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Cypress is a next generation front end testing tool built for the modern web

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// Type definitions for bluebird 3.5 // Project: https://github.com/petkaantonov/bluebird // Definitions by: Leonard Hecker <https://github.com/lhecker> // Definitions: https://github.com/DefinitelyTyped/DefinitelyTyped // TypeScript Version: 3.2 /*! * The code following this comment originates from: * https://github.com/types/npm-bluebird * * Note for browser users: use bluebird-global typings instead of this one * if you want to use Bluebird via the global Promise symbol. * * Licensed under: * The MIT License (MIT) * * Copyright (c) 2016 unional * * Permission is hereby granted, free of charge, to any person obtaining a copy * of this software and associated documentation files (the "Software"), to deal * in the Software without restriction, including without limitation the rights * to use, copy, modify, merge, publish, distribute, sublicense, and/or sell * copies of the Software, and to permit persons to whom the Software is * furnished to do so, subject to the following conditions: * * The above copyright notice and this permission notice shall be included in * all copies or substantial portions of the Software. * * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR * IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE * AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER * LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, * OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN * THE SOFTWARE. */ type Constructor<E> = new (...args: any[]) => E; type CatchFilter<E> = ((error: E) => boolean) | (object & E); type Resolvable<R> = R | PromiseLike<R>; type IterateFunction<T, R> = (item: T, index: number, arrayLength: number) => Resolvable<R>; declare class Bluebird<R> implements PromiseLike<R>, Bluebird.Inspection<R> { readonly [Symbol.toStringTag]: "Object"; /** * Create a new promise. The passed in function will receive functions * `resolve` and `reject` as its arguments which can be called to seal the fate of the created promise. * * If promise cancellation is enabled, passed in function will receive * one more function argument `onCancel` that allows to register an optional cancellation callback. */ constructor(callback: (resolve: (thenableOrResult?: Resolvable<R>) => void, reject: (error?: any) => void, onCancel?: (callback: () => void) => void) => void); /** * Promises/A+ `.then()`. Returns a new promise chained from this promise. * * The new promise will be rejected or resolved depending on the passed `fulfilledHandler`, `rejectedHandler` and the state of this promise. */ // Based on PromiseLike.then, but returns a Bluebird instance. then<U>(onFulfill?: (value: R) => Resolvable<U>, onReject?: (error: any) => Resolvable<U>): Bluebird<U>; // For simpler signature help. then<TResult1 = R, TResult2 = never>( onfulfilled?: ((value: R) => Resolvable<TResult1>) | null, onrejected?: ((reason: any) => Resolvable<TResult2>) | null ): Bluebird<TResult1 | TResult2>; /** * This is a catch-all exception handler, shortcut for calling `.then(null, handler)` on this promise. * * Any exception happening in a `.then`-chain will propagate to nearest `.catch` handler. * * Alias `.caught();` for compatibility with earlier ECMAScript version. */ catch<U = R>(onReject: ((error: any) => Resolvable<U>) | undefined | null): Bluebird<U | R>; /** * This extends `.catch` to work more like catch-clauses in languages like Java or C#. * * Instead of manually checking `instanceof` or `.name === "SomeError"`, * you may specify a number of error constructors which are eligible for this catch handler. * The catch handler that is first met that has eligible constructors specified, is the one that will be called. * * This method also supports predicate-based filters. * If you pass a predicate function instead of an error constructor, the predicate will receive the error as an argument. * The return result of the predicate will be used determine whether the error handler should be called. * * Alias `.caught();` for compatibility with earlier ECMAScript version. */ catch<U, E1, E2, E3, E4, E5>( filter1: Constructor<E1>, filter2: Constructor<E2>, filter3: Constructor<E3>, filter4: Constructor<E4>, filter5: Constructor<E5>, onReject: (error: E1 | E2 | E3 | E4 | E5) => Resolvable<U>, ): Bluebird<U | R>; catch<U, E1, E2, E3, E4, E5>( filter1: Constructor<E1> | CatchFilter<E1>, filter2: Constructor<E2> | CatchFilter<E2>, filter3: Constructor<E3> | CatchFilter<E3>, filter4: Constructor<E4> | CatchFilter<E4>, filter5: Constructor<E5> | CatchFilter<E5>, onReject: (error: E1 | E2 | E3 | E4 | E5) => Resolvable<U>, ): Bluebird<U | R>; catch<U, E1, E2, E3, E4>( filter1: Constructor<E1>, filter2: Constructor<E2>, filter3: Constructor<E3>, filter4: Constructor<E4>, onReject: (error: E1 | E2 | E3 | E4) => Resolvable<U>, ): Bluebird<U | R>; catch<U, E1, E2, E3, E4>( filter1: Constructor<E1> | CatchFilter<E1>, filter2: Constructor<E2> | CatchFilter<E2>, filter3: Constructor<E3> | CatchFilter<E3>, filter4: Constructor<E4> | CatchFilter<E4>, onReject: (error: E1 | E2 | E3 | E4) => Resolvable<U>, ): Bluebird<U | R>; catch<U, E1, E2, E3>( filter1: Constructor<E1>, filter2: Constructor<E2>, filter3: Constructor<E3>, onReject: (error: E1 | E2 | E3) => Resolvable<U>, ): Bluebird<U | R>; catch<U, E1, E2, E3>( filter1: Constructor<E1> | CatchFilter<E1>, filter2: Constructor<E2> | CatchFilter<E2>, filter3: Constructor<E3> | CatchFilter<E3>, onReject: (error: E1 | E2 | E3) => Resolvable<U>, ): Bluebird<U | R>; catch<U, E1, E2>( filter1: Constructor<E1>, filter2: Constructor<E2>, onReject: (error: E1 | E2) => Resolvable<U>, ): Bluebird<U | R>; catch<U, E1, E2>( filter1: Constructor<E1> | CatchFilter<E1>, filter2: Constructor<E2> | CatchFilter<E2>, onReject: (error: E1 | E2) => Resolvable<U>, ): Bluebird<U | R>; catch<U, E1>( filter1: Constructor<E1>, onReject: (error: E1) => Resolvable<U>, ): Bluebird<U | R>; catch<U, E1>( // tslint:disable-next-line:unified-signatures filter1: Constructor<E1> | CatchFilter<E1>, onReject: (error: E1) => Resolvable<U>, ): Bluebird<U | R>; /** * This is a catch-all exception handler, shortcut for calling `.then(null, handler)` on this promise. * * Any exception happening in a `.then`-chain will propagate to nearest `.catch` handler. * * Alias `.caught();` for compatibility with earlier ECMAScript version. */ caught: Bluebird<R>["catch"]; /** * Like `.catch` but instead of catching all types of exceptions, * it only catches those that don't originate from thrown errors but rather from explicit rejections. */ error<U>(onReject: (reason: any) => Resolvable<U>): Bluebird<U>; /** * Pass a handler that will be called regardless of this promise's fate. Returns a new promise chained from this promise. * * There are special semantics for `.finally()` in that the final value cannot be modified from the handler. * * Alias `.lastly();` for compatibility with earlier ECMAScript version. */ finally(handler: () => Resolvable<any>): Bluebird<R>; lastly: Bluebird<R>["finally"]; /** * Create a promise that follows this promise, but is bound to the given `thisArg` value. * A bound promise will call its handlers with the bound value set to `this`. * * Additionally promises derived from a bound promise will also be bound promises with the same `thisArg` binding as the original promise. */ bind(thisArg: any): Bluebird<R>; /** * Like `.then()`, but any unhandled rejection that ends up here will be thrown as an error. */ done<U>(onFulfilled?: (value: R) => Resolvable<U>, onRejected?: (error: any) => Resolvable<U>): void; /** * Like `.finally()`, but not called for rejections. */ tap(onFulFill: (value: R) => Resolvable<any>): Bluebird<R>; /** * Like `.catch()` but rethrows the error */ tapCatch(onReject: (error?: any) => Resolvable<any>): Bluebird<R>; tapCatch<E1, E2, E3, E4, E5>( filter1: Constructor<E1>, filter2: Constructor<E2>, filter3: Constructor<E3>, filter4: Constructor<E4>, filter5: Constructor<E5>, onReject: (error: E1 | E2 | E3 | E4 | E5) => Resolvable<any>, ): Bluebird<R>; tapCatch<E1, E2, E3, E4, E5>( filter1: Constructor<E1> | CatchFilter<E1>, filter2: Constructor<E2> | CatchFilter<E2>, filter3: Constructor<E3> | CatchFilter<E3>, filter4: Constructor<E4> | CatchFilter<E4>, filter5: Constructor<E5> | CatchFilter<E5>, onReject: (error: E1 | E2 | E3 | E4 | E5) => Resolvable<any>, ): Bluebird<R>; tapCatch<E1, E2, E3, E4>( filter1: Constructor<E1>, filter2: Constructor<E2>, filter3: Constructor<E3>, filter4: Constructor<E4>, onReject: (error: E1 | E2 | E3 | E4) => Resolvable<any>, ): Bluebird<R>; tapCatch<E1, E2, E3, E4>( filter1: Constructor<E1> | CatchFilter<E1>, filter2: Constructor<E2> | CatchFilter<E2>, filter3: Constructor<E3> | CatchFilter<E3>, filter4: Constructor<E4> | CatchFilter<E4>, onReject: (error: E1 | E2 | E3 | E4) => Resolvable<any>, ): Bluebird<R>; tapCatch<E1, E2, E3>( filter1: Constructor<E1>, filter2: Constructor<E2>, filter3: Constructor<E3>, onReject: (error: E1 | E2 | E3) => Resolvable<any>, ): Bluebird<R>; tapCatch<E1, E2, E3>( filter1: Constructor<E1> | CatchFilter<E1>, filter2: Constructor<E2> | CatchFilter<E2>, filter3: Constructor<E3> | CatchFilter<E3>, onReject: (error: E1 | E2 | E3) => Resolvable<any>, ): Bluebird<R>; tapCatch<E1, E2>( filter1: Constructor<E1>, filter2: Constructor<E2>, onReject: (error: E1 | E2) => Resolvable<any>, ): Bluebird<R>; tapCatch<E1, E2>( filter1: Constructor<E1> | CatchFilter<E1>, filter2: Constructor<E2> | CatchFilter<E2>, onReject: (error: E1 | E2) => Resolvable<any>, ): Bluebird<R>; tapCatch<E1>( filter1: Constructor<E1>, onReject: (error: E1) => Resolvable<any>, ): Bluebird<R>; tapCatch<E1>( // tslint:disable-next-line:unified-signatures filter1: Constructor<E1> | CatchFilter<E1>, onReject: (error: E1) => Resolvable<any>, ): Bluebird<R>; /** * Same as calling `Promise.delay(ms, this)`. */ delay(ms: number): Bluebird<R>; /** * Returns a promise that will be fulfilled with this promise's fulfillment value or rejection reason. * However, if this promise is not fulfilled or rejected within ms milliseconds, the returned promise * is rejected with a TimeoutError or the error as the reason. * * You may specify a custom error message with the `message` parameter. */ timeout(ms: number, message?: string | Error): Bluebird<R>; /** * Register a node-style callback on this promise. * * When this promise is is either fulfilled or rejected, * the node callback will be called back with the node.js convention * where error reason is the first argument and success value is the second argument. * * The error argument will be `null` in case of success. * If the `callback` argument is not a function, this method does not do anything. */ nodeify(callback: (err: any, value?: R) => void, options?: Bluebird.SpreadOption): this; nodeify(...sink: any[]): this; asCallback(callback: (err: any, value?: R) => void, options?: Bluebird.SpreadOption): this; asCallback(...sink: any[]): this; /** * See if this `promise` has been fulfilled. */ isFulfilled(): boolean; /** * See if this `promise` has been rejected. */ isRejected(): boolean; /** * See if this `promise` is still defer. */ isPending(): boolean; /** * See if this `promise` has been cancelled. */ isCancelled(): boolean; /** * See if this `promise` is resolved -> either fulfilled or rejected. */ isResolved(): boolean; /** * Get the fulfillment value of the underlying promise. Throws if the promise isn't fulfilled yet. * * throws `TypeError` */ value(): R; /** * Get the rejection reason for the underlying promise. Throws if the promise isn't rejected yet. * * throws `TypeError` */ reason(): any; /** * Synchronously inspect the state of this `promise`. The `PromiseInspection` will represent the state of * the promise as snapshotted at the time of calling `.reflect()`. */ reflect(): Bluebird<Bluebird.Inspection<R>>; /** * This is a convenience method for doing: * * <code> * promise.then(function(obj){ * return obj[propertyName].call(obj, arg...); * }); * </code> */ call<U extends keyof Q, Q>(this: Bluebird<Q>, propertyName: U, ...args: any[]): Bluebird<Q[U] extends (...args: any[]) => any ? ReturnType<Q[U]> : never>; /** * This is a convenience method for doing: * * <code> * promise.then(function(obj){ * return obj[propertyName]; * }); * </code> */ get<U extends keyof R>(key: U): Bluebird<R[U]>; /** * Convenience method for: * * <code> * .then(function() { * return value; * }); * </code> * * in the case where `value` doesn't change its value. That means `value` is bound at the time of calling `.return()` * * Alias `.thenReturn();` for compatibility with earlier ECMAScript version. */ return(): Bluebird<void>; return<U>(value: U): Bluebird<U>; thenReturn(): Bluebird<void>; thenReturn<U>(value: U): Bluebird<U>; /** * Convenience method for: * * <code> * .then(function() { * throw reason; * }); * </code> * Same limitations apply as with `.return()`. * * Alias `.thenThrow();` for compatibility with earlier ECMAScript version. */ throw(reason: Error): Bluebird<never>; thenThrow(reason: Error): Bluebird<never>; /** * Convenience method for: * * <code> * .catch(function() { * return value; * }); * </code> * * in the case where `value` doesn't change its value. That means `value` is bound at the time of calling `.catchReturn()` */ catchReturn<U>(value: U): Bluebird<R | U>; // No need to be specific about Error types in these overrides, since there's no handler function catchReturn<U>( filter1: Constructor<Error>, filter2: Constructor<Error>, filter3: Constructor<Error>, filter4: Constructor<Error>, filter5: Constructor<Error>, value: U, ): Bluebird<R | U>; catchReturn<U>( filter1: Constructor<Error> | CatchFilter<Error>, filter2: Constructor<Error> | CatchFilter<Error>, filter3: Constructor<Error> | CatchFilter<Error>, filter4: Constructor<Error> | CatchFilter<Error>, filter5: Constructor<Error> | CatchFilter<Error>, value: U, ): Bluebird<R | U>; catchReturn<U>( filter1: Constructor<Error>, filter2: Constructor<Error>, filter3: Constructor<Error>, filter4: Constructor<Error>, value: U, ): Bluebird<R | U>; catchReturn<U>( filter1: Constructor<Error> | CatchFilter<Error>, filter2: Constructor<Error> | CatchFilter<Error>, filter3: Constructor<Error> | CatchFilter<Error>, filter4: Constructor<Error> | CatchFilter<Error>, value: U, ): Bluebird<R | U>; catchReturn<U>( filter1: Constructor<Error>, filter2: Constructor<Error>, filter3: Constructor<Error>, value: U, ): Bluebird<R | U>; catchReturn<U>( filter1: Constructor<Error> | CatchFilter<Error>, filter2: Constructor<Error> | CatchFilter<Error>, filter3: Constructor<Error> | CatchFilter<Error>, value: U, ): Bluebird<R | U>; catchReturn<U>( filter1: Constructor<Error>, filter2: Constructor<Error>, value: U, ): Bluebird<R | U>; catchReturn<U>( filter1: Constructor<Error> | CatchFilter<Error>, filter2: Constructor<Error> | CatchFilter<Error>, value: U, ): Bluebird<R | U>; catchReturn<U>( filter1: Constructor<Error>, value: U, ): Bluebird<R | U>; catchReturn<U>( // tslint:disable-next-line:unified-signatures filter1: Constructor<Error> | CatchFilter<Error>, value: U, ): Bluebird<R | U>; /** * Convenience method for: * * <code> * .catch(function() { * throw reason; * }); * </code> * Same limitations apply as with `.catchReturn()`. */ catchThrow(reason: Error): Bluebird<R>; // No need to be specific about Error types in these overrides, since there's no handler function catchThrow( filter1: Constructor<Error>, filter2: Constructor<Error>, filter3: Constructor<Error>, filter4: Constructor<Error>, filter5: Constructor<Error>, reason: Error, ): Bluebird<R>; catchThrow( filter1: Constructor<Error> | CatchFilter<Error>, filter2: Constructor<Error> | CatchFilter<Error>, filter3: Constructor<Error> | CatchFilter<Error>, filter4: Constructor<Error> | CatchFilter<Error>, filter5: Constructor<Error> | CatchFilter<Error>, reason: Error, ): Bluebird<R>; catchThrow( filter1: Constructor<Error>, filter2: Constructor<Error>, filter3: Constructor<Error>, filter4: Constructor<Error>, reason: Error, ): Bluebird<R>; catchThrow( filter1: Constructor<Error> | CatchFilter<Error>, filter2: Constructor<Error> | CatchFilter<Error>, filter3: Constructor<Error> | CatchFilter<Error>, filter4: Constructor<Error> | CatchFilter<Error>, reason: Error, ): Bluebird<R>; catchThrow( filter1: Constructor<Error>, filter2: Constructor<Error>, filter3: Constructor<Error>, reason: Error, ): Bluebird<R>; catchThrow( filter1: Constructor<Error> | CatchFilter<Error>, filter2: Constructor<Error> | CatchFilter<Error>, filter3: Constructor<Error> | CatchFilter<Error>, reason: Error, ): Bluebird<R>; catchThrow( filter1: Constructor<Error>, filter2: Constructor<Error>, reason: Error, ): Bluebird<R>; catchThrow( filter1: Constructor<Error> | CatchFilter<Error>, filter2: Constructor<Error> | CatchFilter<Error>, reason: Error, ): Bluebird<R>; catchThrow( filter1: Constructor<Error>, reason: Error, ): Bluebird<R>; catchThrow( // tslint:disable-next-line:unified-signatures filter1: Constructor<Error> | CatchFilter<Error>, reason: Error, ): Bluebird<R>; /** * Convert to String. */ toString(): string; /** * This is implicitly called by `JSON.stringify` when serializing the object. Returns a serialized representation of the `Promise`. */ toJSON(): object; /** * Like calling `.then`, but the fulfillment value or rejection reason is assumed to be an array, which is flattened to the formal parameters of the handlers. */ spread<U, Q>(this: Bluebird<R & Iterable<Q>>, fulfilledHandler: (...values: Q[]) => Resolvable<U>): Bluebird<U>; /** * Same as calling `Promise.all(thisPromise)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ all<T1, T2, T3, T4, T5>(this: Bluebird<[Resolvable<T1>, Resolvable<T2>, Resolvable<T3>, Resolvable<T4>, Resolvable<T5>]>): Bluebird<[T1, T2, T3, T4, T5]>; all<T1, T2, T3, T4>(this: Bluebird<[Resolvable<T1>, Resolvable<T2>, Resolvable<T3>, Resolvable<T4>]>): Bluebird<[T1, T2, T3, T4]>; all<T1, T2, T3>(this: Bluebird<[Resolvable<T1>, Resolvable<T2>, Resolvable<T3>]>): Bluebird<[T1, T2, T3]>; all<T1, T2>(this: Bluebird<[Resolvable<T1>, Resolvable<T2>]>): Bluebird<[T1, T2]>; all<T1>(this: Bluebird<[Resolvable<T1>]>): Bluebird<[T1]>; all<R>(this: Bluebird<Iterable<Resolvable<R>>>): Bluebird<R[]>; /** * Same as calling `Promise.all(thisPromise)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ all(): Bluebird<never>; /** * Same as calling `Promise.props(thisPromise)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ props<K, V>(this: PromiseLike<Map<K, Resolvable<V>>>): Bluebird<Map<K, V>>; props<T>(this: PromiseLike<Bluebird.ResolvableProps<T>>): Bluebird<T>; /** * Same as calling `Promise.any(thisPromise)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ any<Q>(this: Bluebird<R & Iterable<Q>>): Bluebird<Q>; /** * Same as calling `Promise.any(thisPromise)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ any(): Bluebird<never>; /** * Same as calling `Promise.some(thisPromise)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. * Same as calling `Promise.some(thisPromise)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ some<Q>(this: Bluebird<R & Iterable<Q>>, count: number): Bluebird<R>; /** * Same as calling `Promise.some(thisPromise)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. * Same as calling `Promise.some(thisPromise)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ some(count: number): Bluebird<never>; /** * Same as calling `Promise.race(thisPromise, count)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ race<Q>(this: Bluebird<R & Iterable<Q>>): Bluebird<Q>; /** * Same as calling `Promise.race(thisPromise, count)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ race(): Bluebird<never>; /** * Same as calling `Bluebird.map(thisPromise, mapper)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ map<U, Q>(this: Bluebird<R & Iterable<Q>>, mapper: IterateFunction<Q, U>, options?: Bluebird.ConcurrencyOption): Bluebird<U[]>; /** * Same as calling `Promise.reduce(thisPromise, Function reducer, initialValue)`. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ reduce<U, Q>(this: Bluebird<R & Iterable<Q>>, reducer: (memo: U, item: Q, index: number, arrayLength: number) => Resolvable<U>, initialValue?: U): Bluebird<U>; /** * Same as calling ``Promise.filter(thisPromise, filterer)``. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ filter<Q>(this: Bluebird<R & Iterable<Q>>, filterer: IterateFunction<Q, boolean>, options?: Bluebird.ConcurrencyOption): Bluebird<R>; /** * Same as calling ``Bluebird.each(thisPromise, iterator)``. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ each<Q>(this: Bluebird<R & Iterable<Q>>, iterator: IterateFunction<Q, any>): Bluebird<R>; /** * Same as calling ``Bluebird.mapSeries(thisPromise, iterator)``. With the exception that if this promise is bound to a value, the returned promise is bound to that value too. */ mapSeries<U, Q>(this: Bluebird<R & Iterable<Q>>, iterator: IterateFunction<Q, U>): Bluebird<U[]>; /** * Cancel this `promise`. Will not do anything if this promise is already settled or if the cancellation feature has not been enabled */ cancel(): void; /** * Basically sugar for doing: somePromise.catch(function(){}); * * Which is needed in case error handlers are attached asynchronously to the promise later, which would otherwise result in premature unhandled rejection reporting. */ suppressUnhandledRejections(): void; /** * Start the chain of promises with `Promise.try`. Any synchronous exceptions will be turned into rejections on the returned promise. * * Note about second argument: if it's specifically a true array, its values become respective arguments for the function call. * Otherwise it is passed as is as the first argument for the function call. * * Alias for `attempt();` for compatibility with earlier ECMAScript version. */ static try<R>(fn: () => Resolvable<R>): Bluebird<R>; static attempt<R>(fn: () => Resolvable<R>): Bluebird<R>; /** * Returns a new function that wraps the given function `fn`. * The new function will always return a promise that is fulfilled with the original functions return values or rejected with thrown exceptions from the original function. * This method is convenient when a function can sometimes return synchronously or throw synchronously. */ static method<R>(fn: () => Resolvable<R>): () => Bluebird<R>; static method<R, A1>(fn: (arg1: A1) => Resolvable<R>): (arg1: A1) => Bluebird<R>; static method<R, A1, A2>(fn: (arg1: A1, arg2: A2) => Resolvable<R>): (arg1: A1, arg2: A2) => Bluebird<R>; static method<R, A1, A2, A3>(fn: (arg1: A1, arg2: A2, arg3: A3) => Resolvable<R>): (arg1: A1, arg2: A2, arg3: A3) => Bluebird<R>; static method<R, A1, A2, A3, A4>(fn: (arg1: A1, arg2: A2, arg3: A3, arg4: A4) => Resolvable<R>): (arg1: A1, arg2: A2, arg3: A3, arg4: A4) => Bluebird<R>; static method<R, A1, A2, A3, A4, A5>(fn: (arg1: A1, arg2: A2, arg3: A3, arg4: A4, arg5: A5) => Resolvable<R>): (arg1: A1, arg2: A2, arg3: A3, arg4: A4, arg5: A5) => Bluebird<R>; static method<R>(fn: (...args: any[]) => Resolvable<R>): (...args: any[]) => Bluebird<R>; /** * Create a promise that is resolved with the given `value`. If `value` is a thenable or promise, the returned promise will assume its state. */ static resolve(): Bluebird<void>; static resolve<R>(value: Resolvable<R>): Bluebird<R>; /** * Create a promise that is rejected with the given `reason`. */ static reject(reason: any): Bluebird<never>; /** * @deprecated * Create a promise with undecided fate and return a `PromiseResolver` to control it. See resolution?: Promise(#promise-resolution). * @see http://bluebirdjs.com/docs/deprecated-apis.html#promise-resolution */ static defer<R>(): Bluebird.Resolver<R>; /** * Cast the given `value` to a trusted promise. * * If `value` is already a trusted `Promise`, it is returned as is. If `value` is not a thenable, a fulfilled is: Promise returned with `value` as its fulfillment value. * If `value` is a thenable (Promise-like object, like those returned by jQuery's `$.ajax`), returns a trusted that: Promise assimilates the state of the thenable. */ static cast<R>(value: Resolvable<R>): Bluebird<R>; /** * Sugar for `Promise.resolve(undefined).bind(thisArg);`. See `.bind()`. */ static bind(thisArg: any): Bluebird<void>; /** * See if `value` is a trusted Promise. */ static is(value: any): boolean; /** * Call this right after the library is loaded to enabled long stack traces. * * Long stack traces cannot be disabled after being enabled, and cannot be enabled after promises have already been created. * Long stack traces imply a substantial performance penalty, around 4-5x for throughput and 0.5x for latency. */ static longStackTraces(): void; /** * Returns a promise that will be resolved with value (or undefined) after given ms milliseconds. * If value is a promise, the delay will start counting down when it is fulfilled and the returned * promise will be fulfilled with the fulfillment value of the value promise. */ static delay<R>(ms: number, value: Resolvable<R>): Bluebird<R>; static delay(ms: number): Bluebird<void>; /** * Returns a function that will wrap the given `nodeFunction`. * * Instead of taking a callback, the returned function will return a promise whose fate is decided by the callback behavior of the given node function. * The node function should conform to node.js convention of accepting a callback as last argument and * calling that callback with error as the first argument and success value on the second argument. * * If the `nodeFunction` calls its callback with multiple success values, the fulfillment value will be an array of them. * * If you pass a `receiver`, the `nodeFunction` will be called as a method on the `receiver`. */ static promisify<T>( func: (callback: (err: any, result?: T) => void) => void, options?: Bluebird.PromisifyOptions ): () => Bluebird<T>; static promisify<T, A1>( func: (arg1: A1, callback: (err: any, result?: T) => void) => void, options?: Bluebird.PromisifyOptions ): (arg1: A1) => Bluebird<T>; static promisify<T, A1, A2>( func: (arg1: A1, arg2: A2, callback: (err: any, result?: T) => void) => void, options?: Bluebird.PromisifyOptions ): (arg1: A1, arg2: A2) => Bluebird<T>; static promisify<T, A1, A2, A3>( func: (arg1: A1, arg2: A2, arg3: A3, callback: (err: any, result?: T) => void) => void, options?: Bluebird.PromisifyOptions ): (arg1: A1, arg2: A2, arg3: A3) => Bluebird<T>; static promisify<T, A1, A2, A3, A4>( func: (arg1: A1, arg2: A2, arg3: A3, arg4: A4, callback: (err: any, result?: T) => void) => void, options?: Bluebird.PromisifyOptions ): (arg1: A1, arg2: A2, arg3: A3, arg4: A4) => Bluebird<T>; static promisify<T, A1, A2, A3, A4, A5>( func: (arg1: A1, arg2: A2, arg3: A3, arg4: A4, arg5: A5, callback: (err: any, result?: T) => void) => void, options?: Bluebird.PromisifyOptions ): (arg1: A1, arg2: A2, arg3: A3, arg4: A4, arg5: A5) => Bluebird<T>; static promisify(nodeFunction: (...args: any[]) => void, options?: Bluebird.PromisifyOptions): (...args: any[]) => Bluebird<any>; /** * Promisifies the entire object by going through the object's properties and creating an async equivalent of each function on the object and its prototype chain. * * The promisified method name will be the original method name postfixed with `Async`. Returns the input object. * * Note that the original methods on the object are not overwritten but new methods are created with the `Async`-postfix. For example, * if you `promisifyAll()` the node.js `fs` object use `fs.statAsync()` to call the promisified `stat` method. */ // TODO how to model promisifyAll? static promisifyAll<T extends object>(target: T, options?: Bluebird.PromisifyAllOptions<T>): T; /** * Returns a promise that is resolved by a node style callback function. */ static fromNode<T>(resolver: (callback: (err: any, result?: T) => void) => void, options?: Bluebird.FromNodeOptions): Bluebird<T>; static fromCallback<T>(resolver: (callback: (err: any, result?: T) => void) => void, options?: Bluebird.FromNodeOptions): Bluebird<T>; /** * Returns a function that can use `yield` to run asynchronous code synchronously. * * This feature requires the support of generators which are drafted in the next version of the language. * Node version greater than `0.11.2` is required and needs to be executed with the `--harmony-generators` (or `--harmony`) command-line switch. */ // TODO: After https://github.com/Microsoft/TypeScript/issues/2983 is implemented, we can use // the return type propagation of generators to automatically infer the return type T. static coroutine<T>( generatorFunction: () => IterableIterator<any>, options?: Bluebird.CoroutineOptions ): () => Bluebird<T>; static coroutine<T, A1>( generatorFunction: (a1: A1) => IterableIterator<any>, options?: Bluebird.CoroutineOptions ): (a1: A1) => Bluebird<T>; static coroutine<T, A1, A2>( generatorFunction: (a1: A1, a2: A2) => IterableIterator<any>, options?: Bluebird.CoroutineOptions ): (a1: A1, a2: A2) => Bluebird<T>; static coroutine<T, A1, A2, A3>( generatorFunction: (a1: A1, a2: A2, a3: A3) => IterableIterator<any>, options?: Bluebird.CoroutineOptions ): (a1: A1, a2: A2, a3: A3) => Bluebird<T>; static coroutine<T, A1, A2, A3, A4>( generatorFunction: (a1: A1, a2: A2, a3: A3, a4: A4) => IterableIterator<any>, options?: Bluebird.CoroutineOptions ): (a1: A1, a2: A2, a3: A3, a4: A4) => Bluebird<T>; static coroutine<T, A1, A2, A3, A4, A5>( generatorFunction: (a1: A1, a2: A2, a3: A3, a4: A4, a5: A5) => IterableIterator<any>, options?: Bluebird.CoroutineOptions ): (a1: A1, a2: A2, a3: A3, a4: A4, a5: A5) => Bluebird<T>; static coroutine<T, A1, A2, A3, A4, A5, A6>( generatorFunction: (a1: A1, a2: A2, a3: A3, a4: A4, a5: A5, a6: A6) => IterableIterator<any>, options?: Bluebird.CoroutineOptions ): (a1: A1, a2: A2, a3: A3, a4: A4, a5: A5, a6: A6) => Bluebird<T>; static coroutine<T, A1, A2, A3, A4, A5, A6, A7>( generatorFunction: (a1: A1, a2: A2, a3: A3, a4: A4, a5: A5, a6: A6, a7: A7) => IterableIterator<any>, options?: Bluebird.CoroutineOptions ): (a1: A1, a2: A2, a3: A3, a4: A4, a5: A5, a6: A6, a7: A7) => Bluebird<T>; static coroutine<T, A1, A2, A3, A4, A5, A6, A7, A8>( generatorFunction: (a1: A1, a2: A2, a3: A3, a4: A4, a5: A5, a6: A6, a7: A7, a8: A8) => IterableIterator<any>, options?: Bluebird.CoroutineOptions ): (a1: A1, a2: A2, a3: A3, a4: A4, a5: A5, a6: A6, a7: A7, a8: A8) => Bluebird<T>; /** * Add `handler` as the handler to call when there is a possibly unhandled rejection. The default handler logs the error stack to stderr or `console.error` in browsers. * * Passing no value or a non-function will have the effect of removing any kind of handling for possibly unhandled rejections. */ static onPossiblyUnhandledRejection(handler: (reason: any) => any): void; /** * Add handler as the handler to call when there is a possibly unhandled rejection. * The default handler logs the error stack to stderr or console.error in browsers. * * Passing no value or a non-function will have the effect of removing any kind of handling for possibly unhandled rejections. * * Note: this hook is specific to the bluebird instance its called on, application developers should use global rejection events. */ static onPossiblyUnhandledRejection(handler?: (error: Error, promise: Bluebird<any>) => void): void; /** * Given an array, or a promise of an array, which contains promises (or a mix of promises and values) return a promise that is fulfilled when all the items in the array are fulfilled. * The promise's fulfillment value is an array with fulfillment values at respective positions to the original array. * If any promise in the array rejects, the returned promise is rejected with the rejection reason. */ // TODO enable more overloads // array with promises of different types static all<T1, T2, T3, T4, T5>(values: [Resolvable<T1>, Resolvable<T2>, Resolvable<T3>, Resolvable<T4>, Resolvable<T5>]): Bluebird<[T1, T2, T3, T4, T5]>; static all<T1, T2, T3, T4>(values: [Resolvable<T1>, Resolvable<T2>, Resolvable<T3>, Resolvable<T4>]): Bluebird<[T1, T2, T3, T4]>; static all<T1, T2, T3>(values: [Resolvable<T1>, Resolvable<T2>, Resolvable<T3>]): Bluebird<[T1, T2, T3]>; static all<T1, T2>(values: [Resolvable<T1>, Resolvable<T2>]): Bluebird<[T1, T2]>; static all<T1>(values: [Resolvable<T1>]): Bluebird<[T1]>; // array with values static all<R>(values: Resolvable<Iterable<Resolvable<R>>>): Bluebird<R[]>; static allSettled<T1, T2, T3, T4, T5>(values: [Resolvable<T1>, Resolvable<T2>, Resolvable<T3>, Resolvable<T4>, Resolvable<T5>]): Bluebird<[Bluebird.Inspection<T1>, Bluebird.Inspection<T2>, Bluebird.Inspection<T3>, Bluebird.Inspection<T4>, Bluebird.Inspection<T5>]>; static allSettled<T1, T2, T3, T4>(values: [Resolvable<T1>, Resolvable<T2>, Resolvable<T3>, Resolvable<T4>]): Bluebird<[Bluebird.Inspection<T1>, Bluebird.Inspection<T2>, Bluebird.Inspection<T3>, Bluebird.Inspection<T4>]>; static allSettled<T1, T2, T3>(values: [Resolvable<T1>, Resolvable<T2>, Resolvable<T3>]): Bluebird<[Bluebird.Inspection<T1>, Bluebird.Inspection<T2>, Bluebird.Inspection<T3>]>; static allSettled<T1, T2>(values: [Resolvable<T1>, Resolvable<T2>]): Bluebird<[Bluebird.Inspection<T1>, Bluebird.Inspection<T2>]>; static allSettled<T1>(values: [Resolvable<T1>]): Bluebird<[Bluebird.Inspection<T1>]>; static allSettled<R>(values: Resolvable<Iterable<Resolvable<R>>>): Bluebird<Array<Bluebird.Inspection<R>>>; /** * Like ``Promise.all`` but for object properties instead of array items. Returns a promise that is fulfilled when all the properties of the object are fulfilled. * * The promise's fulfillment value is an object with fulfillment values at respective keys to the original object. * If any promise in the object rejects, the returned promise is rejected with the rejection reason. * * If `object` is a trusted `Promise`, then it will be treated as a promise for object rather than for its properties. * All other objects are treated for their properties as is returned by `Object.keys` - the object's own enumerable properties. * * *The original object is not modified.* */ // map static props<K, V>(map: Resolvable<Map<K, Resolvable<V>>>): Bluebird<Map<K, V>>; // trusted promise for object static props<T>(object: PromiseLike<Bluebird.ResolvableProps<T>>): Bluebird<T>; // object static props<T>(object: Bluebird.ResolvableProps<T>): Bluebird<T>; // tslint:disable-line:unified-signatures /** * Like `Promise.some()`, with 1 as `count`. However, if the promise fulfills, the fulfillment value is not an array of 1 but the value directly. */ static any<R>(values: Resolvable<Iterable<Resolvable<R>>>): Bluebird<R>; /** * Given an array, or a promise of an array, which contains promises (or a mix of promises and values) return a promise that is * fulfilled or rejected as soon as a promise in the array is fulfilled or rejected with the respective rejection reason or fulfillment value. * * **Note** If you pass empty array or a sparse array with no values, or a promise/thenable for such, it will be forever pending. */ static race<R>(values: Resolvable<Iterable<Resolvable<R>>>): Bluebird<R>; /** * Initiate a competitive race between multiple promises or values (values will become immediately fulfilled promises). * When `count` amount of promises have been fulfilled, the returned promise is fulfilled with an array that contains the fulfillment values of * the winners in order of resolution. * * If too many promises are rejected so that the promise can never become fulfilled, * it will be immediately rejected with an array of rejection reasons in the order they were thrown in. * * *The original array is not modified.* */ static some<R>(values: Resolvable<Iterable<Resolvable<R>>>, count: number): Bluebird<R[]>; /** * Promise.join( * Promise<any>|any values..., * function handler * ) -> Promise * For coordinating multiple concurrent discrete promises. * * Note: In 1.x and 0.x Promise.join used to be a Promise.all that took the values in as arguments instead in an array. * This behavior has been deprecated but is still supported partially - when the last argument is an immediate function value the new semantics will apply */ static join<R, A1>( arg1: Resolvable<A1>, handler: (arg1: A1) => Resolvable<R> ): Bluebird<R>; static join<R, A1, A2>( arg1: Resolvable<A1>, arg2: Resolvable<A2>, handler: (arg1: A1, arg2: A2) => Resolvable<R> ): Bluebird<R>; static join<R, A1, A2, A3>( arg1: Resolvable<A1>, arg2: Resolvable<A2>, arg3: Resolvable<A3>, handler: (arg1: A1, arg2: A2, arg3: A3) => Resolvable<R> ): Bluebird<R>; static join<R, A1, A2, A3, A4>( arg1: Resolvable<A1>, arg2: Resolvable<A2>, arg3: Resolvable<A3>, arg4: Resolvable<A4>, handler: (arg1: A1, arg2: A2, arg3: A3, arg4: A4) => Resolvable<R> ): Bluebird<R>; static join<R, A1, A2, A3, A4, A5>( arg1: Resolvable<A1>, arg2: Resolvable<A2>, arg3: Resolvable<A3>, arg4: Resolvable<A4>, arg5: Resolvable<A5>, handler: (arg1: A1, arg2: A2, arg3: A3, arg4: A4, arg5: A5) => Resolvable<R> ): Bluebird<R>; // variadic array /** @deprecated use .all instead */ static join<R>(...values: Array<Resolvable<R>>): Bluebird<R[]>; /** * Map an array, or a promise of an array, * which contains a promises (or a mix of promises and values) with the given `mapper` function with the signature `(item, index, arrayLength)` * where `item` is the resolved value of a respective promise in the input array. * If any promise in the input array is rejected the returned promise is rejected as well. * * If the `mapper` function returns promises or thenables, the returned promise will wait for all the mapped results to be resolved as well. * * *The original array is not modified.* */ static map<R, U>( values: Resolvable<Iterable<Resolvable<R>>>, mapper: IterateFunction<R, U>, options?: Bluebird.ConcurrencyOption ): Bluebird<U[]>; /** * Reduce an array, or a promise of an array, * which contains a promises (or a mix of promises and values) with the given `reducer` function with the signature `(total, current, index, arrayLength)` * where `item` is the resolved value of a respective promise in the input array. * If any promise in the input array is rejected the returned promise is rejected as well. * * If the reducer function returns a promise or a thenable, the result for the promise is awaited for before continuing with next iteration. * * *The original array is not modified. If no `initialValue` is given and the array doesn't contain at least 2 items, * the callback will not be called and `undefined` is returned. * * If `initialValue` is given and the array doesn't have at least 1 item, `initialValue` is returned.* */ static reduce<R, U>( values: Resolvable<Iterable<Resolvable<R>>>, reducer: (total: U, current: R, index: number, arrayLength: number) => Resolvable<U>, initialValue?: U ): Bluebird<U>; /** * Filter an array, or a promise of an array, * which contains a promises (or a mix of promises and values) with the given `filterer` function with the signature `(item, index, arrayLength)` * where `item` is the resolved value of a respective promise in the input array. * If any promise in the input array is rejected the returned promise is rejected as well. * * The return values from the filtered functions are coerced to booleans, with the exception of promises and thenables which are awaited for their eventual result. * * *The original array is not modified. */ static filter<R>( values: Resolvable<Iterable<Resolvable<R>>>, filterer: IterateFunction<R, boolean>, option?: Bluebird.ConcurrencyOption ): Bluebird<R[]>; /** * Iterate over an array, or a promise of an array, * which contains promises (or a mix of promises and values) with the given iterator function with the signature `(item, index, value)` * where item is the resolved value of a respective promise in the input array. * Iteration happens serially. If any promise in the input array is rejected the returned promise is rejected as well. * * Resolves to the original array unmodified, this method is meant to be used for side effects. * If the iterator function returns a promise or a thenable, the result for the promise is awaited for before continuing with next iteration. */ static each<R>( values: Resolvable<Iterable<Resolvable<R>>>, iterator: IterateFunction<R, any> ): Bluebird<R[]>; /** * Given an Iterable(arrays are Iterable), or a promise of an Iterable, which produces promises (or a mix of promises and values), * iterate over all the values in the Iterable into an array and iterate over the array serially, in-order. * * Returns a promise for an array that contains the values returned by the iterator function in their respective positions. * The iterator won't be called for an item until its previous item, and the promise returned by the iterator for that item are fulfilled. * This results in a mapSeries kind of utility but it can also be used simply as a side effect iterator similar to Array#forEach. * * If any promise in the input array is rejected or any promise returned by the iterator function is rejected, the result will be rejected as well. */ static mapSeries<R, U>( values: Resolvable<Iterable<Resolvable<R>>>, iterator: IterateFunction<R, U> ): Bluebird<U[]>; /** * A meta method used to specify the disposer method that cleans up a resource when using `Promise.using`. * * Returns a Disposer object which encapsulates both the resource as well as the method to clean it up. * The user can pass this object to `Promise.using` to get access to the resource when it becomes available, * as well as to ensure its automatically cleaned up. * * The second argument passed to a disposer is the result promise of the using block, which you can * inspect synchronously. */ disposer(disposeFn: (arg: R, promise: Bluebird<R>) => Resolvable<void>): Bluebird.Disposer<R>; /** * In conjunction with `.disposer`, using will make sure that no matter what, the specified disposer * will be called when the promise returned by the callback passed to using has settled. The disposer is * necessary because there is no standard interface in node for disposing resources. */ static using<R, T>( disposer: Bluebird.Disposer<R>, executor: (transaction: R) => PromiseLike<T> ): Bluebird<T>; static using<R1, R2, T>( disposer: Bluebird.Disposer<R1>, disposer2: Bluebird.Disposer<R2>, executor: (transaction1: R1, transaction2: R2 ) => PromiseLike<T>): Bluebird<T>; static using<R1, R2, R3, T>( disposer: Bluebird.Disposer<R1>, disposer2: Bluebird.Disposer<R2>, disposer3: Bluebird.Disposer<R3>, executor: (transaction1: R1, transaction2: R2, transaction3: R3) => PromiseLike<T> ): Bluebird<T>; /** * Configure long stack traces, warnings, monitoring and cancellation. * Note that even though false is the default here, a development environment might be detected which automatically * enables long stack traces and warnings. */ static config(options: { /** Enable warnings */ warnings?: boolean | { /** Enables all warnings except forgotten return statements. */ wForgottenReturn: boolean; }; /** Enable long stack traces */ longStackTraces?: boolean; /** Enable cancellation */ cancellation?: boolean; /** Enable monitoring */ monitoring?: boolean; }): void; /** * Create a new promise. The passed in function will receive functions `resolve` and `reject` as its arguments which can be called to seal the fate of the created promise. * If promise cancellation is enabled, passed in function will receive one more function argument `onCancel` that allows to register an optional cancellation callback. */ static Promise: typeof Bluebird; /** * The version number of the library */ static version: string; } declare namespace Bluebird { interface ConcurrencyOption { concurrency: number; } interface SpreadOption { spread: boolean; } interface FromNodeOptions { multiArgs?: boolean; } interface PromisifyOptions { context?: any; multiArgs?: boolean; } interface PromisifyAllOptions<T> extends PromisifyOptions { suffix?: string; filter?(name: string, func: (...args: any[]) => any, target?: any, passesDefaultFilter?: boolean): boolean; // The promisifier gets a reference to the original method and should return a function which returns a promise promisifier?(this: T, originalMethod: (...args: any[]) => any, defaultPromisifer: (...args: any[]) => (...args: any[]) => Bluebird<any>): () => PromiseLike<any>; } interface CoroutineOptions { yieldHandler(value: any): any; } /** * Represents an error is an explicit promise rejection as opposed to a thrown error. * For example, if an error is errbacked by a callback API promisified through undefined or undefined * and is not a typed error, it will be converted to a `OperationalError` which has the original error in * the `.cause` property. * * `OperationalError`s are caught in `.error` handlers. */ class OperationalError extends Error { } /** * Signals that an operation has timed out. Used as a custom cancellation reason in `.timeout`. */ class TimeoutError extends Error { } /** * Signals that an operation has been aborted or cancelled. The default reason used by `.cancel`. */ class CancellationError extends Error { } /** * A collection of errors. `AggregateError` is an array-like object, with numeric indices and a `.length` property. * It supports all generic array methods such as `.forEach` directly. * * `AggregateError`s are caught in `.error` handlers, even if the contained errors are not operational. * * `Promise.some` and `Promise.any` use `AggregateError` as rejection reason when they fail. */ class AggregateError extends Error implements ArrayLike<Error> { length: number; [index: number]: Error; join(separator?: string): string; pop(): Error; push(...