Generics.SOP.Classes · generics-sop-0.5.1.4

valuefn :: (f a -> f' a) -> (-.->) f f' a

#

Construct a lifted function.

Same as Fn. Only available for uniformity with the higher-arity versions.

valuefn_2 :: (f a -> f' a -> f'' a) -> (-.->) f (f' -.-> f'') a

#

Construct a binary lifted function.

valuefn_3

:: f a -> f' a -> f'' a -> f''' a
-> (-.->) f (f' -.-> (f'' -.-> f''')) a

#

Construct a ternary lifted function.

valuefn_4

:: f a -> f' a -> f'' a -> f''' a -> f'''' a
-> (-.->) f (f' -.-> (f'' -.-> (f''' -.-> f''''))) a

#

Construct a quarternary lifted function.

valuehcfoldMap

:: (HTraverse_ h, AllN h c xs, Monoid m)
=> proxy c
-> forall (a :: k). c a => f a -> m
-> h f xs
-> m

#

Special case of hctraverse_.

valuehcfor

:: (HSequence h, AllN h c xs, Applicative g)
=> proxy c
-> h f xs
-> forall a. c a => f a -> g a
-> g (h I xs)

#

Flipped version of hctraverse.

valuehcfor_

:: (HTraverse_ h, AllN h c xs, Applicative g)
=> proxy c
-> h f xs
-> forall (a :: k). c a => f a -> g ()
-> g ()

#

Flipped version of hctraverse_.

valuehcliftA

:: (AllN (Prod h) c xs, HAp h)
=> proxy c
-> forall (a :: k). c a => f a -> f' a
-> h f xs
-> h f' xs

#

Variant of hliftA that takes a constrained function.

Specification:

hcliftA p f xs = hcpure p (fn f) ` hap ` xs

valuehcliftA2

:: (AllN (Prod h) c xs, HAp h, HAp (Prod h))
=> proxy c
-> forall (a :: k). c a => f a -> f' a -> f'' a
-> Prod h f xs
-> h f' xs
-> h f'' xs

#

Variant of hliftA2 that takes a constrained function.

Specification:

hcliftA2 p f xs ys = hcpure p (fn_2 f) ` hap ` xs ` hap ` ys

valuehcliftA3

:: (AllN (Prod h) c xs, HAp h, HAp (Prod h))
=> proxy c
-> forall (a :: k). c a => f a -> f' a -> f'' a -> f''' a
-> Prod h f xs
-> Prod h f' xs
-> h f'' xs
-> h f''' xs

#

Variant of hliftA3 that takes a constrained function.

Specification:

hcliftA3 p f xs ys zs = hcpure p (fn_3 f) ` hap ` xs ` hap ` ys ` hap ` zs

valuehcmap

:: (AllN (Prod h) c xs, HAp h)
=> proxy c
-> forall (a :: k). c a => f a -> f' a
-> h f xs
-> h f' xs

#

Another name for hcliftA.

valuehctraverse

:: (HSequence h, AllN h c xs, Applicative g)
=> proxy c
-> forall a. c a => f a -> g a
-> h f xs
-> g (h I xs)

#

Special case of hctraverse' where f' = I.

valuehczipWith

:: (AllN (Prod h) c xs, HAp h, HAp (Prod h))
=> proxy c
-> forall (a :: k). c a => f a -> f' a -> f'' a
-> Prod h f xs
-> h f' xs
-> h f'' xs

#

Another name for hcliftA2.

valuehczipWith3

:: (AllN (Prod h) c xs, HAp h, HAp (Prod h))
=> proxy c
-> forall (a :: k). c a => f a -> f' a -> f'' a -> f''' a
-> Prod h f xs
-> Prod h f' xs
-> h f'' xs
-> h f''' xs

#

Another name for hcliftA3.

valuehfromI

:: (AllZipN (Prod h1) (LiftedCoercible I f) xs ys, HTrans h1 h2)
=> h1 I xs
-> h2 f ys

#

Specialization of hcoerce.

valuehliftA

:: (SListIN (Prod h) xs, HAp h)
=> forall (a :: k). f a -> f' a
-> h f xs
-> h f' xs

#

A generalized form of liftA, which in turn is a generalized map.

Takes a lifted function and applies it to every element of a structure while preserving its shape.

Specification:

hliftA f xs = hpure (fn f) ` hap ` xs

Instances:

hliftA, liftA_NP  :: Data.SOP.Sing.SListI  xs  => (forall a. f a -> f' a) -> NP  f xs  -> NP  f' xs
hliftA, liftA_NS  :: Data.SOP.Sing.SListI  xs  => (forall a. f a -> f' a) -> NS  f xs  -> NS  f' xs
hliftA, liftA_POP :: SListI2 xss => (forall a. f a -> f' a) -> POP f xss -> POP f' xss
hliftA, liftA_SOP :: SListI2 xss => (forall a. f a -> f' a) -> SOP f xss -> SOP f' xss

valuehliftA2

:: (SListIN (Prod h) xs, HAp h, HAp (Prod h))
=> forall (a :: k). f a -> f' a -> f'' a
-> Prod h f xs
-> h f' xs
-> h f'' xs

#

A generalized form of liftA2, which in turn is a generalized zipWith.

Takes a lifted binary function and uses it to combine two structures of equal shape into a single structure.

It either takes two product structures to a product structure, or one product and one sum structure to a sum structure.

Specification:

hliftA2 f xs ys = hpure (fn_2 f) ` hap ` xs ` hap ` ys

Instances:

hliftA2, liftA2_NP  :: Data.SOP.Sing.SListI  xs  => (forall a. f a -> f' a -> f'' a) -> NP  f xs  -> NP  f' xs  -> NP  f'' xs
hliftA2, liftA2_NS  :: Data.SOP.Sing.SListI  xs  => (forall a. f a -> f' a -> f'' a) -> NP  f xs  -> NS  f' xs  -> NS  f'' xs
hliftA2, liftA2_POP :: SListI2 xss => (forall a. f a -> f' a -> f'' a) -> POP f xss -> POP f' xss -> POP f'' xss
hliftA2, liftA2_SOP :: SListI2 xss => (forall a. f a -> f' a -> f'' a) -> POP f xss -> SOP f' xss -> SOP f'' xss

valuehliftA3

:: (SListIN (Prod h) xs, HAp h, HAp (Prod h))
=> forall (a :: k). f a -> f' a -> f'' a -> f''' a
-> Prod h f xs
-> Prod h f' xs
-> h f'' xs
-> h f''' xs

#

A generalized form of liftA3, which in turn is a generalized zipWith3.

Takes a lifted ternary function and uses it to combine three structures of equal shape into a single structure.

It either takes three product structures to a product structure, or two product structures and one sum structure to a sum structure.

Specification:

hliftA3 f xs ys zs = hpure (fn_3 f) ` hap ` xs ` hap ` ys ` hap ` zs

Instances:

hliftA3, liftA3_NP  :: Data.SOP.Sing.SListI  xs  => (forall a. f a -> f' a -> f'' a -> f''' a) -> NP  f xs  -> NP  f' xs  -> NP  f'' xs  -> NP  f''' xs
hliftA3, Data.SOP.NS.liftA3_NS  :: Data.SOP.Sing.SListI  xs  => (forall a. f a -> f' a -> f'' a -> f''' a) -> NP  f xs  -> NP  f' xs  -> NS  f'' xs  -> NS  f''' xs
hliftA3, liftA3_POP :: SListI2 xss => (forall a. f a -> f' a -> f'' a -> f''' a) -> POP f xss -> POP f' xss -> POP f'' xss -> POP f''' xs
hliftA3, Data.SOP.NS.liftA3_SOP :: SListI2 xss => (forall a. f a -> f' a -> f'' a -> f''' a) -> POP f xss -> POP f' xss -> SOP f'' xss -> Data.SOP.NP.SOP f''' xs

valuehmap

:: (SListIN (Prod h) xs, HAp h)
=> forall (a :: k). f a -> f' a
-> h f xs
-> h f' xs

#

Another name for hliftA.

valuehsequence

:: (SListIN h xs, SListIN (Prod h) xs, HSequence h, Applicative f)
=> h f xs
-> f (h I xs)

#

Special case of hsequence' where g = I.

valuehsequenceK

:: (SListIN h xs, SListIN (Prod h) xs, Applicative f, HSequence h)
=> h (K (f a)) xs
-> f (h (K a) xs)

#

Special case of hsequence' where g = K a.

valuehtoI

:: (AllZipN (Prod h1) (LiftedCoercible f I) xs ys, HTrans h1 h2)
=> h1 f xs
-> h2 I ys

#

Specialization of hcoerce.

valuehzipWith

:: (SListIN (Prod h) xs, HAp h, HAp (Prod h))
=> forall (a :: k). f a -> f' a -> f'' a
-> Prod h f xs
-> h f' xs
-> h f'' xs

#

Another name for hliftA2.

valuehzipWith3

:: (SListIN (Prod h) xs, HAp h, HAp (Prod h))
=> forall (a :: k). f a -> f' a -> f'' a -> f''' a
-> Prod h f xs
-> Prod h f' xs
-> h f'' xs
-> h f''' xs

#

Another name for hliftA3.

newtypenewtype (-.->) (f :: k -> Type) (g :: k -> Type) (a :: k)

#

Lifted functions.

Constructors

Fn
- apFn :: f a -> g a

Instances4Generic, HasDatatypeInfo, Code, DatatypeInfoOf

Generic ((-.->) f g a)Defined in generics-sop-0.5.1.4 · Generics.SOP.Instances · orphan
HasDatatypeInfo ((-.->) f g a)Defined in generics-sop-0.5.1.4 · Generics.SOP.Instances · orphan
type Code ((-.->) f g a) = '['[f a -> g a]]Defined in generics-sop-0.5.1.4 · Generics.SOP.Instances · orphan
type DatatypeInfoOf ((-.->) f g a) = 'Newtype "Data.SOP.Classes" "-.->" ('Record "Fn" '['FieldInfo "apFn"])Defined in generics-sop-0.5.1.4 · Generics.SOP.Instances · orphan

familytype family CollapseTo (h :: (k -> Type) -> l -> Type) x

#

Maps products to lists, and sums to identities.

Instances4CollapseTo

type CollapseTo NP a = [a]Defined in sop-core-0.5.0.2 · Data.SOP.NP
type CollapseTo POP a = [[a]]Defined in sop-core-0.5.0.2 · Data.SOP.NP
type CollapseTo NS a = aDefined in sop-core-0.5.0.2 · Data.SOP.NS
type CollapseTo SOP a = [a]Defined in sop-core-0.5.0.2 · Data.SOP.NS

classclass (Prod (Prod h) ~ Prod h, HPure (Prod h)) => HAp (h :: (k -> Type) -> l -> Type) where

#

A generalization of <*>.

Methods

hap :: Prod h (f -.-> g) xs -> h f xs -> h g xs
Corresponds to <*>.
For products (NP) as well as products of products (POP), the correspondence is rather direct. We combine a structure containing (lifted) functions and a compatible structure containing corresponding arguments into a compatible structure containing results.
The same combinator can also be used to combine a product structure of functions with a sum structure of arguments, which then results in another sum structure of results. The sum structure determines which part of the product structure will be used.
Instances:
```
hap, ap_NP  :: NP  (f -.-> g) xs  -> NP  f xs  -> NP  g xs
hap, ap_NS  :: Data.SOP.NS.NP  (f -.-> g) xs  -> NS  f xs  -> NS  g xs
hap, ap_POP :: POP (f -.-> g) xss -> POP f xss -> POP g xss
hap, ap_SOP :: Data.SOP.NS.POP (f -.-> g) xss -> SOP f xss -> SOP g xss
```

Instances4HAp

HAp NPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HAp POPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HAp NSDefined in sop-core-0.5.0.2 · Data.SOP.NS
HAp SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS

classclass UnProd (Prod h) ~ h => HApInjs (h :: (k -> Type) -> l -> Type) where

#

A class for applying all injections corresponding to a sum-like structure to a table containing suitable arguments.

Methods

hapInjs :: SListIN h xs => Prod h f xs -> [h f xs]

For a given table (product-like structure), produce a list where each element corresponds to the application of an injection function into the corresponding sum-like structure.

Instances:

hapInjs, apInjs_NP  :: Data.SOP.Sing.SListI  xs  => NP  f xs -> [NS  f xs ]
hapInjs, Data.SOP.NS.apInjs_SOP :: SListI2 xss => POP f xs -> [SOP f xss]

Examples:

Example1 expression

>>> hapInjs (I 'x' :* I True :* I 2 :* Nil) :: [NS I '[Char, Bool, Int]][Z (I 'x'),S (Z (I True)),S (S (Z (I 2)))]

Example1 expression

>>> hapInjs (POP ((I 'x' :* Nil) :* (I True :* I 2 :* Nil) :* Nil)) :: [SOP I '[ '[Char], '[Bool, Int]]][SOP (Z (I 'x' :* Nil)),SOP (S (Z (I True :* I 2 :* Nil)))]

Unfortunately the type-signatures are required in GHC-7.10 and older.

Instances2HApInjs

HApInjs NSDefined in sop-core-0.5.0.2 · Data.SOP.NS
HApInjs SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS

classclass HCollapse (h :: (k -> Type) -> l -> Type) where

#

A class for collapsing a heterogeneous structure into a homogeneous one.

Methods

hcollapse :: SListIN h xs => h (K a) xs -> CollapseTo h a
Collapse a heterogeneous structure with homogeneous elements into a homogeneous structure.
If a heterogeneous structure is instantiated to the constant functor K, then it is in fact homogeneous. This function maps such a value to a simpler Haskell datatype reflecting that. An Data.SOP.NS (K a) contains a single a, and an Data.SOP.NP (K a) contains a list of as.
Instances:
```
hcollapse, collapse_NP  :: NP  (K a) xs  ->  [a]
hcollapse, collapse_NS  :: NS  (K a) xs  ->   a
hcollapse, collapse_POP :: POP (K a) xss -> [[a]]
hcollapse, collapse_SOP :: Data.SOP.NP.SOP (K a) xss ->  [a]
```

Instances4HCollapse

HCollapse NPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HCollapse POPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HCollapse NSDefined in sop-core-0.5.0.2 · Data.SOP.NS
HCollapse SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS

classclass HExpand (h :: (k -> Type) -> l -> Type) where

#

A class for expanding sum structures into corresponding product structures, filling in the slots not targeted by the sum with default values.

Methods

hexpand :: SListIN (Prod h) xs => (forall (x :: k). f x) -> h f xs -> Prod h f xs

Expand a given sum structure into a corresponding product structure by placing the value contained in the sum into the corresponding position in the product, and using the given default value for all other positions.

Instances:

hexpand, expand_NS  :: Data.SOP.Sing.SListI xs   => (forall x . f x) -> NS  f xs  -> Data.SOP.NS.NP  f xs
hexpand, expand_SOP :: SListI2 xss => (forall x . f x) -> SOP f xss -> POP f xss

Examples:

Example2 expressions

>>> hexpand Nothing (S (Z (Just 3))) :: NP Maybe '[Char, Int, Bool]Nothing :* Just 3 :* Nothing :* Nil>>> hexpand [] (SOP (S (Z ([1,2] :* "xyz" :* Nil)))) :: POP [] '[ '[Bool], '[Int, Char] ]POP (([] :* Nil) :* ([1,2] :* "xyz" :* Nil) :* Nil)

hcexpand :: AllN (Prod h) c xs => proxy c -> (forall (x :: k). c x => f x) -> h f xs -> Prod h f xs

Variant of hexpand that allows passing a constrained default.

Instances:

hcexpand, cexpand_NS  :: All  c xs  => proxy c -> (forall x . c x => f x) -> NS  f xs  -> NP  f xs
hcexpand, cexpand_SOP :: All2 c xss => proxy c -> (forall x . c x => f x) -> SOP f xss -> POP f xss

Examples:

Example2 expressions

>>> hcexpand (Proxy :: Proxy Bounded) (I minBound) (S (Z (I 20))) :: NP I '[Bool, Int, Ordering]I False :* I 20 :* I LT :* Nil>>> hcexpand (Proxy :: Proxy Num) (I 0) (SOP (S (Z (I 1 :* I 2 :* Nil)))) :: POP I '[ '[Double], '[Int, Int] ]POP ((I 0.0 :* Nil) :* (I 1 :* I 2 :* Nil) :* Nil)

Instances2HExpand

HExpand NSDefined in sop-core-0.5.0.2 · Data.SOP.NS
HExpand SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS

classclass HIndex (h :: (k -> Type) -> l -> Type) where

#

A class for determining which choice in a sum-like structure a value represents.

Methods

hindex :: h f xs -> Int
If h is a sum-like structure representing a choice between n different options, and x is a value of type h f xs, then hindex x returns a number between 0 and n - 1 representing the index of the choice made by x.
Instances:
```
hindex, index_NS  :: NS  f xs -> Int
hindex, index_SOP :: SOP f xs -> Int
```
Examples:
Example3 expressions
```
>>> hindex (S (S (Z (I False))))2>>> hindex (Z (K ()))0>>> hindex (SOP (S (Z (I True :* I 'x' :* Nil))))1
```

Instances2HIndex

HIndex NSDefined in sop-core-0.5.0.2 · Data.SOP.NS
HIndex SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS

classclass HPure (h :: (k -> Type) -> l -> Type) where

#

A generalization of pure or return to higher kinds.

Methods

hpure :: SListIN h xs => (forall (a :: k). f a) -> h f xs

Corresponds to pure directly.

Instances:

hpure, pure_NP  :: Data.SOP.Sing.SListI  xs  => (forall a. f a) -> NP  f xs
hpure, pure_POP :: SListI2 xss => (forall a. f a) -> POP f xss

hcpure :: AllN h c xs => proxy c -> (forall (a :: k). c a => f a) -> h f xs
A variant of hpure that allows passing in a constrained argument.
Calling hcpure f s where s :: h f xs causes f to be applied at all the types that are contained in xs. Therefore, the constraint c has to be satisfied for all elements of xs, which is what AllN h c xs states.
Instances:
```
hcpure, cpure_NP  :: (All  c xs ) => proxy c -> (forall a. c a => f a) -> NP  f xs
hcpure, cpure_POP :: (All2 c xss) => proxy c -> (forall a. c a => f a) -> POP f xss
```

Instances2HPure

HPure NPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HPure POPDefined in sop-core-0.5.0.2 · Data.SOP.NP

classclass HAp h => HSequence (h :: (k -> Type) -> l -> Type) where

#

A generalization of sequenceA.

Methods

hsequence' :: (SListIN h xs, Applicative f) => h (f :.: g) xs -> f (h g xs)

Corresponds to sequenceA.

Lifts an applicative functor out of a structure.

Instances:

hsequence', sequence'_NP  :: (Data.SOP.Sing.SListI  xs , Applicative f) => NP  (f :.: g) xs  -> f (NP  g xs )
hsequence', sequence'_NS  :: (Data.SOP.Sing.SListI  xs , Applicative f) => NS  (f :.: g) xs  -> f (NS  g xs )
hsequence', sequence'_POP :: (SListI2 xss, Applicative f) => POP (f :.: g) xss -> f (POP g xss)
hsequence', sequence'_SOP :: (SListI2 xss, Applicative f) => SOP (f :.: g) xss -> f (SOP g xss)

hctraverse' :: (AllN h c xs, Applicative g) => proxy c -> (forall (a :: k). c a => f a -> g (f' a)) -> h f xs -> g (h f' xs)

Corresponds to traverse.

Instances:

hctraverse', ctraverse'_NP  :: (All  c xs , Applicative g) => proxy c -> (forall a. c a => f a -> g (f' a)) -> NP  f xs  -> g (NP  f' xs )
hctraverse', ctraverse'_NS  :: (All2 c xs , Applicative g) => proxy c -> (forall a. c a => f a -> g (f' a)) -> NS  f xs  -> g (NS  f' xs )
hctraverse', ctraverse'_POP :: (All  c xss, Applicative g) => proxy c -> (forall a. c a => f a -> g (f' a)) -> POP f xss -> g (POP f' xss)
hctraverse', ctraverse'_SOP :: (All2 c xss, Applicative g) => proxy c -> (forall a. c a => f a -> g (f' a)) -> SOP f xss -> g (SOP f' xss)

htraverse' :: (SListIN h xs, Applicative g) => (forall (a :: k). f a -> g (f' a)) -> h f xs -> g (h f' xs)

Unconstrained variant of hctraverse'.

Instances:

htraverse', traverse'_NP  :: (SListI  xs , Applicative g) => (forall a. c a => f a -> g (f' a)) -> NP  f xs  -> g (NP  f' xs )
htraverse', traverse'_NS  :: (SListI2 xs , Applicative g) => (forall a. c a => f a -> g (f' a)) -> NS  f xs  -> g (NS  f' xs )
htraverse', traverse'_POP :: (SListI  xss, Applicative g) => (forall a. c a => f a -> g (f' a)) -> POP f xss -> g (POP f' xss)
htraverse', traverse'_SOP :: (SListI2 xss, Applicative g) => (forall a. c a => f a -> g (f' a)) -> SOP f xss -> g (SOP f' xss)

Instances4HSequence

HSequence NPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HSequence POPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HSequence NSDefined in sop-core-0.5.0.2 · Data.SOP.NS
HSequence SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS

classclass (Same h1 ~ h2, Same h2 ~ h1) => HTrans (h1 :: (k1 -> Type) -> l1 -> Type) (h2 :: (k2 -> Type) -> l2 -> Type) where

#

A class for transforming structures into related structures with a different index list, as long as the index lists have the same shape and the elements and interpretation functions are suitably related.

Methods

htrans :: AllZipN (Prod h1) c xs ys => proxy c -> (forall (x :: k1) (y :: k2). c x y => f x -> g y) -> h1 f xs -> h2 g ys
Transform a structure into a related structure given a conversion function for the elements.
hcoerce :: AllZipN (Prod h1) (LiftedCoercible f g) xs ys => h1 f xs -> h2 g ys
Safely coerce a structure into a representationally equal structure.
This is a special case of htrans, but can be implemented more efficiently; for example in terms of unsafeCoerce.
Examples:
Example2 expressions
```
>>> hcoerce (I (Just LT) :* I (Just 'x') :* I (Just True) :* Nil) :: NP Maybe '[Ordering, Char, Bool]Just LT :* Just 'x' :* Just True :* Nil>>> hcoerce (SOP (Z (K True :* K False :* Nil))) :: SOP I '[ '[Bool, Bool], '[Bool] ]SOP (Z (I True :* I False :* Nil))
```

Instances4HTrans

HTrans NP NPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HTrans POP POPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HTrans NS NSDefined in sop-core-0.5.0.2 · Data.SOP.NS
HTrans SOP SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS

classclass HTraverse_ (h :: (k -> Type) -> l -> Type) where

#

A generalization of traverse_ or foldMap.

Methods

hctraverse_ :: (AllN h c xs, Applicative g) => proxy c -> (forall (a :: k). c a => f a -> g ()) -> h f xs -> g ()

Corresponds to traverse_.

Instances:

hctraverse_, ctraverse__NP  :: (All  c xs , Applicative g) => proxy c -> (forall a. c a => f a -> g ()) -> NP  f xs  -> g ()
hctraverse_, ctraverse__NS  :: (All2 c xs , Applicative g) => proxy c -> (forall a. c a => f a -> g ()) -> NS  f xs  -> g ()
hctraverse_, ctraverse__POP :: (All  c xss, Applicative g) => proxy c -> (forall a. c a => f a -> g ()) -> POP f xss -> g ()
hctraverse_, ctraverse__SOP :: (All2 c xss, Applicative g) => proxy c -> (forall a. c a => f a -> g ()) -> SOP f xss -> g ()

htraverse_ :: (SListIN h xs, Applicative g) => (forall (a :: k). f a -> g ()) -> h f xs -> g ()

Unconstrained version of hctraverse_.

Instances:

traverse_, traverse__NP  :: (SListI  xs , Applicative g) => (forall a. f a -> g ()) -> NP  f xs  -> g ()
traverse_, traverse__NS  :: (SListI  xs , Applicative g) => (forall a. f a -> g ()) -> NS  f xs  -> g ()
traverse_, traverse__POP :: (SListI2 xss, Applicative g) => (forall a. f a -> g ()) -> POP f xss -> g ()
traverse_, traverse__SOP :: (SListI2 xss, Applicative g) => (forall a. f a -> g ()) -> SOP f xss -> g ()

Instances4HTraverse_

HTraverse_ NPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HTraverse_ POPDefined in sop-core-0.5.0.2 · Data.SOP.NP
HTraverse_ NSDefined in sop-core-0.5.0.2 · Data.SOP.NS
HTraverse_ SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS

familytype family Prod (h :: (k -> Type) -> l -> Type) :: (k -> Type) -> l -> Type

#

Maps a structure containing sums to the corresponding product structure.

Instances4Prod

type Prod NP = NPDefined in sop-core-0.5.0.2 · Data.SOP.NP
type Prod POP = POPDefined in sop-core-0.5.0.2 · Data.SOP.NP
type Prod NS = NPDefined in sop-core-0.5.0.2 · Data.SOP.NS
type Prod SOP = POPDefined in sop-core-0.5.0.2 · Data.SOP.NS

familytype family Same (h :: (k1 -> Type) -> l1 -> Type) :: (k2 -> Type) -> l2 -> Type

#

Maps a structure to the same structure.

Instances4Same

type Same NP = NPDefined in sop-core-0.5.0.2 · Data.SOP.NP
type Same POP = POPDefined in sop-core-0.5.0.2 · Data.SOP.NP
type Same NS = NSDefined in sop-core-0.5.0.2 · Data.SOP.NS
type Same SOP = SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS

familytype family UnProd (h :: (k -> Type) -> l -> Type) :: (k -> Type) -> l -> Type

#

Maps a structure containing products to the corresponding sum structure.

Instances2UnProd

type UnProd NP = NSDefined in sop-core-0.5.0.2 · Data.SOP.NS · orphan
type UnProd POP = SOPDefined in sop-core-0.5.0.2 · Data.SOP.NS · orphan