Copyright | (C) 2013-2016 University of Twente 2017 Google Inc. 2019 Myrtle Software Ltd |
---|---|
License | BSD2 (see the file LICENSE) |
Maintainer | Christiaan Baaij <christiaan.baaij@gmail.com> |
Safe Haskell | Safe |
Language | Haskell2010 |
Extensions |
|
This is the Safe API only of Clash.Explicit.Prelude
This module defines the explicitly clocked counterparts of the functions defined in Clash.Prelude.
Synopsis
- mealy :: (KnownDomain dom, NFDataX s) => Clock dom -> Reset dom -> Enable dom -> (s -> i -> (s, o)) -> s -> Signal dom i -> Signal dom o
- mealyB :: (KnownDomain dom, NFDataX s, Bundle i, Bundle o) => Clock dom -> Reset dom -> Enable dom -> (s -> i -> (s, o)) -> s -> Unbundled dom i -> Unbundled dom o
- moore :: (KnownDomain dom, NFDataX s) => Clock dom -> Reset dom -> Enable dom -> (s -> i -> s) -> (s -> o) -> s -> Signal dom i -> Signal dom o
- mooreB :: (KnownDomain dom, NFDataX s, Bundle i, Bundle o) => Clock dom -> Reset dom -> Enable dom -> (s -> i -> s) -> (s -> o) -> s -> Unbundled dom i -> Unbundled dom o
- registerB :: (KnownDomain dom, NFDataX a, Bundle a) => Clock dom -> Reset dom -> Enable dom -> a -> Unbundled dom a -> Unbundled dom a
- dualFlipFlopSynchronizer :: (NFDataX a, KnownDomain dom1, KnownDomain dom2) => Clock dom1 -> Clock dom2 -> Reset dom2 -> Enable dom2 -> a -> Signal dom1 a -> Signal dom2 a
- asyncFIFOSynchronizer :: (KnownDomain wdom, KnownDomain rdom, 2 <= addrSize) => SNat addrSize -> Clock wdom -> Clock rdom -> Reset wdom -> Reset rdom -> Enable wdom -> Enable rdom -> Signal rdom Bool -> Signal wdom (Maybe a) -> (Signal rdom a, Signal rdom Bool, Signal wdom Bool)
- asyncRom :: (KnownNat n, Enum addr) => Vec n a -> addr -> a
- asyncRomPow2 :: KnownNat n => Vec (2 ^ n) a -> Unsigned n -> a
- rom :: (KnownDomain dom, KnownNat n, NFDataX a, Enum addr) => Clock dom -> Enable dom -> Vec n a -> Signal dom addr -> Signal dom a
- romPow2 :: (KnownDomain dom, KnownNat n, NFDataX a) => Clock dom -> Enable dom -> Vec (2 ^ n) a -> Signal dom (Unsigned n) -> Signal dom a
- asyncRam :: (Enum addr, HasCallStack, KnownDomain wdom, KnownDomain rdom) => Clock wdom -> Clock rdom -> Enable wdom -> SNat n -> Signal rdom addr -> Signal wdom (Maybe (addr, a)) -> Signal rdom a
- asyncRamPow2 :: forall wdom rdom n a. (KnownNat n, HasCallStack, KnownDomain wdom, KnownDomain rdom) => Clock wdom -> Clock rdom -> Enable wdom -> Signal rdom (Unsigned n) -> Signal wdom (Maybe (Unsigned n, a)) -> Signal rdom a
- blockRam :: (KnownDomain dom, HasCallStack, NFDataX a, Enum addr) => Clock dom -> Enable dom -> Vec n a -> Signal dom addr -> Signal dom (Maybe (addr, a)) -> Signal dom a
- blockRamPow2 :: (KnownDomain dom, HasCallStack, NFDataX a, KnownNat n) => Clock dom -> Enable dom -> Vec (2 ^ n) a -> Signal dom (Unsigned n) -> Signal dom (Maybe (Unsigned n, a)) -> Signal dom a
- readNew :: (KnownDomain dom, NFDataX a, Eq addr) => Clock dom -> Reset dom -> Enable dom -> (Signal dom addr -> Signal dom (Maybe (addr, a)) -> Signal dom a) -> Signal dom addr -> Signal dom (Maybe (addr, a)) -> Signal dom a
- isRising :: (KnownDomain dom, NFDataX a, Bounded a, Eq a) => Clock dom -> Reset dom -> Enable dom -> a -> Signal dom a -> Signal dom Bool
- isFalling :: (KnownDomain dom, NFDataX a, Bounded a, Eq a) => Clock dom -> Reset dom -> Enable dom -> a -> Signal dom a -> Signal dom Bool
- riseEvery :: forall dom n. KnownDomain dom => Clock dom -> Reset dom -> Enable dom -> SNat n -> Signal dom Bool
- oscillate :: forall dom n. KnownDomain dom => Clock dom -> Reset dom -> Enable dom -> Bool -> SNat n -> Signal dom Bool
- module Clash.Explicit.Signal
- module Clash.Explicit.Signal.Delayed
- module Clash.Prelude.DataFlow
- module Clash.Sized.BitVector
- module Clash.Prelude.BitIndex
- module Clash.Prelude.BitReduction
- module Clash.Sized.Signed
- module Clash.Sized.Unsigned
- module Clash.Sized.Index
- module Clash.Sized.Fixed
- module Clash.Sized.Vector
- module Clash.Sized.RTree
- module Clash.Annotations.TopEntity
- class Generic a
- class Generic1 (f :: k -> Type)
- module GHC.TypeLits
- module GHC.TypeLits.Extra
- module Clash.Promoted.Nat
- module Clash.Promoted.Nat.Literals
- module Clash.Promoted.Nat.TH
- module Clash.Promoted.Symbol
- module Clash.Class.BitPack
- module Clash.Class.Num
- module Clash.Class.Resize
- module Control.Applicative
- module Data.Bits
- module Clash.XException
- module Clash.NamedTypes
- module Clash.HaskellPrelude
Creating synchronous sequential circuits
:: (KnownDomain dom, NFDataX s) | |
=> Clock dom |
|
-> Reset dom | |
-> Enable dom | Global enable |
-> (s -> i -> (s, o)) | Transfer function in mealy machine form: |
-> s | Initial state |
-> Signal dom i -> Signal dom o | Synchronous sequential function with input and output matching that of the mealy machine |
Create a synchronous function from a combinational function describing a mealy machine
import qualified Data.List as L macT :: Int -- Current state -> (Int,Int) -- Input -> (Int,Int) -- (Updated state, output) macT s (x,y) = (s',s) where s' = x * y + s mac ::KnownDomain
dom =>Clock
dom ->Reset
dom ->Enable
dom ->Signal
dom (Int, Int) ->Signal
dom Int mac clk rst en =mealy
clk rst en macT 0
>>>
simulate (mac systemClockGen systemResetGen enableGen) [(0,0),(1,1),(2,2),(3,3),(4,4)]
[0,0,1,5,14... ...
Synchronous sequential functions can be composed just like their combinational counterpart:
dualMac ::KnownDomain
dom =>Clock
dom ->Reset
dom ->Enable
dom -> (Signal
dom Int,Signal
dom Int) -> (Signal
dom Int,Signal
dom Int) ->Signal
dom Int dualMac clk rst en (a,b) (x,y) = s1 + s2 where s1 =mealy
clk rst en mac 0 (bundle
(a,x)) s2 =mealy
clk rst en mac 0 (bundle
(b,y))
:: (KnownDomain dom, NFDataX s, Bundle i, Bundle o) | |
=> Clock dom | |
-> Reset dom | |
-> Enable dom | |
-> (s -> i -> (s, o)) | Transfer function in mealy machine form: |
-> s | Initial state |
-> Unbundled dom i -> Unbundled dom o | Synchronous sequential function with input and output matching that of the mealy machine |
A version of mealy
that does automatic Bundle
ing
Given a function f
of type:
f :: Int -> (Bool,Int) -> (Int,(Int,Bool))
When we want to make compositions of f
in g
using mealy
, we have to
write:
g clk rst en a b c = (b1,b2,i2) where (i1,b1) =unbundle
(mealy clk rst en f 0 (bundle
(a,b))) (i2,b2) =unbundle
(mealy clk rst en f 3 (bundle
(c,i1)))
Using mealyB
however we can write:
g clk rst en a b c = (b1,b2,i2) where (i1,b1) =mealyB
clk rst en f 0 (a,b) (i2,b2) =mealyB
clk rst en f 3 (c,i1)
:: (KnownDomain dom, NFDataX s) | |
=> Clock dom |
|
-> Reset dom | |
-> Enable dom | |
-> (s -> i -> s) | Transfer function in moore machine form: |
-> (s -> o) | Output function in moore machine form: |
-> s | Initial state |
-> Signal dom i -> Signal dom o | Synchronous sequential function with input and output matching that of the moore machine |
Create a synchronous function from a combinational function describing a moore machine
macT :: Int -- Current state -> (Int,Int) -- Input -> (Int,Int) -- Updated state macT s (x,y) = x * y + s mac ::KnownDomain
dom =>Clock
dom ->Reset
dom ->Enable
dom ->Signal
dom (Int, Int) ->Signal
dom Int mac clk rst en =moore
clk rst en macT id 0
>>>
simulate (mac systemClockGen systemResetGen enableGen) [(0,0),(1,1),(2,2),(3,3),(4,4)]
[0,0,1,5,14... ...
Synchronous sequential functions can be composed just like their combinational counterpart:
dualMac ::KnownDomain
dom =>Clock
dom ->Reset
dom ->Enable
dom -> (Signal
dom Int,Signal
dom Int) -> (Signal
dom Int,Signal
dom Int) ->Signal
dom Int dualMac clk rst en (a,b) (x,y) = s1 + s2 where s1 =moore
clk rst en mac id 0 (bundle
(a,x)) s2 =moore
clk rst en mac id 0 (bundle
(b,y))
:: (KnownDomain dom, NFDataX s, Bundle i, Bundle o) | |
=> Clock dom | |
-> Reset dom | |
-> Enable dom | |
-> (s -> i -> s) | Transfer function in moore machine form:
|
-> (s -> o) | Output function in moore machine form:
|
-> s | Initial state |
-> Unbundled dom i -> Unbundled dom o | Synchronous sequential function with input and output matching that of the moore machine |
A version of moore
that does automatic Bundle
ing
Given a functions t
and o
of types:
t :: Int -> (Bool, Int) -> Int o :: Int -> (Int, Bool)
When we want to make compositions of t
and o
in g
using moore
, we have to
write:
g clk rst en a b c = (b1,b2,i2) where (i1,b1) =unbundle
(moore clk rst en t o 0 (bundle
(a,b))) (i2,b2) =unbundle
(moore clk rst en t o 3 (bundle
(c,i1)))
Using mooreB
however we can write:
g clk rst en a b c = (b1,b2,i2) where (i1,b1) =mooreB
clk rst en t o 0 (a,b) (i2,b2) =mooreB
clk rst en t o 3 (c,i1)
registerB :: (KnownDomain dom, NFDataX a, Bundle a) => Clock dom -> Reset dom -> Enable dom -> a -> Unbundled dom a -> Unbundled dom a Source #
Create a register
function for product-type like signals (e.g.
(
)Signal
a, Signal
b)
rP :: Clock dom -> Reset dom -> Enable dom -> (Signal
dom Int,Signal
dom Int) -> (Signal
dom Int,Signal
dom Int) rP clk rst en =registerB
clk rst en (8,8)
>>>
simulateB (rP systemClockGen systemResetGen enableGen) [(1,1),(1,1),(2,2),(3,3)] :: [(Int,Int)]
[(8,8),(8,8),(1,1),(2,2),(3,3)... ...
Synchronizer circuits for safe clock domain crossing
dualFlipFlopSynchronizer Source #
:: (NFDataX a, KnownDomain dom1, KnownDomain dom2) | |
=> Clock dom1 |
|
-> Clock dom2 |
|
-> Reset dom2 |
|
-> Enable dom2 |
|
-> a | Initial value of the two synchronization registers |
-> Signal dom1 a | Incoming data |
-> Signal dom2 a | Outgoing, synchronized, data |
Synchronizer based on two sequentially connected flip-flops.
- NB: This synchronizer can be used for bit-synchronization.
NB: Although this synchronizer does reduce metastability, it does not guarantee the proper synchronization of a whole word. For example, given that the output is sampled twice as fast as the input is running, and we have two samples in the input stream that look like:
[0111,1000]
But the circuit driving the input stream has a longer propagation delay on msb compared to the lsbs. What can happen is an output stream that looks like this:
[0111,0111,0000,1000]
Where the level-change of the msb was not captured, but the level change of the lsbs were.
If you want to have safe word-synchronization use
asyncFIFOSynchronizer
.
asyncFIFOSynchronizer Source #
:: (KnownDomain wdom, KnownDomain rdom, 2 <= addrSize) | |
=> SNat addrSize | Size of the internally used addresses, the FIFO contains |
-> Clock wdom |
|
-> Clock rdom |
|
-> Reset wdom | |
-> Reset rdom | |
-> Enable wdom | |
-> Enable rdom | |
-> Signal rdom Bool | Read request |
-> Signal wdom (Maybe a) | Element to insert |
-> (Signal rdom a, Signal rdom Bool, Signal wdom Bool) | (Oldest element in the FIFO, |
Synchronizer implemented as a FIFO around an asynchronous RAM. Based on the design described in Clash.Tutorial, which is itself based on the design described in http://www.sunburst-design.com/papers/CummingsSNUG2002SJ_FIFO1.pdf.
NB: This synchronizer can be used for word-synchronization.
ROMs
:: (KnownNat n, Enum addr) | |
=> Vec n a | ROM content NB: must be a constant |
-> addr | Read address |
-> a | The value of the ROM at address |
An asynchronous/combinational ROM with space for n
elements
Additional helpful information:
- See Clash.Sized.Fixed and Clash.Prelude.BlockRam for ideas on how to use ROMs and RAMs
:: KnownNat n | |
=> Vec (2 ^ n) a | ROM content NB: must be a constant |
-> Unsigned n | Read address |
-> a | The value of the ROM at address |
An asynchronous/combinational ROM with space for 2^n
elements
Additional helpful information:
- See Clash.Sized.Fixed and Clash.Prelude.BlockRam for ideas on how to use ROMs and RAMs
:: (KnownDomain dom, KnownNat n, NFDataX a, Enum addr) | |
=> Clock dom |
|
-> Enable dom | Global enable |
-> Vec n a | ROM content NB: must be a constant |
-> Signal dom addr | Read address |
-> Signal dom a | The value of the ROM at address |
A ROM with a synchronous read port, with space for n
elements
- NB: Read value is delayed by 1 cycle
- NB: Initial output value is
undefined
Additional helpful information:
- See Clash.Sized.Fixed and Clash.Explicit.BlockRam for ideas on how to use ROMs and RAMs
:: (KnownDomain dom, KnownNat n, NFDataX a) | |
=> Clock dom |
|
-> Enable dom | Global enable |
-> Vec (2 ^ n) a | ROM content NB: must be a constant |
-> Signal dom (Unsigned n) | Read address |
-> Signal dom a | The value of the ROM at address |
A ROM with a synchronous read port, with space for 2^n
elements
- NB: Read value is delayed by 1 cycle
- NB: Initial output value is
undefined
Additional helpful information:
- See Clash.Sized.Fixed and Clash.Explicit.BlockRam for ideas on how to use ROMs and RAMs
RAM primitives with a combinational read port
:: (Enum addr, HasCallStack, KnownDomain wdom, KnownDomain rdom) | |
=> Clock wdom |
|
-> Clock rdom |
|
-> Enable wdom | Global enable |
-> SNat n | Size |
-> Signal rdom addr | Read address |
-> Signal wdom (Maybe (addr, a)) | (write address |
-> Signal rdom a | Value of the |
Create a RAM with space for n
elements
- NB: Initial content of the RAM is
undefined
Additional helpful information:
- See Clash.Explicit.BlockRam for more information on how to use a RAM.
:: forall wdom rdom n a. (KnownNat n, HasCallStack, KnownDomain wdom, KnownDomain rdom) | |
=> Clock wdom |
|
-> Clock rdom |
|
-> Enable wdom | Global enable |
-> Signal rdom (Unsigned n) | Read address |
-> Signal wdom (Maybe (Unsigned n, a)) | (write address |
-> Signal rdom a | Value of the |
Create a RAM with space for 2^n
elements
- NB: Initial content of the RAM is
undefined
Additional helpful information:
- See Clash.Prelude.BlockRam for more information on how to use a RAM.
BlockRAM primitives
:: (KnownDomain dom, HasCallStack, NFDataX a, Enum addr) | |
=> Clock dom |
|
-> Enable dom | Global enable |
-> Vec n a | Initial content of the BRAM, also determines the size, NB: MUST be a constant. |
-> Signal dom addr | Read address |
-> Signal dom (Maybe (addr, a)) | (write address |
-> Signal dom a | Value of the |
Create a blockRAM with space for n
elements
- NB: Read value is delayed by 1 cycle
- NB: Initial output value is
undefined
bram40 ::Clock
dom ->Enable
dom ->Signal
dom (Unsigned
6) ->Signal
dom (Maybe (Unsigned
6,Bit
)) ->Signal
domBit
bram40 clk en =blockRam
clk en (replicate
d40 1)
Additional helpful information:
- See Clash.Explicit.BlockRam for more information on how to use a Block RAM.
- Use the adapter
readNew
for obtaining write-before-read semantics like this:
.readNew
clk rst (blockRam
clk inits) rd wrM
:: (KnownDomain dom, HasCallStack, NFDataX a, KnownNat n) | |
=> Clock dom |
|
-> Enable dom | Global enable |
-> Vec (2 ^ n) a | Initial content of the BRAM, also
determines the size, NB: MUST be a constant. |
-> Signal dom (Unsigned n) | Read address |
-> Signal dom (Maybe (Unsigned n, a)) | (Write address |
-> Signal dom a | Value of the |
Create a blockRAM with space for 2^n
elements
- NB: Read value is delayed by 1 cycle
- NB: Initial output value is
undefined
bram32 ::Clock
dom ->Enable
dom ->Signal
dom (Unsigned
5) ->Signal
dom (Maybe (Unsigned
5,Bit
)) ->Signal
domBit
bram32 clk en =blockRamPow2
clk en (replicate
d32 1)
Additional helpful information:
- See Clash.Prelude.BlockRam for more information on how to use a Block RAM.
- Use the adapter
readNew
for obtaining write-before-read semantics like this:
.readNew
clk rst (blockRamPow2
clk inits) rd wrM
BlockRAM read/write conflict resolution
:: (KnownDomain dom, NFDataX a, Eq addr) | |
=> Clock dom | |
-> Reset dom | |
-> Enable dom | |
-> (Signal dom addr -> Signal dom (Maybe (addr, a)) -> Signal dom a) | The |
-> Signal dom addr | Read address |
-> Signal dom (Maybe (addr, a)) | (Write address |
-> Signal dom a | Value of the |
Create read-after-write blockRAM from a read-before-write one
Utility functions
riseEvery :: forall dom n. KnownDomain dom => Clock dom -> Reset dom -> Enable dom -> SNat n -> Signal dom Bool Source #
oscillate :: forall dom n. KnownDomain dom => Clock dom -> Reset dom -> Enable dom -> Bool -> SNat n -> Signal dom Bool Source #
Oscillate a
for a given number of cycles, given the starting state.Bool
Exported modules
Synchronous signals
module Clash.Explicit.Signal
DataFlow interface
module Clash.Prelude.DataFlow
Datatypes
Bit vectors
module Clash.Sized.BitVector
module Clash.Prelude.BitIndex
module Clash.Prelude.BitReduction
Arbitrary-width numbers
module Clash.Sized.Signed
module Clash.Sized.Unsigned
module Clash.Sized.Index
Fixed point numbers
module Clash.Sized.Fixed
Fixed size vectors
module Clash.Sized.Vector
Perfect depth trees
module Clash.Sized.RTree
Annotations
module Clash.Annotations.TopEntity
Generics type-classes
Representable types of kind *
.
This class is derivable in GHC with the DeriveGeneric
flag on.
A Generic
instance must satisfy the following laws:
from
.to
≡id
to
.from
≡id
Instances
class Generic1 (f :: k -> Type) #
Representable types of kind * -> *
(or kind k -> *
, when PolyKinds
is enabled).
This class is derivable in GHC with the DeriveGeneric
flag on.
A Generic1
instance must satisfy the following laws:
from1
.to1
≡id
to1
.from1
≡id
Instances
Generic1 (V1 :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (U1 :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (Proxy :: k -> Type) | Since: base-4.6.0.0 |
Generic1 (FromTextShow1 f :: k -> Type) | |
Defined in TextShow.FromStringTextShow type Rep1 (FromTextShow1 f) :: k -> Type # from1 :: forall (a :: k0). FromTextShow1 f a -> Rep1 (FromTextShow1 f) a # to1 :: forall (a :: k0). Rep1 (FromTextShow1 f) a -> FromTextShow1 f a # | |
Generic1 (FromStringShow1 f :: k -> Type) | |
Defined in TextShow.FromStringTextShow type Rep1 (FromStringShow1 f) :: k -> Type # from1 :: forall (a :: k0). FromStringShow1 f a -> Rep1 (FromStringShow1 f) a # to1 :: forall (a :: k0). Rep1 (FromStringShow1 f) a -> FromStringShow1 f a # | |
Generic1 (FromGeneric1 f :: k -> Type) | |
Defined in TextShow.Generic type Rep1 (FromGeneric1 f) :: k -> Type # from1 :: forall (a :: k0). FromGeneric1 f a -> Rep1 (FromGeneric1 f) a # to1 :: forall (a :: k0). Rep1 (FromGeneric1 f) a -> FromGeneric1 f a # | |
Generic1 (Alt f :: k -> Type) | Since: base-4.8.0.0 |
Generic1 (Ap f :: k -> Type) | Since: base-4.12.0.0 |
Generic1 (Const a :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (URec (Ptr ()) :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (URec Char :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (URec Double :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (URec Float :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (URec Int :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (URec Word :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (Rec1 f :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (Sum f g :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (Product f g :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (K1 i c :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (f :+: g :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (f :*: g :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (WrappedBifunctor p a :: k1 -> Type) | |
Defined in Data.Bifunctor.Wrapped type Rep1 (WrappedBifunctor p a) :: k -> Type # from1 :: forall (a0 :: k). WrappedBifunctor p a a0 -> Rep1 (WrappedBifunctor p a) a0 # to1 :: forall (a0 :: k). Rep1 (WrappedBifunctor p a) a0 -> WrappedBifunctor p a a0 # | |
Generic1 (Joker g a :: k1 -> Type) | |
Generic1 (Clown f a :: k1 -> Type) | |
Generic1 (FromTextShow2 f a :: k1 -> Type) | |
Defined in TextShow.FromStringTextShow type Rep1 (FromTextShow2 f a) :: k -> Type # from1 :: forall (a0 :: k). FromTextShow2 f a a0 -> Rep1 (FromTextShow2 f a) a0 # to1 :: forall (a0 :: k). Rep1 (FromTextShow2 f a) a0 -> FromTextShow2 f a a0 # | |
Generic1 (FromStringShow2 f a :: k1 -> Type) | |
Defined in TextShow.FromStringTextShow type Rep1 (FromStringShow2 f a) :: k -> Type # from1 :: forall (a0 :: k). FromStringShow2 f a a0 -> Rep1 (FromStringShow2 f a) a0 # to1 :: forall (a0 :: k). Rep1 (FromStringShow2 f a) a0 -> FromStringShow2 f a a0 # | |
Functor f => Generic1 (Compose f g :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (M1 i c f :: k -> Type) | Since: base-4.9.0.0 |
Functor f => Generic1 (f :.: g :: k -> Type) | Since: base-4.9.0.0 |
Generic1 (Sum p q a :: k1 -> Type) | |
Generic1 (Product f g a :: k1 -> Type) | |
Functor f => Generic1 (Tannen f p a :: k2 -> Type) | |
Functor (p (f a)) => Generic1 (Biff p f g a :: k3 -> Type) | |
Generic1 [] | Since: base-4.6.0.0 |
Generic1 Maybe | Since: base-4.6.0.0 |
Generic1 Par1 | Since: base-4.9.0.0 |
Generic1 Complex | Since: base-4.9.0.0 |
Generic1 Min | Since: base-4.9.0.0 |
Generic1 Max | Since: base-4.9.0.0 |
Generic1 First | Since: base-4.9.0.0 |
Generic1 Last | Since: base-4.9.0.0 |
Generic1 WrappedMonoid | Since: base-4.9.0.0 |
Defined in Data.Semigroup type Rep1 WrappedMonoid :: k -> Type # from1 :: forall (a :: k). WrappedMonoid a -> Rep1 WrappedMonoid a # to1 :: forall (a :: k). Rep1 WrappedMonoid a -> WrappedMonoid a # | |
Generic1 Option | Since: base-4.9.0.0 |
Generic1 ZipList | Since: base-4.7.0.0 |
Generic1 Identity | Since: base-4.8.0.0 |
Generic1 First | Since: base-4.7.0.0 |
Generic1 Last | Since: base-4.7.0.0 |
Generic1 Dual | Since: base-4.7.0.0 |
Generic1 Sum | Since: base-4.7.0.0 |
Generic1 Product | Since: base-4.7.0.0 |
Generic1 Down | Since: base-4.12.0.0 |
Generic1 NonEmpty | Since: base-4.6.0.0 |
Generic1 Tree | Since: containers-0.5.8 |
Generic1 FingerTree | Since: containers-0.6.1 |
Defined in Data.Sequence.Internal type Rep1 FingerTree :: k -> Type # from1 :: forall (a :: k). FingerTree a -> Rep1 FingerTree a # to1 :: forall (a :: k). Rep1 FingerTree a -> FingerTree a # | |
Generic1 Digit | Since: containers-0.6.1 |
Generic1 Node | Since: containers-0.6.1 |
Generic1 Elem | Since: containers-0.6.1 |
Generic1 ViewL | Since: containers-0.5.8 |
Generic1 ViewR | Since: containers-0.5.8 |
Generic1 FromGeneric | |
Defined in TextShow.Generic type Rep1 FromGeneric :: k -> Type # from1 :: forall (a :: k). FromGeneric a -> Rep1 FromGeneric a # to1 :: forall (a :: k). Rep1 FromGeneric a -> FromGeneric a # | |
Generic1 FromStringShow | |
Defined in TextShow.FromStringTextShow type Rep1 FromStringShow :: k -> Type # from1 :: forall (a :: k). FromStringShow a -> Rep1 FromStringShow a # to1 :: forall (a :: k). Rep1 FromStringShow a -> FromStringShow a # | |
Generic1 FromTextShow | |
Defined in TextShow.FromStringTextShow type Rep1 FromTextShow :: k -> Type # from1 :: forall (a :: k). FromTextShow a -> Rep1 FromTextShow a # to1 :: forall (a :: k). Rep1 FromTextShow a -> FromTextShow a # | |
Generic1 (Either a :: Type -> Type) | Since: base-4.6.0.0 |
Generic1 ((,) a :: Type -> Type) | Since: base-4.6.0.0 |
Generic1 (Arg a :: Type -> Type) | Since: base-4.9.0.0 |
Generic1 (WrappedMonad m :: Type -> Type) | Since: base-4.7.0.0 |
Defined in Control.Applicative type Rep1 (WrappedMonad m) :: k -> Type # from1 :: forall (a :: k). WrappedMonad m a -> Rep1 (WrappedMonad m) a # to1 :: forall (a :: k). Rep1 (WrappedMonad m) a -> WrappedMonad m a # | |
Functor f => Generic1 (Cofree f :: Type -> Type) | |
Functor f => Generic1 (Free f :: Type -> Type) | |
Generic1 (ListF a :: Type -> Type) | |
Generic1 (NonEmptyF a :: Type -> Type) | |
Generic1 ((,,) a b :: Type -> Type) | Since: base-4.6.0.0 |
Generic1 (WrappedArrow a b :: Type -> Type) | Since: base-4.7.0.0 |
Defined in Control.Applicative type Rep1 (WrappedArrow a b) :: k -> Type # from1 :: forall (a0 :: k). WrappedArrow a b a0 -> Rep1 (WrappedArrow a b) a0 # to1 :: forall (a0 :: k). Rep1 (WrappedArrow a b) a0 -> WrappedArrow a b a0 # | |
Generic1 (Kleisli m a :: Type -> Type) | Since: base-4.14.0.0 |
Generic1 (FreeF f a :: Type -> Type) | |
Generic1 (CofreeF f a :: Type -> Type) | |
Generic1 (Tagged s :: Type -> Type) | |
Generic1 ((,,,) a b c :: Type -> Type) | Since: base-4.6.0.0 |
Generic1 ((,,,,) a b c d :: Type -> Type) | Since: base-4.6.0.0 |
Generic1 ((,,,,,) a b c d e :: Type -> Type) | Since: base-4.6.0.0 |
Generic1 ((,,,,,,) a b c d e f :: Type -> Type) | Since: base-4.6.0.0 |
Type-level natural numbers
module GHC.TypeLits
module GHC.TypeLits.Extra
module Clash.Promoted.Nat
module Clash.Promoted.Nat.Literals
module Clash.Promoted.Nat.TH
Type-level strings
module Clash.Promoted.Symbol
Type classes
Clash
module Clash.Class.BitPack
module Clash.Class.Num
module Clash.Class.Resize
Other
module Control.Applicative
module Data.Bits
Exceptions
module Clash.XException
Named types
module Clash.NamedTypes
Haskell Prelude
module Clash.HaskellPrelude