<E, E2>(f: (error: E) => E2): <A, In, L, R>(
self: Sink<A, In, L, E, R>
) => Sink<A, In, L, E2, R>
<A, In, L, E, R, E2>(
self: Sink<A, In, L, E, R>,
f: (error: E) => E2
): Sink<A, In, L, E2, R>Transforms the errors emitted by this sink using f.
export const const mapError: {
<E, E2>(f: (error: E) => E2): <A, In, L, R>(
self: Sink<A, In, L, E, R>
) => Sink<A, In, L, E2, R>
<A, In, L, E, R, E2>(
self: Sink<A, In, L, E, R>,
f: (error: E) => E2
): Sink<A, In, L, E2, R>
}
Transforms the errors emitted by this sink using f.
mapError: {
<function (type parameter) E in <E, E2>(f: (error: E) => E2): <A, In, L, R>(self: Sink<A, In, L, E, R>) => Sink<A, In, L, E2, R>E, function (type parameter) E2 in <E, E2>(f: (error: E) => E2): <A, In, L, R>(self: Sink<A, In, L, E, R>) => Sink<A, In, L, E2, R>E2>(f: (error: E) => E2f: (error: Eerror: function (type parameter) E in <E, E2>(f: (error: E) => E2): <A, In, L, R>(self: Sink<A, In, L, E, R>) => Sink<A, In, L, E2, R>E) => function (type parameter) E2 in <E, E2>(f: (error: E) => E2): <A, In, L, R>(self: Sink<A, In, L, E, R>) => Sink<A, In, L, E2, R>E2): <function (type parameter) A in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>A, function (type parameter) In in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>In, function (type parameter) L in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>L, function (type parameter) R in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>R>(self: Sink<A, In, L, E, R>(parameter) self: {
transform: (upstream: Pull.Pull<NonEmptyReadonlyArray<In>, never, void>, scope: Scope.Scope) => Effect.Effect<End<A, L>, E, R>;
pipe: { <A>(this: A): A; <A, B = never>(this: A, ab: (_: A) => B): B; <A, B = never, C = never>(this: A, ab: (_: A) => B, bc: (_: B) => C): C; <A, B = never, C = never, D = never>(this: A, ab: (_: A) => B, bc: (_: B) => C, cd: (_: C) => D): D; <…;
}
self: interface Sink<out A, in In = unknown, out L = never, out E = never, out R = never>A Sink<A, In, L, E, R> is used to consume elements produced by a Stream.
You can think of a sink as a function that will consume a variable amount of
In elements (could be 0, 1, or many), might fail with an error of type E,
and will eventually yield a value of type A together with a remainder of
type L (i.e. any leftovers).
Example (Running a sink with a stream)
import { Effect, Sink, Stream } from "effect"
// Create a simple sink that always succeeds with a value
const sink: Sink.Sink<number> = Sink.succeed(42)
// Use the sink to consume a stream
const stream = Stream.make(1, 2, 3)
const program = Stream.run(stream, sink)
Effect.runPromise(program).then(console.log)
// Output: 42
Namespace containing types and interfaces for Sink variance and type relationships.
Sink<function (type parameter) A in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>A, function (type parameter) In in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>In, function (type parameter) L in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>L, function (type parameter) E in <E, E2>(f: (error: E) => E2): <A, In, L, R>(self: Sink<A, In, L, E, R>) => Sink<A, In, L, E2, R>E, function (type parameter) R in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>R>) => interface Sink<out A, in In = unknown, out L = never, out E = never, out R = never>A Sink<A, In, L, E, R> is used to consume elements produced by a Stream.
You can think of a sink as a function that will consume a variable amount of
In elements (could be 0, 1, or many), might fail with an error of type E,
and will eventually yield a value of type A together with a remainder of
type L (i.e. any leftovers).
Example (Running a sink with a stream)
import { Effect, Sink, Stream } from "effect"
// Create a simple sink that always succeeds with a value
const sink: Sink.Sink<number> = Sink.succeed(42)
// Use the sink to consume a stream
const stream = Stream.make(1, 2, 3)
const program = Stream.run(stream, sink)
Effect.runPromise(program).then(console.log)
// Output: 42
Namespace containing types and interfaces for Sink variance and type relationships.
Sink<function (type parameter) A in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>A, function (type parameter) In in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>In, function (type parameter) L in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>L, function (type parameter) E2 in <E, E2>(f: (error: E) => E2): <A, In, L, R>(self: Sink<A, In, L, E, R>) => Sink<A, In, L, E2, R>E2, function (type parameter) R in <A, In, L, R>(self: Sink<A, In, L, E, R>): Sink<A, In, L, E2, R>R>
<function (type parameter) A in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>A, function (type parameter) In in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>In, function (type parameter) L in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>L, function (type parameter) E in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E, function (type parameter) R in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>R, function (type parameter) E2 in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E2>(self: Sink<A, In, L, E, R>(parameter) self: {
transform: (upstream: Pull.Pull<NonEmptyReadonlyArray<In>, never, void>, scope: Scope.Scope) => Effect.Effect<End<A, L>, E, R>;
pipe: { <A>(this: A): A; <A, B = never>(this: A, ab: (_: A) => B): B; <A, B = never, C = never>(this: A, ab: (_: A) => B, bc: (_: B) => C): C; <A, B = never, C = never, D = never>(this: A, ab: (_: A) => B, bc: (_: B) => C, cd: (_: C) => D): D; <…;
}
self: interface Sink<out A, in In = unknown, out L = never, out E = never, out R = never>A Sink<A, In, L, E, R> is used to consume elements produced by a Stream.
You can think of a sink as a function that will consume a variable amount of
In elements (could be 0, 1, or many), might fail with an error of type E,
and will eventually yield a value of type A together with a remainder of
type L (i.e. any leftovers).
Example (Running a sink with a stream)
import { Effect, Sink, Stream } from "effect"
// Create a simple sink that always succeeds with a value
const sink: Sink.Sink<number> = Sink.succeed(42)
// Use the sink to consume a stream
const stream = Stream.make(1, 2, 3)
const program = Stream.run(stream, sink)
Effect.runPromise(program).then(console.log)
// Output: 42
Namespace containing types and interfaces for Sink variance and type relationships.
Sink<function (type parameter) A in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>A, function (type parameter) In in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>In, function (type parameter) L in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>L, function (type parameter) E in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E, function (type parameter) R in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>R>, f: (error: E) => E2f: (error: Eerror: function (type parameter) E in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E) => function (type parameter) E2 in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E2): interface Sink<out A, in In = unknown, out L = never, out E = never, out R = never>A Sink<A, In, L, E, R> is used to consume elements produced by a Stream.
You can think of a sink as a function that will consume a variable amount of
In elements (could be 0, 1, or many), might fail with an error of type E,
and will eventually yield a value of type A together with a remainder of
type L (i.e. any leftovers).
Example (Running a sink with a stream)
import { Effect, Sink, Stream } from "effect"
// Create a simple sink that always succeeds with a value
const sink: Sink.Sink<number> = Sink.succeed(42)
// Use the sink to consume a stream
const stream = Stream.make(1, 2, 3)
const program = Stream.run(stream, sink)
Effect.runPromise(program).then(console.log)
// Output: 42
Namespace containing types and interfaces for Sink variance and type relationships.
Sink<function (type parameter) A in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>A, function (type parameter) In in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>In, function (type parameter) L in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>L, function (type parameter) E2 in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E2, function (type parameter) R in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>R>
} = import dualdual(2, <function (type parameter) A in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>A, function (type parameter) In in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>In, function (type parameter) L in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>L, function (type parameter) E in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E, function (type parameter) R in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>R, function (type parameter) E2 in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E2>(
self: Sink<A, In, L, E, R>(parameter) self: {
transform: (upstream: Pull.Pull<NonEmptyReadonlyArray<In>, never, void>, scope: Scope.Scope) => Effect.Effect<End<A, L>, E, R>;
pipe: { <A>(this: A): A; <A, B = never>(this: A, ab: (_: A) => B): B; <A, B = never, C = never>(this: A, ab: (_: A) => B, bc: (_: B) => C): C; <A, B = never, C = never, D = never>(this: A, ab: (_: A) => B, bc: (_: B) => C, cd: (_: C) => D): D; <…;
}
self: interface Sink<out A, in In = unknown, out L = never, out E = never, out R = never>A Sink<A, In, L, E, R> is used to consume elements produced by a Stream.
You can think of a sink as a function that will consume a variable amount of
In elements (could be 0, 1, or many), might fail with an error of type E,
and will eventually yield a value of type A together with a remainder of
type L (i.e. any leftovers).
Example (Running a sink with a stream)
import { Effect, Sink, Stream } from "effect"
// Create a simple sink that always succeeds with a value
const sink: Sink.Sink<number> = Sink.succeed(42)
// Use the sink to consume a stream
const stream = Stream.make(1, 2, 3)
const program = Stream.run(stream, sink)
Effect.runPromise(program).then(console.log)
// Output: 42
Namespace containing types and interfaces for Sink variance and type relationships.
Sink<function (type parameter) A in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>A, function (type parameter) In in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>In, function (type parameter) L in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>L, function (type parameter) E in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E, function (type parameter) R in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>R>,
f: (error: E) => E2f: (error: Eerror: function (type parameter) E in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E) => function (type parameter) E2 in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E2
): interface Sink<out A, in In = unknown, out L = never, out E = never, out R = never>A Sink<A, In, L, E, R> is used to consume elements produced by a Stream.
You can think of a sink as a function that will consume a variable amount of
In elements (could be 0, 1, or many), might fail with an error of type E,
and will eventually yield a value of type A together with a remainder of
type L (i.e. any leftovers).
Example (Running a sink with a stream)
import { Effect, Sink, Stream } from "effect"
// Create a simple sink that always succeeds with a value
const sink: Sink.Sink<number> = Sink.succeed(42)
// Use the sink to consume a stream
const stream = Stream.make(1, 2, 3)
const program = Stream.run(stream, sink)
Effect.runPromise(program).then(console.log)
// Output: 42
Namespace containing types and interfaces for Sink variance and type relationships.
Sink<function (type parameter) A in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>A, function (type parameter) In in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>In, function (type parameter) L in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>L, function (type parameter) E2 in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>E2, function (type parameter) R in <A, In, L, E, R, E2>(self: Sink<A, In, L, E, R>, f: (error: E) => E2): Sink<A, In, L, E2, R>R> => const transformEffect: <
A,
In,
L,
E,
R,
A2,
E2,
R2,
L2 = never
>(
self: Sink<A, In, L, E, R>,
f: (
effect: Effect.Effect<End<A, L>, E, R>
) => Effect.Effect<End<A2, L2>, E2, R2>
) => Sink<A2, In, L2, E2, R2>
transformEffect(self: Sink<A, In, L, E, R>(parameter) self: {
transform: (upstream: Pull.Pull<NonEmptyReadonlyArray<In>, never, void>, scope: Scope.Scope) => Effect.Effect<End<A, L>, E, R>;
pipe: { <A>(this: A): A; <A, B = never>(this: A, ab: (_: A) => B): B; <A, B = never, C = never>(this: A, ab: (_: A) => B, bc: (_: B) => C): C; <A, B = never, C = never, D = never>(this: A, ab: (_: A) => B, bc: (_: B) => C, cd: (_: C) => D): D; <…;
}
self, import EffectEffect.mapError(f: (error: E) => E2f)))