/** * @since 2.0.0 */ import { Either } from './Either' import { Eq } from './Eq' import { Magma } from './Magma' import { Monoid } from './Monoid' import { Option } from './Option' import { Ord } from './Ord' import { Predicate } from './Predicate' import { Refinement } from './Refinement' import { Semigroup } from './Semigroup' import { Separated } from './Separated' import { Show } from './Show' /** * @category instances * @since 2.0.0 */ export declare const getShow: <A>(S: Show<A>) => Show<Set<A>> /** * @category instances * @since 2.0.0 */ export declare const getEq: <A>(E: Eq<A>) => Eq<Set<A>> /** * `map` can be used to turn functions `(a: A) => B` into functions `(fa: F<A>) => F<B>` whose argument and return types * use the type constructor `F` to represent some computational context. * * @since 2.0.0 */ export declare function map<B>(E: Eq<B>): <A>(f: (x: A) => B) => (set: Set<A>) => Set<B> /** * Composes computations in sequence, using the return value of one computation to determine the next computation. * * @since 2.0.0 */ export declare function chain<B>(E: Eq<B>): <A>(f: (x: A) => Set<B>) => (set: Set<A>) => Set<B> /** * @since 2.0.0 */ export declare function filter<A, B extends A>(refinement: Refinement<A, B>): (set: Set<A>) => Set<B> export declare function filter<A>(predicate: Predicate<A>): <B extends A>(set: Set<B>) => Set<B> export declare function filter<A>(predicate: Predicate<A>): (set: Set<A>) => Set<A> /** * @since 2.0.0 */ export declare function partition<A, B extends A>( refinement: Refinement<A, B> ): (set: Set<A>) => Separated<Set<A>, Set<B>> export declare function partition<A>(predicate: Predicate<A>): <B extends A>(set: Set<B>) => Separated<Set<B>, Set<B>> export declare function partition<A>(predicate: Predicate<A>): (set: Set<A>) => Separated<Set<A>, Set<A>> /** * Form the union of two sets * * @since 2.0.0 */ export declare function union<A>(E: Eq<A>): { (that: Set<A>): (me: Set<A>) => Set<A> (me: Set<A>, that: Set<A>): Set<A> } /** * The set of elements which are in both the first and second set * * @since 2.0.0 */ export declare function intersection<A>(E: Eq<A>): { (that: Set<A>): (me: Set<A>) => Set<A> (me: Set<A>, that: Set<A>): Set<A> } /** * @since 2.0.0 */ export declare function partitionMap<B, C>( EB: Eq<B>, EC: Eq<C> ): <A>(f: (a: A) => Either<B, C>) => (set: Set<A>) => Separated<Set<B>, Set<C>> /** * Form the set difference (`x` - `y`) * * @example * import { difference } from 'fp-ts/Set' * import * as N from 'fp-ts/number' * import { pipe } from 'fp-ts/function' * * assert.deepStrictEqual(pipe(new Set([1, 2]), difference(N.Eq)(new Set([1, 3]))), new Set([2])) * * @since 2.0.0 */ export declare function difference<A>(E: Eq<A>): { (that: Set<A>): (me: Set<A>) => Set<A> (me: Set<A>, that: Set<A>): Set<A> } /** * @category instances * @since 2.11.0 */ export declare const getUnionSemigroup: <A>(E: Eq<A>) => Semigroup<Set<A>> /** * @category instances * @since 2.0.0 */ export declare const getUnionMonoid: <A>(E: Eq<A>) => Monoid<Set<A>> /** * @category instances * @since 2.0.0 */ export declare const getIntersectionSemigroup: <A>(E: Eq<A>) => Semigroup<Set<A>> /** * @category instances * @since 2.11.0 */ export declare const getDifferenceMagma: <A>(E: Eq<A>) => Magma<Set<A>> /** * @category folding * @since 2.0.0 */ export declare const reduce: <A>(O: Ord<A>) => <B>(b: B, f: (b: B, a: A) => B) => (fa: Set<A>) => B /** * @category folding * @since 2.0.0 */ export declare const foldMap: <A, M>(O: Ord<A>, M: Monoid<M>) => (f: (a: A) => M) => (fa: Set<A>) => M /** * @category folding * @since 2.11.0 */ export declare const reduceRight: <A>(O: Ord<A>) => <B>(b: B, f: (a: A, b: B) => B) => (fa: Set<A>) => B /** * Create a set with one element * * @category constructors * @since 2.0.0 */ export declare const singleton: <A>(a: A) => Set<A> /** * Insert a value into a set * * @since 2.0.0 */ export declare function insert<A>(E: Eq<A>): (a: A) => (set: Set<A>) => Set<A> /** * Delete a value from a set * * @since 2.0.0 */ export declare const remove: <A>(E: Eq<A>) => (a: A) => (set: Set<A>) => Set<A> /** * Checks an element is a member of a set; * If yes, removes the value from the set * If no, inserts the value to the set * * @since 2.5.0 */ export declare const toggle: <A>(E: Eq<A>) => (a: A) => (set: Set<A>) => Set<A> /** * Create a set from an array * * @category conversions * @since 2.0.0 */ export declare const fromArray: <A>(E: Eq<A>) => (as: A[]) => Set<A> /** * @since 2.0.0 */ export declare const compact: <A>(E: Eq<A>) => (fa: Set<Option<A>>) => Set<A> /** * @since 2.0.0 */ export declare function separate<E, A>(EE: Eq<E>, EA: Eq<A>): (fa: Set<Either<E, A>>) => Separated<Set<E>, Set<A>> /** * @since 2.0.0 */ export declare function filterMap<B>(E: Eq<B>): <A>(f: (a: A) => Option<B>) => (fa: Set<A>) => Set<B> /** * @since 2.0.0 */ export declare const empty: Set<never> /** * Test whether a `Set` is empty. * * @since 2.10.0 */ export declare const isEmpty: <A>(set: Set<A>) => boolean /** * Calculate the number of elements in a `Set`. * * @since 2.10.0 */ export declare const size: <A>(set: Set<A>) => number /** * @since 2.0.0 */ export declare const some: <A>(predicate: Predicate<A>) => (set: Set<A>) => boolean /** * @since 2.0.0 */ export declare const every: { <A, B extends A>(refinement: Refinement<A, B>): Refinement<Set<A>, Set<B>> <A>(predicate: Predicate<A>): Predicate<Set<A>> } /** * @since 2.10.0 */ export declare const isSubset: <A>(E: Eq<A>) => (that: Set<A>) => (me: Set<A>) => boolean /** * Test if a value is a member of a set * * @since 2.0.0 */ export declare const elem: <A>(E: Eq<A>) => { (a: A): (set: Set<A>) => boolean (a: A, set: Set<A>): boolean } /** * Get a sorted `Array` of the values contained in a `Set`. * * @category conversions * @since 2.0.0 */ export declare const toArray: <A>(O: Ord<A>) => (set: Set<A>) => A[] /** * Use [`isSubset`](#issubset) instead. * * @category zone of death * @since 2.0.0 * @deprecated */ export declare const subset: <A>(E: Eq<A>) => { (that: Set<A>): (me: Set<A>) => boolean (me: Set<A>, that: Set<A>): boolean }