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File: /var/www/vhost/disk-apps/pwa.sports-crowd.com/node_modules/piscina/dist/src/index.js
"use strict";
var __classPrivateFieldSet = (this && this.__classPrivateFieldSet) || function (receiver, state, value, kind, f) {
    if (kind === "m") throw new TypeError("Private method is not writable");
    if (kind === "a" && !f) throw new TypeError("Private accessor was defined without a setter");
    if (typeof state === "function" ? receiver !== state || !f : !state.has(receiver)) throw new TypeError("Cannot write private member to an object whose class did not declare it");
    return (kind === "a" ? f.call(receiver, value) : f ? f.value = value : state.set(receiver, value)), value;
};
var __classPrivateFieldGet = (this && this.__classPrivateFieldGet) || function (receiver, state, kind, f) {
    if (kind === "a" && !f) throw new TypeError("Private accessor was defined without a getter");
    if (typeof state === "function" ? receiver !== state || !f : !state.has(receiver)) throw new TypeError("Cannot read private member from an object whose class did not declare it");
    return kind === "m" ? f : kind === "a" ? f.call(receiver) : f ? f.value : state.get(receiver);
};
var __importDefault = (this && this.__importDefault) || function (mod) {
    return (mod && mod.__esModule) ? mod : { "default": mod };
};
var _DirectlyTransferable_value, _ArrayBufferViewTransferable_view, _Piscina_pool;
const worker_threads_1 = require("worker_threads");
const events_1 = require("events");
const eventemitter_asyncresource_1 = __importDefault(require("eventemitter-asyncresource"));
const async_hooks_1 = require("async_hooks");
const os_1 = require("os");
const url_1 = require("url");
const path_1 = require("path");
const util_1 = require("util");
const assert_1 = __importDefault(require("assert"));
const hdr_histogram_js_1 = require("hdr-histogram-js");
const perf_hooks_1 = require("perf_hooks");
const hdr_histogram_percentiles_obj_1 = __importDefault(require("hdr-histogram-percentiles-obj"));
const common_1 = require("./common");
const package_json_1 = require("../package.json");
const cpuCount = (() => {
    try {
        return os_1.cpus().length;
    }
    catch {
        /* istanbul ignore next */
        return 1;
    }
})();
;
function onabort(abortSignal, listener) {
    if ('addEventListener' in abortSignal) {
        abortSignal.addEventListener('abort', listener, { once: true });
    }
    else {
        abortSignal.once('abort', listener);
    }
}
class AbortError extends Error {
    constructor() {
        super('The task has been aborted');
    }
    get name() { return 'AbortError'; }
}
class ArrayTaskQueue {
    constructor() {
        this.tasks = [];
    }
    get size() { return this.tasks.length; }
    shift() {
        return this.tasks.shift();
    }
    push(task) {
        this.tasks.push(task);
    }
    remove(task) {
        const index = this.tasks.indexOf(task);
        assert_1.default.notStrictEqual(index, -1);
        this.tasks.splice(index, 1);
    }
}
const kDefaultOptions = {
    filename: null,
    name: 'default',
    minThreads: Math.max(cpuCount / 2, 1),
    maxThreads: cpuCount * 1.5,
    idleTimeout: 0,
    maxQueue: Infinity,
    concurrentTasksPerWorker: 1,
    useAtomics: true,
    taskQueue: new ArrayTaskQueue(),
    niceIncrement: 0,
    trackUnmanagedFds: true
};
const kDefaultRunOptions = {
    transferList: undefined,
    filename: null,
    signal: null,
    name: null
};
class DirectlyTransferable {
    constructor(value) {
        _DirectlyTransferable_value.set(this, void 0);
        __classPrivateFieldSet(this, _DirectlyTransferable_value, value, "f");
    }
    get [(_DirectlyTransferable_value = new WeakMap(), common_1.kTransferable)]() { return __classPrivateFieldGet(this, _DirectlyTransferable_value, "f"); }
    get [common_1.kValue]() { return __classPrivateFieldGet(this, _DirectlyTransferable_value, "f"); }
}
class ArrayBufferViewTransferable {
    constructor(view) {
        _ArrayBufferViewTransferable_view.set(this, void 0);
        __classPrivateFieldSet(this, _ArrayBufferViewTransferable_view, view, "f");
    }
    get [(_ArrayBufferViewTransferable_view = new WeakMap(), common_1.kTransferable)]() { return __classPrivateFieldGet(this, _ArrayBufferViewTransferable_view, "f").buffer; }
    get [common_1.kValue]() { return __classPrivateFieldGet(this, _ArrayBufferViewTransferable_view, "f"); }
}
let taskIdCounter = 0;
function maybeFileURLToPath(filename) {
    return filename.startsWith('file:')
        ? url_1.fileURLToPath(new url_1.URL(filename))
        : filename;
}
// Extend AsyncResource so that async relations between posting a task and
// receiving its result are visible to diagnostic tools.
class TaskInfo extends async_hooks_1.AsyncResource {
    constructor(task, transferList, filename, name, callback, abortSignal, triggerAsyncId) {
        super('Piscina.Task', { requireManualDestroy: true, triggerAsyncId });
        this.abortListener = null;
        this.workerInfo = null;
        this.callback = callback;
        this.task = task;
        this.transferList = transferList;
        // If the task is a Transferable returned by
        // Piscina.move(), then add it to the transferList
        // automatically
        if (common_1.isMovable(task)) {
            // This condition should never be hit but typescript
            // complains if we dont do the check.
            /* istanbul ignore if */
            if (this.transferList == null) {
                this.transferList = [];
            }
            this.transferList =
                this.transferList.concat(task[common_1.kTransferable]);
            this.task = task[common_1.kValue];
        }
        this.filename = filename;
        this.name = name;
        this.taskId = taskIdCounter++;
        this.abortSignal = abortSignal;
        this.created = perf_hooks_1.performance.now();
        this.started = 0;
    }
    releaseTask() {
        const ret = this.task;
        this.task = null;
        return ret;
    }
    done(err, result) {
        this.runInAsyncScope(this.callback, null, err, result);
        this.emitDestroy(); // `TaskInfo`s are used only once.
        // If an abort signal was used, remove the listener from it when
        // done to make sure we do not accidentally leak.
        if (this.abortSignal && this.abortListener) {
            if ('removeEventListener' in this.abortSignal && this.abortListener) {
                this.abortSignal.removeEventListener('abort', this.abortListener);
            }
            else {
                this.abortSignal.off('abort', this.abortListener);
            }
        }
    }
    get [common_1.kQueueOptions]() {
        return common_1.kQueueOptions in this.task ? this.task[common_1.kQueueOptions] : null;
    }
}
class AsynchronouslyCreatedResource {
    constructor() {
        this.onreadyListeners = [];
    }
    markAsReady() {
        const listeners = this.onreadyListeners;
        assert_1.default(listeners !== null);
        this.onreadyListeners = null;
        for (const listener of listeners) {
            listener();
        }
    }
    isReady() {
        return this.onreadyListeners === null;
    }
    onReady(fn) {
        if (this.onreadyListeners === null) {
            fn(); // Zalgo is okay here.
            return;
        }
        this.onreadyListeners.push(fn);
    }
}
class AsynchronouslyCreatedResourcePool {
    constructor(maximumUsage) {
        this.pendingItems = new Set();
        this.readyItems = new Set();
        this.maximumUsage = maximumUsage;
        this.onAvailableListeners = [];
    }
    add(item) {
        this.pendingItems.add(item);
        item.onReady(() => {
            /* istanbul ignore else */
            if (this.pendingItems.has(item)) {
                this.pendingItems.delete(item);
                this.readyItems.add(item);
                this.maybeAvailable(item);
            }
        });
    }
    delete(item) {
        this.pendingItems.delete(item);
        this.readyItems.delete(item);
    }
    findAvailable() {
        let minUsage = this.maximumUsage;
        let candidate = null;
        for (const item of this.readyItems) {
            const usage = item.currentUsage();
            if (usage === 0)
                return item;
            if (usage < minUsage) {
                candidate = item;
                minUsage = usage;
            }
        }
        return candidate;
    }
    *[Symbol.iterator]() {
        yield* this.pendingItems;
        yield* this.readyItems;
    }
    get size() {
        return this.pendingItems.size + this.readyItems.size;
    }
    maybeAvailable(item) {
        /* istanbul ignore else */
        if (item.currentUsage() < this.maximumUsage) {
            for (const listener of this.onAvailableListeners) {
                listener(item);
            }
        }
    }
    onAvailable(fn) {
        this.onAvailableListeners.push(fn);
    }
}
const Errors = {
    ThreadTermination: () => new Error('Terminating worker thread'),
    FilenameNotProvided: () => new Error('filename must be provided to run() or in options object'),
    TaskQueueAtLimit: () => new Error('Task queue is at limit'),
    NoTaskQueueAvailable: () => new Error('No task queue available and all Workers are busy')
};
class WorkerInfo extends AsynchronouslyCreatedResource {
    constructor(worker, port, onMessage) {
        super();
        this.idleTimeout = null; // eslint-disable-line no-undef
        this.lastSeenResponseCount = 0;
        this.worker = worker;
        this.port = port;
        this.port.on('message', (message) => this._handleResponse(message));
        this.onMessage = onMessage;
        this.taskInfos = new Map();
        this.sharedBuffer = new Int32Array(new SharedArrayBuffer(common_1.kFieldCount * Int32Array.BYTES_PER_ELEMENT));
    }
    destroy() {
        this.worker.terminate();
        this.port.close();
        this.clearIdleTimeout();
        for (const taskInfo of this.taskInfos.values()) {
            taskInfo.done(Errors.ThreadTermination());
        }
        this.taskInfos.clear();
    }
    clearIdleTimeout() {
        if (this.idleTimeout !== null) {
            clearTimeout(this.idleTimeout);
            this.idleTimeout = null;
        }
    }
    ref() {
        this.port.ref();
        return this;
    }
    unref() {
        // Note: Do not call ref()/unref() on the Worker itself since that may cause
        // a hard crash, see https://github.com/nodejs/node/pull/33394.
        this.port.unref();
        return this;
    }
    _handleResponse(message) {
        this.onMessage(message);
        if (this.taskInfos.size === 0) {
            // No more tasks running on this Worker means it should not keep the
            // process running.
            this.unref();
        }
    }
    postTask(taskInfo) {
        assert_1.default(!this.taskInfos.has(taskInfo.taskId));
        const message = {
            task: taskInfo.releaseTask(),
            taskId: taskInfo.taskId,
            filename: taskInfo.filename,
            name: taskInfo.name
        };
        try {
            this.port.postMessage(message, taskInfo.transferList);
        }
        catch (err) {
            // This would mostly happen if e.g. message contains unserializable data
            // or transferList is invalid.
            taskInfo.done(err);
            return;
        }
        taskInfo.workerInfo = this;
        this.taskInfos.set(taskInfo.taskId, taskInfo);
        this.ref();
        this.clearIdleTimeout();
        // Inform the worker that there are new messages posted, and wake it up
        // if it is waiting for one.
        Atomics.add(this.sharedBuffer, common_1.kRequestCountField, 1);
        Atomics.notify(this.sharedBuffer, common_1.kRequestCountField, 1);
    }
    processPendingMessages() {
        // If we *know* that there are more messages than we have received using
        // 'message' events yet, then try to load and handle them synchronously,
        // without the need to wait for more expensive events on the event loop.
        // This would usually break async tracking, but in our case, we already have
        // the extra TaskInfo/AsyncResource layer that rectifies that situation.
        const actualResponseCount = Atomics.load(this.sharedBuffer, common_1.kResponseCountField);
        if (actualResponseCount !== this.lastSeenResponseCount) {
            this.lastSeenResponseCount = actualResponseCount;
            let entry;
            while ((entry = worker_threads_1.receiveMessageOnPort(this.port)) !== undefined) {
                this._handleResponse(entry.message);
            }
        }
    }
    isRunningAbortableTask() {
        // If there are abortable tasks, we are running one at most per Worker.
        if (this.taskInfos.size !== 1)
            return false;
        const [[, task]] = this.taskInfos;
        return task.abortSignal !== null;
    }
    currentUsage() {
        if (this.isRunningAbortableTask())
            return Infinity;
        return this.taskInfos.size;
    }
}
class ThreadPool {
    constructor(publicInterface, options) {
        var _a;
        this.skipQueue = [];
        this.completed = 0;
        this.start = perf_hooks_1.performance.now();
        this.inProcessPendingMessages = false;
        this.startingUp = false;
        this.workerFailsDuringBootstrap = false;
        this.publicInterface = publicInterface;
        this.taskQueue = options.taskQueue || new ArrayTaskQueue();
        this.runTime = hdr_histogram_js_1.build({ lowestDiscernibleValue: 1 });
        this.waitTime = hdr_histogram_js_1.build({ lowestDiscernibleValue: 1 });
        const filename = options.filename ? maybeFileURLToPath(options.filename) : null;
        this.options = { ...kDefaultOptions, ...options, filename, maxQueue: 0 };
        // The >= and <= could be > and < but this way we get 100 % coverage 🙃
        if (options.maxThreads !== undefined &&
            this.options.minThreads >= options.maxThreads) {
            this.options.minThreads = options.maxThreads;
        }
        if (options.minThreads !== undefined &&
            this.options.maxThreads <= options.minThreads) {
            this.options.maxThreads = options.minThreads;
        }
        if (options.maxQueue === 'auto') {
            this.options.maxQueue = this.options.maxThreads ** 2;
        }
        else {
            this.options.maxQueue = (_a = options.maxQueue) !== null && _a !== void 0 ? _a : kDefaultOptions.maxQueue;
        }
        this.workers = new AsynchronouslyCreatedResourcePool(this.options.concurrentTasksPerWorker);
        this.workers.onAvailable((w) => this._onWorkerAvailable(w));
        this.startingUp = true;
        this._ensureMinimumWorkers();
        this.startingUp = false;
    }
    _ensureMinimumWorkers() {
        while (this.workers.size < this.options.minThreads) {
            this._addNewWorker();
        }
    }
    _addNewWorker() {
        const pool = this;
        const worker = new worker_threads_1.Worker(path_1.resolve(__dirname, 'worker.js'), {
            env: this.options.env,
            argv: this.options.argv,
            execArgv: this.options.execArgv,
            resourceLimits: this.options.resourceLimits,
            workerData: this.options.workerData,
            trackUnmanagedFds: this.options.trackUnmanagedFds
        });
        const { port1, port2 } = new worker_threads_1.MessageChannel();
        const workerInfo = new WorkerInfo(worker, port1, onMessage);
        if (this.startingUp) {
            // There is no point in waiting for the initial set of Workers to indicate
            // that they are ready, we just mark them as such from the start.
            workerInfo.markAsReady();
        }
        const message = {
            filename: this.options.filename,
            name: this.options.name,
            port: port2,
            sharedBuffer: workerInfo.sharedBuffer,
            useAtomics: this.options.useAtomics,
            niceIncrement: this.options.niceIncrement
        };
        worker.postMessage(message, [port2]);
        function onMessage(message) {
            const { taskId, result } = message;
            // In case of success: Call the callback that was passed to `runTask`,
            // remove the `TaskInfo` associated with the Worker, which marks it as
            // free again.
            const taskInfo = workerInfo.taskInfos.get(taskId);
            workerInfo.taskInfos.delete(taskId);
            pool.workers.maybeAvailable(workerInfo);
            /* istanbul ignore if */
            if (taskInfo === undefined) {
                const err = new Error(`Unexpected message from Worker: ${util_1.inspect(message)}`);
                pool.publicInterface.emit('error', err);
            }
            else {
                taskInfo.done(message.error, result);
            }
            pool._processPendingMessages();
        }
        function onReady() {
            if (workerInfo.currentUsage() === 0) {
                workerInfo.unref();
            }
            if (!workerInfo.isReady()) {
                workerInfo.markAsReady();
            }
        }
        function onEventMessage(message) {
            pool.publicInterface.emit('message', message);
        }
        worker.on('message', (message) => {
            message instanceof Object && common_1.READY in message ? onReady() : onEventMessage(message);
        });
        worker.on('error', (err) => {
            // Work around the bug in https://github.com/nodejs/node/pull/33394
            worker.ref = () => { };
            // In case of an uncaught exception: Call the callback that was passed to
            // `postTask` with the error, or emit an 'error' event if there is none.
            const taskInfos = [...workerInfo.taskInfos.values()];
            workerInfo.taskInfos.clear();
            // Remove the worker from the list and potentially start a new Worker to
            // replace the current one.
            this._removeWorker(workerInfo);
            if (workerInfo.isReady() && !this.workerFailsDuringBootstrap) {
                this._ensureMinimumWorkers();
            }
            else {
                // Do not start new workers over and over if they already fail during
                // bootstrap, there's no point.
                this.workerFailsDuringBootstrap = true;
            }
            if (taskInfos.length > 0) {
                for (const taskInfo of taskInfos) {
                    taskInfo.done(err, null);
                }
            }
            else {
                this.publicInterface.emit('error', err);
            }
        });
        worker.unref();
        port1.on('close', () => {
            // The port is only closed if the Worker stops for some reason, but we
            // always .unref() the Worker itself. We want to receive e.g. 'error'
            // events on it, so we ref it once we know it's going to exit anyway.
            worker.ref();
        });
        this.workers.add(workerInfo);
    }
    _processPendingMessages() {
        if (this.inProcessPendingMessages || !this.options.useAtomics) {
            return;
        }
        this.inProcessPendingMessages = true;
        try {
            for (const workerInfo of this.workers) {
                workerInfo.processPendingMessages();
            }
        }
        finally {
            this.inProcessPendingMessages = false;
        }
    }
    _removeWorker(workerInfo) {
        workerInfo.destroy();
        this.workers.delete(workerInfo);
    }
    _onWorkerAvailable(workerInfo) {
        while ((this.taskQueue.size > 0 || this.skipQueue.length > 0) &&
            workerInfo.currentUsage() < this.options.concurrentTasksPerWorker) {
            // The skipQueue will have tasks that we previously shifted off
            // the task queue but had to skip over... we have to make sure
            // we drain that before we drain the taskQueue.
            const taskInfo = this.skipQueue.shift() ||
                this.taskQueue.shift();
            // If the task has an abortSignal and the worker has any other
            // tasks, we cannot distribute the task to it. Skip for now.
            if (taskInfo.abortSignal && workerInfo.taskInfos.size > 0) {
                this.skipQueue.push(taskInfo);
                break;
            }
            const now = perf_hooks_1.performance.now();
            this.waitTime.recordValue(now - taskInfo.created);
            taskInfo.started = now;
            workerInfo.postTask(taskInfo);
            this._maybeDrain();
            return;
        }
        if (workerInfo.taskInfos.size === 0 &&
            this.workers.size > this.options.minThreads) {
            workerInfo.idleTimeout = setTimeout(() => {
                assert_1.default.strictEqual(workerInfo.taskInfos.size, 0);
                if (this.workers.size > this.options.minThreads) {
                    this._removeWorker(workerInfo);
                }
            }, this.options.idleTimeout).unref();
        }
    }
    runTask(task, options) {
        let { filename, name } = options;
        const { transferList = [], signal = null } = options;
        if (filename == null) {
            filename = this.options.filename;
        }
        if (name == null) {
            name = this.options.name;
        }
        if (typeof filename !== 'string') {
            return Promise.reject(Errors.FilenameNotProvided());
        }
        filename = maybeFileURLToPath(filename);
        let resolve;
        let reject;
        // eslint-disable-next-line
        const ret = new Promise((res, rej) => { resolve = res; reject = rej; });
        const taskInfo = new TaskInfo(task, transferList, filename, name, (err, result) => {
            this.completed++;
            if (taskInfo.started) {
                this.runTime.recordValue(perf_hooks_1.performance.now() - taskInfo.started);
            }
            if (err !== null) {
                reject(err);
            }
            else {
                resolve(result);
            }
        }, signal, this.publicInterface.asyncResource.asyncId());
        if (signal !== null) {
            // If the AbortSignal has an aborted property and it's truthy,
            // reject immediately.
            if (signal.aborted) {
                return Promise.reject(new AbortError());
            }
            taskInfo.abortListener = () => {
                // Call reject() first to make sure we always reject with the AbortError
                // if the task is aborted, not with an Error from the possible
                // thread termination below.
                reject(new AbortError());
                if (taskInfo.workerInfo !== null) {
                    // Already running: We cancel the Worker this is running on.
                    this._removeWorker(taskInfo.workerInfo);
                    this._ensureMinimumWorkers();
                }
                else {
                    // Not yet running: Remove it from the queue.
                    this.taskQueue.remove(taskInfo);
                }
            };
            onabort(signal, taskInfo.abortListener);
        }
        // If there is a task queue, there's no point in looking for an available
        // Worker thread. Add this task to the queue, if possible.
        if (this.taskQueue.size > 0) {
            const totalCapacity = this.options.maxQueue + this.pendingCapacity();
            if (this.taskQueue.size >= totalCapacity) {
                if (this.options.maxQueue === 0) {
                    return Promise.reject(Errors.NoTaskQueueAvailable());
                }
                else {
                    return Promise.reject(Errors.TaskQueueAtLimit());
                }
            }
            else {
                if (this.workers.size < this.options.maxThreads) {
                    this._addNewWorker();
                }
                this.taskQueue.push(taskInfo);
            }
            return ret;
        }
        // Look for a Worker with a minimum number of tasks it is currently running.
        let workerInfo = this.workers.findAvailable();
        // If we want the ability to abort this task, use only workers that have
        // no running tasks.
        if (workerInfo !== null && workerInfo.currentUsage() > 0 && signal) {
            workerInfo = null;
        }
        // If no Worker was found, or that Worker was handling another task in some
        // way, and we still have the ability to spawn new threads, do so.
        let waitingForNewWorker = false;
        if ((workerInfo === null || workerInfo.currentUsage() > 0) &&
            this.workers.size < this.options.maxThreads) {
            this._addNewWorker();
            waitingForNewWorker = true;
        }
        // If no Worker is found, try to put the task into the queue.
        if (workerInfo === null) {
            if (this.options.maxQueue <= 0 && !waitingForNewWorker) {
                return Promise.reject(Errors.NoTaskQueueAvailable());
            }
            else {
                this.taskQueue.push(taskInfo);
            }
            return ret;
        }
        // TODO(addaleax): Clean up the waitTime/runTime recording.
        const now = perf_hooks_1.performance.now();
        this.waitTime.recordValue(now - taskInfo.created);
        taskInfo.started = now;
        workerInfo.postTask(taskInfo);
        this._maybeDrain();
        return ret;
    }
    pendingCapacity() {
        return this.workers.pendingItems.size *
            this.options.concurrentTasksPerWorker;
    }
    _maybeDrain() {
        if (this.taskQueue.size === 0 && this.skipQueue.length === 0) {
            this.publicInterface.emit('drain');
        }
    }
    async destroy() {
        while (this.skipQueue.length > 0) {
            const taskInfo = this.skipQueue.shift();
            taskInfo.done(new Error('Terminating worker thread'));
        }
        while (this.taskQueue.size > 0) {
            const taskInfo = this.taskQueue.shift();
            taskInfo.done(new Error('Terminating worker thread'));
        }
        const exitEvents = [];
        while (this.workers.size > 0) {
            const [workerInfo] = this.workers;
            exitEvents.push(events_1.once(workerInfo.worker, 'exit'));
            this._removeWorker(workerInfo);
        }
        await Promise.all(exitEvents);
    }
}
class Piscina extends eventemitter_asyncresource_1.default {
    constructor(options = {}) {
        super({ ...options, name: 'Piscina' });
        _Piscina_pool.set(this, void 0);
        if (typeof options.filename !== 'string' && options.filename != null) {
            throw new TypeError('options.filename must be a string or null');
        }
        if (typeof options.name !== 'string' && options.name != null) {
            throw new TypeError('options.name must be a string or null');
        }
        if (options.minThreads !== undefined &&
            (typeof options.minThreads !== 'number' || options.minThreads < 0)) {
            throw new TypeError('options.minThreads must be a non-negative integer');
        }
        if (options.maxThreads !== undefined &&
            (typeof options.maxThreads !== 'number' || options.maxThreads < 1)) {
            throw new TypeError('options.maxThreads must be a positive integer');
        }
        if (options.minThreads !== undefined && options.maxThreads !== undefined &&
            options.minThreads > options.maxThreads) {
            throw new RangeError('options.minThreads and options.maxThreads must not conflict');
        }
        if (options.idleTimeout !== undefined &&
            (typeof options.idleTimeout !== 'number' || options.idleTimeout < 0)) {
            throw new TypeError('options.idleTimeout must be a non-negative integer');
        }
        if (options.maxQueue !== undefined &&
            options.maxQueue !== 'auto' &&
            (typeof options.maxQueue !== 'number' || options.maxQueue < 0)) {
            throw new TypeError('options.maxQueue must be a non-negative integer');
        }
        if (options.concurrentTasksPerWorker !== undefined &&
            (typeof options.concurrentTasksPerWorker !== 'number' ||
                options.concurrentTasksPerWorker < 1)) {
            throw new TypeError('options.concurrentTasksPerWorker must be a positive integer');
        }
        if (options.useAtomics !== undefined &&
            typeof options.useAtomics !== 'boolean') {
            throw new TypeError('options.useAtomics must be a boolean value');
        }
        if (options.resourceLimits !== undefined &&
            (typeof options.resourceLimits !== 'object' ||
                options.resourceLimits === null)) {
            throw new TypeError('options.resourceLimits must be an object');
        }
        if (options.taskQueue !== undefined && !common_1.isTaskQueue(options.taskQueue)) {
            throw new TypeError('options.taskQueue must be a TaskQueue object');
        }
        if (options.niceIncrement !== undefined &&
            (typeof options.niceIncrement !== 'number' || options.niceIncrement < 0)) {
            throw new TypeError('options.niceIncrement must be a non-negative integer');
        }
        if (options.trackUnmanagedFds !== undefined &&
            typeof options.trackUnmanagedFds !== 'boolean') {
            throw new TypeError('options.trackUnmanagedFds must be a boolean value');
        }
        __classPrivateFieldSet(this, _Piscina_pool, new ThreadPool(this, options), "f");
    }
    /** @deprecated Use run(task, options) instead **/
    runTask(task, transferList, filename, signal) {
        // If transferList is a string or AbortSignal, shift it.
        if ((typeof transferList === 'object' && !Array.isArray(transferList)) ||
            typeof transferList === 'string') {
            signal = filename;
            filename = transferList;
            transferList = undefined;
        }
        // If filename is an AbortSignal, shift it.
        if (typeof filename === 'object' && !Array.isArray(filename)) {
            signal = filename;
            filename = undefined;
        }
        if (transferList !== undefined && !Array.isArray(transferList)) {
            return Promise.reject(new TypeError('transferList argument must be an Array'));
        }
        if (filename !== undefined && typeof filename !== 'string') {
            return Promise.reject(new TypeError('filename argument must be a string'));
        }
        if (signal !== undefined && typeof signal !== 'object') {
            return Promise.reject(new TypeError('signal argument must be an object'));
        }
        return __classPrivateFieldGet(this, _Piscina_pool, "f").runTask(task, {
            transferList,
            filename: filename || null,
            name: 'default',
            signal: signal || null
        });
    }
    run(task, options = kDefaultRunOptions) {
        if (options === null || typeof options !== 'object') {
            return Promise.reject(new TypeError('options must be an object'));
        }
        const { transferList, filename, name, signal } = options;
        if (transferList !== undefined && !Array.isArray(transferList)) {
            return Promise.reject(new TypeError('transferList argument must be an Array'));
        }
        if (filename != null && typeof filename !== 'string') {
            return Promise.reject(new TypeError('filename argument must be a string'));
        }
        if (name != null && typeof name !== 'string') {
            return Promise.reject(new TypeError('name argument must be a string'));
        }
        if (signal != null && typeof signal !== 'object') {
            return Promise.reject(new TypeError('signal argument must be an object'));
        }
        return __classPrivateFieldGet(this, _Piscina_pool, "f").runTask(task, { transferList, filename, name, signal });
    }
    destroy() {
        return __classPrivateFieldGet(this, _Piscina_pool, "f").destroy();
    }
    get maxThreads() {
        return __classPrivateFieldGet(this, _Piscina_pool, "f").options.maxThreads;
    }
    get minThreads() {
        return __classPrivateFieldGet(this, _Piscina_pool, "f").options.minThreads;
    }
    get options() {
        return __classPrivateFieldGet(this, _Piscina_pool, "f").options;
    }
    get threads() {
        const ret = [];
        for (const workerInfo of __classPrivateFieldGet(this, _Piscina_pool, "f").workers) {
            ret.push(workerInfo.worker);
        }
        return ret;
    }
    get queueSize() {
        const pool = __classPrivateFieldGet(this, _Piscina_pool, "f");
        return Math.max(pool.taskQueue.size - pool.pendingCapacity(), 0);
    }
    get completed() {
        return __classPrivateFieldGet(this, _Piscina_pool, "f").completed;
    }
    get waitTime() {
        const result = hdr_histogram_percentiles_obj_1.default.histAsObj(__classPrivateFieldGet(this, _Piscina_pool, "f").waitTime);
        return hdr_histogram_percentiles_obj_1.default.addPercentiles(__classPrivateFieldGet(this, _Piscina_pool, "f").waitTime, result);
    }
    get runTime() {
        const result = hdr_histogram_percentiles_obj_1.default.histAsObj(__classPrivateFieldGet(this, _Piscina_pool, "f").runTime);
        return hdr_histogram_percentiles_obj_1.default.addPercentiles(__classPrivateFieldGet(this, _Piscina_pool, "f").runTime, result);
    }
    get utilization() {
        // The capacity is the max compute time capacity of the
        // pool to this point in time as determined by the length
        // of time the pool has been running multiplied by the
        // maximum number of threads.
        const capacity = this.duration * __classPrivateFieldGet(this, _Piscina_pool, "f").options.maxThreads;
        const totalMeanRuntime = __classPrivateFieldGet(this, _Piscina_pool, "f").runTime.mean *
            __classPrivateFieldGet(this, _Piscina_pool, "f").runTime.totalCount;
        // We calculate the appoximate pool utilization by multiplying
        // the mean run time of all tasks by the number of runtime
        // samples taken and dividing that by the capacity. The
        // theory here is that capacity represents the absolute upper
        // limit of compute time this pool could ever attain (but
        // never will for a variety of reasons. Multiplying the
        // mean run time by the number of tasks sampled yields an
        // approximation of the realized compute time. The utilization
        // then becomes a point-in-time measure of how active the
        // pool is.
        return totalMeanRuntime / capacity;
    }
    get duration() {
        return perf_hooks_1.performance.now() - __classPrivateFieldGet(this, _Piscina_pool, "f").start;
    }
    static get isWorkerThread() {
        return common_1.commonState.isWorkerThread;
    }
    static get workerData() {
        return common_1.commonState.workerData;
    }
    static get version() {
        return package_json_1.version;
    }
    static get Piscina() {
        return Piscina;
    }
    static move(val) {
        if (val != null && typeof val === 'object' && typeof val !== 'function') {
            if (!common_1.isTransferable(val)) {
                if (util_1.types.isArrayBufferView(val)) {
                    val = new ArrayBufferViewTransferable(val);
                }
                else {
                    val = new DirectlyTransferable(val);
                }
            }
            common_1.markMovable(val);
        }
        return val;
    }
    static get transferableSymbol() { return common_1.kTransferable; }
    static get valueSymbol() { return common_1.kValue; }
    static get queueOptionsSymbol() { return common_1.kQueueOptions; }
}
_Piscina_pool = new WeakMap();
module.exports = Piscina;
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