :-> a, "y" :-> b, "z" :-> c]. Additionally generates a type synonym for each column, and a proxy value of that type. If the CSV file has column names "foo", "bar", and "baz", then this will declare type Foo = "foo" :-> Int, for example, foo = rlens @Foo, and foo' = rlens' @Foo.

module Frames.TypeLevel

runSafeP :: forall (m :: Type -> Type) r. (MonadMask m, MonadIO m) => Effect (SafeT m) r -> Effect' m r #

Run SafeT in the base monad, executing all unreleased finalizers at the end of the computation

Use runSafeP to safely flush all unreleased finalizers and ensure prompt finalization without exiting the Proxy monad.

runSafeT :: (MonadMask m, MonadIO m) => SafeT m r -> m r #

Run the SafeT monad transformer, executing all unreleased finalizers at the end of the computation

data SafeT (m :: Type -> Type) r #

SafeT is a monad transformer that extends the base monad with the ability to register and release finalizers.

All unreleased finalizers are called at the end of the SafeT block, even in the event of exceptions.

Instances

Instances details

MonadTrans SafeT
Instance details Defined in Pipes.Safe Methods lift :: Monad m => m a -> SafeT m a #
MonadBase b m => MonadBase b (SafeT m)
Instance details Defined in Pipes.Safe Methods liftBase :: b α -> SafeT m α #
MonadBaseControl b m => MonadBaseControl b (SafeT m)
Instance details Defined in Pipes.Safe Associated Types type StM (SafeT m) a # Methods liftBaseWith :: (RunInBase (SafeT m) b -> b a) -> SafeT m a # restoreM :: StM (SafeT m) a -> SafeT m a #
MonadWriter w m => MonadWriter w (SafeT m)
Instance details Defined in Pipes.Safe Methods writer :: (a, w) -> SafeT m a # tell :: w -> SafeT m () # listen :: SafeT m a -> SafeT m (a, w) # pass :: SafeT m (a, w -> w) -> SafeT m a #
MonadState s m => MonadState s (SafeT m)
Instance details Defined in Pipes.Safe Methods get :: SafeT m s # put :: s -> SafeT m () # state :: (s -> (a, s)) -> SafeT m a #
MonadError e m => MonadError e (SafeT m)
Instance details Defined in Pipes.Safe Methods throwError :: e -> SafeT m a # catchError :: SafeT m a -> (e -> SafeT m a) -> SafeT m a #
Monad m => Monad (SafeT m)
Instance details Defined in Pipes.Safe Methods (>>=) :: SafeT m a -> (a -> SafeT m b) -> SafeT m b # (>>) :: SafeT m a -> SafeT m b -> SafeT m b # return :: a -> SafeT m a #
Functor m => Functor (SafeT m)
Instance details Defined in Pipes.Safe Methods fmap :: (a -> b) -> SafeT m a -> SafeT m b # (<$) :: a -> SafeT m b -> SafeT m a #
MonadFix m => MonadFix (SafeT m)
Instance details Defined in Pipes.Safe Methods mfix :: (a -> SafeT m a) -> SafeT m a #
MonadFail m => MonadFail (SafeT m)
Instance details Defined in Pipes.Safe Methods fail :: String -> SafeT m a #
Applicative m => Applicative (SafeT m)
Instance details Defined in Pipes.Safe Methods pure :: a -> SafeT m a # (<>) :: SafeT m (a -> b) -> SafeT m a -> SafeT m b # liftA2 :: (a -> b -> c) -> SafeT m a -> SafeT m b -> SafeT m c # (>) :: SafeT m a -> SafeT m b -> SafeT m b # (<*) :: SafeT m a -> SafeT m b -> SafeT m a #
MonadIO m => MonadIO (SafeT m)
Instance details Defined in Pipes.Safe Methods liftIO :: IO a -> SafeT m a #
Alternative m => Alternative (SafeT m)
Instance details Defined in Pipes.Safe Methods empty :: SafeT m a # (<\|>) :: SafeT m a -> SafeT m a -> SafeT m a # some :: SafeT m a -> SafeT m [a] # many :: SafeT m a -> SafeT m [a] #
MonadPlus m => MonadPlus (SafeT m)
Instance details Defined in Pipes.Safe Methods mzero :: SafeT m a # mplus :: SafeT m a -> SafeT m a -> SafeT m a #
MonadThrow m => MonadThrow (SafeT m)
Instance details Defined in Pipes.Safe Methods throwM :: Exception e => e -> SafeT m a #
MonadCatch m => MonadCatch (SafeT m)
Instance details Defined in Pipes.Safe Methods catch :: Exception e => SafeT m a -> (e -> SafeT m a) -> SafeT m a #
MonadMask m => MonadMask (SafeT m)
Instance details Defined in Pipes.Safe Methods mask :: ((forall a. SafeT m a -> SafeT m a) -> SafeT m b) -> SafeT m b # uninterruptibleMask :: ((forall a. SafeT m a -> SafeT m a) -> SafeT m b) -> SafeT m b # generalBracket :: SafeT m a -> (a -> ExitCase b -> SafeT m c) -> (a -> SafeT m b) -> SafeT m (b, c) #
MonadCont m => MonadCont (SafeT m)
Instance details Defined in Pipes.Safe Methods callCC :: ((a -> SafeT m b) -> SafeT m a) -> SafeT m a #
(MonadIO m, MonadCatch m, MonadMask m) => MonadSafe (SafeT m)
Instance details Defined in Pipes.Safe Associated Types type Base (SafeT m) :: Type -> Type # Methods liftBase :: Base (SafeT m) r -> SafeT m r # register :: Base (SafeT m) () -> SafeT m ReleaseKey # release :: ReleaseKey -> SafeT m () #
PrimMonad m => PrimMonad (SafeT m)
Instance details Defined in Pipes.Safe Associated Types type PrimState (SafeT m) # Methods primitive :: (State# (PrimState (SafeT m)) -> (# State# (PrimState (SafeT m)), a #)) -> SafeT m a #
type Base (SafeT m)
Instance details Defined in Pipes.Safe type Base (SafeT m) = m
type PrimState (SafeT m)
Instance details Defined in Pipes.Safe type PrimState (SafeT m) = PrimState m
type StM (SafeT m) a
Instance details Defined in Pipes.Safe type StM (SafeT m) a = StM m a

class (MonadCatch m, MonadMask m, MonadIO m, MonadIO (Base m)) => MonadSafe (m :: Type -> Type) #

MonadSafe lets you register and release finalizers that execute in a Base monad

Minimal complete definition

liftBase, register, release

Instances

Instances details

MonadSafe m => MonadSafe (CatchT m)
Instance details Defined in Pipes.Safe Associated Types type Base (CatchT m) :: Type -> Type # Methods liftBase :: Base (CatchT m) r -> CatchT m r # register :: Base (CatchT m) () -> CatchT m ReleaseKey # release :: ReleaseKey -> CatchT m () #
(MonadIO m, MonadCatch m, MonadMask m) => MonadSafe (SafeT m)
Instance details Defined in Pipes.Safe Associated Types type Base (SafeT m) :: Type -> Type # Methods liftBase :: Base (SafeT m) r -> SafeT m r # register :: Base (SafeT m) () -> SafeT m ReleaseKey # release :: ReleaseKey -> SafeT m () #
MonadSafe m => MonadSafe (IdentityT m)
Instance details Defined in Pipes.Safe Associated Types type Base (IdentityT m) :: Type -> Type # Methods liftBase :: Base (IdentityT m) r -> IdentityT m r # register :: Base (IdentityT m) () -> IdentityT m ReleaseKey # release :: ReleaseKey -> IdentityT m () #
(MonadSafe m, Monoid w) => MonadSafe (WriterT w m)
Instance details Defined in Pipes.Safe Associated Types type Base (WriterT w m) :: Type -> Type # Methods liftBase :: Base (WriterT w m) r -> WriterT w m r # register :: Base (WriterT w m) () -> WriterT w m ReleaseKey # release :: ReleaseKey -> WriterT w m () #
MonadSafe m => MonadSafe (StateT s m)
Instance details Defined in Pipes.Safe Associated Types type Base (StateT s m) :: Type -> Type # Methods liftBase :: Base (StateT s m) r -> StateT s m r # register :: Base (StateT s m) () -> StateT s m ReleaseKey # release :: ReleaseKey -> StateT s m () #
MonadSafe m => MonadSafe (ReaderT i m)
Instance details Defined in Pipes.Safe Associated Types type Base (ReaderT i m) :: Type -> Type # Methods liftBase :: Base (ReaderT i m) r -> ReaderT i m r # register :: Base (ReaderT i m) () -> ReaderT i m ReleaseKey # release :: ReleaseKey -> ReaderT i m () #
MonadSafe m => MonadSafe (StateT s m)
Instance details Defined in Pipes.Safe Associated Types type Base (StateT s m) :: Type -> Type # Methods liftBase :: Base (StateT s m) r -> StateT s m r # register :: Base (StateT s m) () -> StateT s m ReleaseKey # release :: ReleaseKey -> StateT s m () #
(MonadSafe m, Monoid w) => MonadSafe (WriterT w m)
Instance details Defined in Pipes.Safe Associated Types type Base (WriterT w m) :: Type -> Type # Methods liftBase :: Base (WriterT w m) r -> WriterT w m r # register :: Base (WriterT w m) () -> WriterT w m ReleaseKey # release :: ReleaseKey -> WriterT w m () #
(MonadSafe m, Monoid w) => MonadSafe (RWST i w s m)
Instance details Defined in Pipes.Safe Associated Types type Base (RWST i w s m) :: Type -> Type # Methods liftBase :: Base (RWST i w s m) r -> RWST i w s m r # register :: Base (RWST i w s m) () -> RWST i w s m ReleaseKey # release :: ReleaseKey -> RWST i w s m () #
(MonadSafe m, Monoid w) => MonadSafe (RWST i w s m)
Instance details Defined in Pipes.Safe Associated Types type Base (RWST i w s m) :: Type -> Type # Methods liftBase :: Base (RWST i w s m) r -> RWST i w s m r # register :: Base (RWST i w s m) () -> RWST i w s m ReleaseKey # release :: ReleaseKey -> RWST i w s m () #
MonadSafe m => MonadSafe (Proxy a' a b' b m)
Instance details Defined in Pipes.Safe Associated Types type Base (Proxy a' a b' b m) :: Type -> Type # Methods liftBase :: Base (Proxy a' a b' b m) r -> Proxy a' a b' b m r # register :: Base (Proxy a' a b' b m) () -> Proxy a' a b' b m ReleaseKey # release :: ReleaseKey -> Proxy a' a b' b m () #

runSafeEffect :: (MonadIO m, MonadMask m) => Effect (SafeT m) r -> m r Source #

Run a self-contained ’Pipes.Effect’ and execute the finalizers associated with the ’SafeT’ transformer.

data Text #

A space efficient, packed, unboxed Unicode text type.

Instances

Instances details

Grouping Text Source #
Instance details Defined in Frames.ExtraInstances Methods grouping :: Group Text #
Hashable Text
Instance details Defined in Data.Hashable.Class Methods hashWithSalt :: Int -> Text -> Int # hash :: Text -> Int #
Readable Text
Instance details Defined in Data.Readable Methods fromText :: MonadPlus m => Text -> m Text # fromBS :: MonadPlus m => ByteString -> m Text #
Parseable Text Source #
Instance details Defined in Frames.ColumnTypeable Methods parse :: MonadPlus m => Text -> m (Parsed Text) Source # parseCombine :: MonadPlus m => Parsed Text -> Parsed Text -> m (Parsed Text) Source # representableAsType :: Parsed Text -> Const (Either (String -> Q [Dec]) Type) Text Source #
ShowCSV Text Source #
Instance details Defined in Frames.ShowCSV Methods showCSV :: Text -> Text Source #
type Item Text
Instance details Defined in Data.Text type Item Text = Char
type VectorFor Text Source #
Instance details Defined in Frames.InCore type VectorFor Text = Vector