Safe Haskell	None
Language	Haskell2010

FRP.Rhine.SN

Description

Asynchronous signal networks are combinations of clocked signal functions (ClSFs) and matching ResamplingBuffers, all satisfying the appropriate clock type constraints.

This module defines the SN type, combinators are found in a submodule.

Synopsis

data SN m cl a b where
- Synchronous :: (cl ~ In cl, cl ~ Out cl) => ClSF m cl a b -> SN m cl a b
- Sequential :: (Clock m clab, Clock m clcd, Clock m (Out clab), Clock m (Out clcd), Clock m (In clab), Clock m (In clcd), GetClockProxy clab, GetClockProxy clcd, Time clab ~ Time clcd, Time clab ~ Time (Out clab), Time clcd ~ Time (In clcd)) => SN m clab a b -> ResamplingBuffer m (Out clab) (In clcd) b c -> SN m clcd c d -> SN m (SequentialClock m clab clcd) a d
- Parallel :: (Clock m cl1, Clock m cl2, Clock m (Out cl1), Clock m (Out cl2), GetClockProxy cl1, GetClockProxy cl2, Time cl1 ~ Time (Out cl1), Time cl2 ~ Time (Out cl2), Time cl1 ~ Time cl2, Time cl1 ~ Time (In cl1), Time cl2 ~ Time (In cl2)) => SN m cl1 a b -> SN m cl2 a b -> SN m (ParallelClock m cl1 cl2) a b
- Postcompose :: (Clock m (Out cl), Time cl ~ Time (Out cl)) => SN m cl a b -> ClSF m (Out cl) b c -> SN m cl a c
- Precompose :: (Clock m (In cl), Time cl ~ Time (In cl)) => ClSF m (In cl) a b -> SN m cl b c -> SN m cl a c

Documentation

data SN m cl a b where Source #

An SN is a side-effectful asynchronous signal network, where input, data processing (including side effects) and output need not happen at the same time.

The type parameters are:

m: The monad in which side effects take place.
cl: The clock of the whole signal network. It may be sequentially or parallely composed from other clocks.
a: The input type. Input arrives at the rate In cl.
b: The output type. Output arrives at the rate Out cl.

Constructors

Synchronous :: (cl ~ In cl, cl ~ Out cl) => ClSF m cl a b -> SN m cl a b	A synchronous monadic stream function is the basic building block. For such an `SN`, data enters and leaves the system at the same rate as it is processed.
Sequential :: (Clock m clab, Clock m clcd, Clock m (Out clab), Clock m (Out clcd), Clock m (In clab), Clock m (In clcd), GetClockProxy clab, GetClockProxy clcd, Time clab ~ Time clcd, Time clab ~ Time (Out clab), Time clcd ~ Time (In clcd)) => SN m clab a b -> ResamplingBuffer m (Out clab) (In clcd) b c -> SN m clcd c d -> SN m (SequentialClock m clab clcd) a d	Two `SN`s may be sequentially composed if there is a matching `ResamplingBuffer` between them.
Parallel :: (Clock m cl1, Clock m cl2, Clock m (Out cl1), Clock m (Out cl2), GetClockProxy cl1, GetClockProxy cl2, Time cl1 ~ Time (Out cl1), Time cl2 ~ Time (Out cl2), Time cl1 ~ Time cl2, Time cl1 ~ Time (In cl1), Time cl2 ~ Time (In cl2)) => SN m cl1 a b -> SN m cl2 a b -> SN m (ParallelClock m cl1 cl2) a b	Two `SN`s with the same input and output data may be parallely composed.
Postcompose :: (Clock m (Out cl), Time cl ~ Time (Out cl)) => SN m cl a b -> ClSF m (Out cl) b c -> SN m cl a c	A `ClSF` can always be postcomposed onto an `SN` if the clocks match on the output.
Precompose :: (Clock m (In cl), Time cl ~ Time (In cl)) => ClSF m (In cl) a b -> SN m cl b c -> SN m cl a c	A `ClSF` can always be precomposed onto an `SN` if the clocks match on the input.

Instances

Instances details

GetClockProxy cl => ToClockProxy (SN m cl a b) Source #
Instance details Defined in FRP.Rhine.SN Associated Types type Cl (SN m cl a b) Source # Methods toClockProxy :: SN m cl a b -> ClockProxy (Cl (SN m cl a b)) Source #
type Cl (SN m cl a b) Source #
Instance details Defined in FRP.Rhine.SN type Cl (SN m cl a b) = cl