ysjj-system/node_modules/snyk/dist/cli/790.index.js

exports.id = 790;
exports.ids = [790];
exports.modules = {

/***/ 10292:
/***/ ((__unused_webpack_module, exports, __webpack_require__) => {

"use strict";

const MiniPass = __webpack_require__(84075)
const EE = __webpack_require__(28614).EventEmitter
const fs = __webpack_require__(35747)

let writev = fs.writev
/* istanbul ignore next */
if (!writev) {
  // This entire block can be removed if support for earlier than Node.js
  // 12.9.0 is not needed.
  const binding = process.binding('fs')
  const FSReqWrap = binding.FSReqWrap || binding.FSReqCallback

  writev = (fd, iovec, pos, cb) => {
    const done = (er, bw) => cb(er, bw, iovec)
    const req = new FSReqWrap()
    req.oncomplete = done
    binding.writeBuffers(fd, iovec, pos, req)
  }
}

const _autoClose = Symbol('_autoClose')
const _close = Symbol('_close')
const _ended = Symbol('_ended')
const _fd = Symbol('_fd')
const _finished = Symbol('_finished')
const _flags = Symbol('_flags')
const _flush = Symbol('_flush')
const _handleChunk = Symbol('_handleChunk')
const _makeBuf = Symbol('_makeBuf')
const _mode = Symbol('_mode')
const _needDrain = Symbol('_needDrain')
const _onerror = Symbol('_onerror')
const _onopen = Symbol('_onopen')
const _onread = Symbol('_onread')
const _onwrite = Symbol('_onwrite')
const _open = Symbol('_open')
const _path = Symbol('_path')
const _pos = Symbol('_pos')
const _queue = Symbol('_queue')
const _read = Symbol('_read')
const _readSize = Symbol('_readSize')
const _reading = Symbol('_reading')
const _remain = Symbol('_remain')
const _size = Symbol('_size')
const _write = Symbol('_write')
const _writing = Symbol('_writing')
const _defaultFlag = Symbol('_defaultFlag')
const _errored = Symbol('_errored')

class ReadStream extends MiniPass {
  constructor (path, opt) {
    opt = opt || {}
    super(opt)

    this.readable = true
    this.writable = false

    if (typeof path !== 'string')
      throw new TypeError('path must be a string')

    this[_errored] = false
    this[_fd] = typeof opt.fd === 'number' ? opt.fd : null
    this[_path] = path
    this[_readSize] = opt.readSize || 16*1024*1024
    this[_reading] = false
    this[_size] = typeof opt.size === 'number' ? opt.size : Infinity
    this[_remain] = this[_size]
    this[_autoClose] = typeof opt.autoClose === 'boolean' ?
      opt.autoClose : true

    if (typeof this[_fd] === 'number')
      this[_read]()
    else
      this[_open]()
  }

  get fd () { return this[_fd] }
  get path () { return this[_path] }

  write () {
    throw new TypeError('this is a readable stream')
  }

  end () {
    throw new TypeError('this is a readable stream')
  }

  [_open] () {
    fs.open(this[_path], 'r', (er, fd) => this[_onopen](er, fd))
  }

  [_onopen] (er, fd) {
    if (er)
      this[_onerror](er)
    else {
      this[_fd] = fd
      this.emit('open', fd)
      this[_read]()
    }
  }

  [_makeBuf] () {
    return Buffer.allocUnsafe(Math.min(this[_readSize], this[_remain]))
  }

  [_read] () {
    if (!this[_reading]) {
      this[_reading] = true
      const buf = this[_makeBuf]()
      /* istanbul ignore if */
      if (buf.length === 0)
        return process.nextTick(() => this[_onread](null, 0, buf))
      fs.read(this[_fd], buf, 0, buf.length, null, (er, br, buf) =>
        this[_onread](er, br, buf))
    }
  }

  [_onread] (er, br, buf) {
    this[_reading] = false
    if (er)
      this[_onerror](er)
    else if (this[_handleChunk](br, buf))
      this[_read]()
  }

  [_close] () {
    if (this[_autoClose] && typeof this[_fd] === 'number') {
      const fd = this[_fd]
      this[_fd] = null
      fs.close(fd, er => er ? this.emit('error', er) : this.emit('close'))
    }
  }

  [_onerror] (er) {
    this[_reading] = true
    this[_close]()
    this.emit('error', er)
  }

  [_handleChunk] (br, buf) {
    let ret = false
    // no effect if infinite
    this[_remain] -= br
    if (br > 0)
      ret = super.write(br < buf.length ? buf.slice(0, br) : buf)

    if (br === 0 || this[_remain] <= 0) {
      ret = false
      this[_close]()
      super.end()
    }

    return ret
  }

  emit (ev, data) {
    switch (ev) {
      case 'prefinish':
      case 'finish':
        break

      case 'drain':
        if (typeof this[_fd] === 'number')
          this[_read]()
        break

      case 'error':
        if (this[_errored])
          return
        this[_errored] = true
        return super.emit(ev, data)

      default:
        return super.emit(ev, data)
    }
  }
}

class ReadStreamSync extends ReadStream {
  [_open] () {
    let threw = true
    try {
      this[_onopen](null, fs.openSync(this[_path], 'r'))
      threw = false
    } finally {
      if (threw)
        this[_close]()
    }
  }

  [_read] () {
    let threw = true
    try {
      if (!this[_reading]) {
        this[_reading] = true
        do {
          const buf = this[_makeBuf]()
          /* istanbul ignore next */
          const br = buf.length === 0 ? 0
            : fs.readSync(this[_fd], buf, 0, buf.length, null)
          if (!this[_handleChunk](br, buf))
            break
        } while (true)
        this[_reading] = false
      }
      threw = false
    } finally {
      if (threw)
        this[_close]()
    }
  }

  [_close] () {
    if (this[_autoClose] && typeof this[_fd] === 'number') {
      const fd = this[_fd]
      this[_fd] = null
      fs.closeSync(fd)
      this.emit('close')
    }
  }
}

class WriteStream extends EE {
  constructor (path, opt) {
    opt = opt || {}
    super(opt)
    this.readable = false
    this.writable = true
    this[_errored] = false
    this[_writing] = false
    this[_ended] = false
    this[_needDrain] = false
    this[_queue] = []
    this[_path] = path
    this[_fd] = typeof opt.fd === 'number' ? opt.fd : null
    this[_mode] = opt.mode === undefined ? 0o666 : opt.mode
    this[_pos] = typeof opt.start === 'number' ? opt.start : null
    this[_autoClose] = typeof opt.autoClose === 'boolean' ?
      opt.autoClose : true

    // truncating makes no sense when writing into the middle
    const defaultFlag = this[_pos] !== null ? 'r+' : 'w'
    this[_defaultFlag] = opt.flags === undefined
    this[_flags] = this[_defaultFlag] ? defaultFlag : opt.flags

    if (this[_fd] === null)
      this[_open]()
  }

  emit (ev, data) {
    if (ev === 'error') {
      if (this[_errored])
        return
      this[_errored] = true
    }
    return super.emit(ev, data)
  }


  get fd () { return this[_fd] }
  get path () { return this[_path] }

  [_onerror] (er) {
    this[_close]()
    this[_writing] = true
    this.emit('error', er)
  }

  [_open] () {
    fs.open(this[_path], this[_flags], this[_mode],
      (er, fd) => this[_onopen](er, fd))
  }

  [_onopen] (er, fd) {
    if (this[_defaultFlag] &&
        this[_flags] === 'r+' &&
        er && er.code === 'ENOENT') {
      this[_flags] = 'w'
      this[_open]()
    } else if (er)
      this[_onerror](er)
    else {
      this[_fd] = fd
      this.emit('open', fd)
      this[_flush]()
    }
  }

  end (buf, enc) {
    if (buf)
      this.write(buf, enc)

    this[_ended] = true

    // synthetic after-write logic, where drain/finish live
    if (!this[_writing] && !this[_queue].length &&
        typeof this[_fd] === 'number')
      this[_onwrite](null, 0)
    return this
  }

  write (buf, enc) {
    if (typeof buf === 'string')
      buf = Buffer.from(buf, enc)

    if (this[_ended]) {
      this.emit('error', new Error('write() after end()'))
      return false
    }

    if (this[_fd] === null || this[_writing] || this[_queue].length) {
      this[_queue].push(buf)
      this[_needDrain] = true
      return false
    }

    this[_writing] = true
    this[_write](buf)
    return true
  }

  [_write] (buf) {
    fs.write(this[_fd], buf, 0, buf.length, this[_pos], (er, bw) =>
      this[_onwrite](er, bw))
  }

  [_onwrite] (er, bw) {
    if (er)
      this[_onerror](er)
    else {
      if (this[_pos] !== null)
        this[_pos] += bw
      if (this[_queue].length)
        this[_flush]()
      else {
        this[_writing] = false

        if (this[_ended] && !this[_finished]) {
          this[_finished] = true
          this[_close]()
          this.emit('finish')
        } else if (this[_needDrain]) {
          this[_needDrain] = false
          this.emit('drain')
        }
      }
    }
  }

  [_flush] () {
    if (this[_queue].length === 0) {
      if (this[_ended])
        this[_onwrite](null, 0)
    } else if (this[_queue].length === 1)
      this[_write](this[_queue].pop())
    else {
      const iovec = this[_queue]
      this[_queue] = []
      writev(this[_fd], iovec, this[_pos],
        (er, bw) => this[_onwrite](er, bw))
    }
  }

  [_close] () {
    if (this[_autoClose] && typeof this[_fd] === 'number') {
      const fd = this[_fd]
      this[_fd] = null
      fs.close(fd, er => er ? this.emit('error', er) : this.emit('close'))
    }
  }
}

class WriteStreamSync extends WriteStream {
  [_open] () {
    let fd
    // only wrap in a try{} block if we know we'll retry, to avoid
    // the rethrow obscuring the error's source frame in most cases.
    if (this[_defaultFlag] && this[_flags] === 'r+') {
      try {
        fd = fs.openSync(this[_path], this[_flags], this[_mode])
      } catch (er) {
        if (er.code === 'ENOENT') {
          this[_flags] = 'w'
          return this[_open]()
        } else
          throw er
      }
    } else
      fd = fs.openSync(this[_path], this[_flags], this[_mode])

    this[_onopen](null, fd)
  }

  [_close] () {
    if (this[_autoClose] && typeof this[_fd] === 'number') {
      const fd = this[_fd]
      this[_fd] = null
      fs.closeSync(fd)
      this.emit('close')
    }
  }

  [_write] (buf) {
    // throw the original, but try to close if it fails
    let threw = true
    try {
      this[_onwrite](null,
        fs.writeSync(this[_fd], buf, 0, buf.length, this[_pos]))
      threw = false
    } finally {
      if (threw)
        try { this[_close]() } catch (_) {}
    }
  }
}

exports.ReadStream = ReadStream
exports.ReadStreamSync = ReadStreamSync

exports.WriteStream = WriteStream
exports.WriteStreamSync = WriteStreamSync


/***/ }),

/***/ 84075:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

const EE = __webpack_require__(28614)
const Stream = __webpack_require__(92413)
const Yallist = __webpack_require__(20315)
const SD = __webpack_require__(24304).StringDecoder

const EOF = Symbol('EOF')
const MAYBE_EMIT_END = Symbol('maybeEmitEnd')
const EMITTED_END = Symbol('emittedEnd')
const EMITTING_END = Symbol('emittingEnd')
const CLOSED = Symbol('closed')
const READ = Symbol('read')
const FLUSH = Symbol('flush')
const FLUSHCHUNK = Symbol('flushChunk')
const ENCODING = Symbol('encoding')
const DECODER = Symbol('decoder')
const FLOWING = Symbol('flowing')
const PAUSED = Symbol('paused')
const RESUME = Symbol('resume')
const BUFFERLENGTH = Symbol('bufferLength')
const BUFFERPUSH = Symbol('bufferPush')
const BUFFERSHIFT = Symbol('bufferShift')
const OBJECTMODE = Symbol('objectMode')
const DESTROYED = Symbol('destroyed')

// TODO remove when Node v8 support drops
const doIter = global._MP_NO_ITERATOR_SYMBOLS_  !== '1'
const ASYNCITERATOR = doIter && Symbol.asyncIterator
  || Symbol('asyncIterator not implemented')
const ITERATOR = doIter && Symbol.iterator
  || Symbol('iterator not implemented')

// events that mean 'the stream is over'
// these are treated specially, and re-emitted
// if they are listened for after emitting.
const isEndish = ev =>
  ev === 'end' ||
  ev === 'finish' ||
  ev === 'prefinish'

const isArrayBuffer = b => b instanceof ArrayBuffer ||
  typeof b === 'object' &&
  b.constructor &&
  b.constructor.name === 'ArrayBuffer' &&
  b.byteLength >= 0

const isArrayBufferView = b => !Buffer.isBuffer(b) && ArrayBuffer.isView(b)

module.exports = class Minipass extends Stream {
  constructor (options) {
    super()
    this[FLOWING] = false
    // whether we're explicitly paused
    this[PAUSED] = false
    this.pipes = new Yallist()
    this.buffer = new Yallist()
    this[OBJECTMODE] = options && options.objectMode || false
    if (this[OBJECTMODE])
      this[ENCODING] = null
    else
      this[ENCODING] = options && options.encoding || null
    if (this[ENCODING] === 'buffer')
      this[ENCODING] = null
    this[DECODER] = this[ENCODING] ? new SD(this[ENCODING]) : null
    this[EOF] = false
    this[EMITTED_END] = false
    this[EMITTING_END] = false
    this[CLOSED] = false
    this.writable = true
    this.readable = true
    this[BUFFERLENGTH] = 0
    this[DESTROYED] = false
  }

  get bufferLength () { return this[BUFFERLENGTH] }

  get encoding () { return this[ENCODING] }
  set encoding (enc) {
    if (this[OBJECTMODE])
      throw new Error('cannot set encoding in objectMode')

    if (this[ENCODING] && enc !== this[ENCODING] &&
        (this[DECODER] && this[DECODER].lastNeed || this[BUFFERLENGTH]))
      throw new Error('cannot change encoding')

    if (this[ENCODING] !== enc) {
      this[DECODER] = enc ? new SD(enc) : null
      if (this.buffer.length)
        this.buffer = this.buffer.map(chunk => this[DECODER].write(chunk))
    }

    this[ENCODING] = enc
  }

  setEncoding (enc) {
    this.encoding = enc
  }

  get objectMode () { return this[OBJECTMODE] }
  set objectMode (om) { this[OBJECTMODE] = this[OBJECTMODE] || !!om }

  write (chunk, encoding, cb) {
    if (this[EOF])
      throw new Error('write after end')

    if (this[DESTROYED]) {
      this.emit('error', Object.assign(
        new Error('Cannot call write after a stream was destroyed'),
        { code: 'ERR_STREAM_DESTROYED' }
      ))
      return true
    }

    if (typeof encoding === 'function')
      cb = encoding, encoding = 'utf8'

    if (!encoding)
      encoding = 'utf8'

    // convert array buffers and typed array views into buffers
    // at some point in the future, we may want to do the opposite!
    // leave strings and buffers as-is
    // anything else switches us into object mode
    if (!this[OBJECTMODE] && !Buffer.isBuffer(chunk)) {
      if (isArrayBufferView(chunk))
        chunk = Buffer.from(chunk.buffer, chunk.byteOffset, chunk.byteLength)
      else if (isArrayBuffer(chunk))
        chunk = Buffer.from(chunk)
      else if (typeof chunk !== 'string')
        // use the setter so we throw if we have encoding set
        this.objectMode = true
    }

    // this ensures at this point that the chunk is a buffer or string
    // don't buffer it up or send it to the decoder
    if (!this.objectMode && !chunk.length) {
      if (this[BUFFERLENGTH] !== 0)
        this.emit('readable')
      if (cb)
        cb()
      return this.flowing
    }

    // fast-path writing strings of same encoding to a stream with
    // an empty buffer, skipping the buffer/decoder dance
    if (typeof chunk === 'string' && !this[OBJECTMODE] &&
        // unless it is a string already ready for us to use
        !(encoding === this[ENCODING] && !this[DECODER].lastNeed)) {
      chunk = Buffer.from(chunk, encoding)
    }

    if (Buffer.isBuffer(chunk) && this[ENCODING])
      chunk = this[DECODER].write(chunk)

    if (this.flowing) {
      // if we somehow have something in the buffer, but we think we're
      // flowing, then we need to flush all that out first, or we get
      // chunks coming in out of order.  Can't emit 'drain' here though,
      // because we're mid-write, so that'd be bad.
      if (this[BUFFERLENGTH] !== 0)
        this[FLUSH](true)
      this.emit('data', chunk)
    } else
      this[BUFFERPUSH](chunk)

    if (this[BUFFERLENGTH] !== 0)
      this.emit('readable')

    if (cb)
      cb()

    return this.flowing
  }

  read (n) {
    if (this[DESTROYED])
      return null

    try {
      if (this[BUFFERLENGTH] === 0 || n === 0 || n > this[BUFFERLENGTH])
        return null

      if (this[OBJECTMODE])
        n = null

      if (this.buffer.length > 1 && !this[OBJECTMODE]) {
        if (this.encoding)
          this.buffer = new Yallist([
            Array.from(this.buffer).join('')
          ])
        else
          this.buffer = new Yallist([
            Buffer.concat(Array.from(this.buffer), this[BUFFERLENGTH])
          ])
      }

      return this[READ](n || null, this.buffer.head.value)
    } finally {
      this[MAYBE_EMIT_END]()
    }
  }

  [READ] (n, chunk) {
    if (n === chunk.length || n === null)
      this[BUFFERSHIFT]()
    else {
      this.buffer.head.value = chunk.slice(n)
      chunk = chunk.slice(0, n)
      this[BUFFERLENGTH] -= n
    }

    this.emit('data', chunk)

    if (!this.buffer.length && !this[EOF])
      this.emit('drain')

    return chunk
  }

  end (chunk, encoding, cb) {
    if (typeof chunk === 'function')
      cb = chunk, chunk = null
    if (typeof encoding === 'function')
      cb = encoding, encoding = 'utf8'
    if (chunk)
      this.write(chunk, encoding)
    if (cb)
      this.once('end', cb)
    this[EOF] = true
    this.writable = false

    // if we haven't written anything, then go ahead and emit,
    // even if we're not reading.
    // we'll re-emit if a new 'end' listener is added anyway.
    // This makes MP more suitable to write-only use cases.
    if (this.flowing || !this[PAUSED])
      this[MAYBE_EMIT_END]()
    return this
  }

  // don't let the internal resume be overwritten
  [RESUME] () {
    if (this[DESTROYED])
      return

    this[PAUSED] = false
    this[FLOWING] = true
    this.emit('resume')
    if (this.buffer.length)
      this[FLUSH]()
    else if (this[EOF])
      this[MAYBE_EMIT_END]()
    else
      this.emit('drain')
  }

  resume () {
    return this[RESUME]()
  }

  pause () {
    this[FLOWING] = false
    this[PAUSED] = true
  }

  get destroyed () {
    return this[DESTROYED]
  }

  get flowing () {
    return this[FLOWING]
  }

  get paused () {
    return this[PAUSED]
  }

  [BUFFERPUSH] (chunk) {
    if (this[OBJECTMODE])
      this[BUFFERLENGTH] += 1
    else
      this[BUFFERLENGTH] += chunk.length
    return this.buffer.push(chunk)
  }

  [BUFFERSHIFT] () {
    if (this.buffer.length) {
      if (this[OBJECTMODE])
        this[BUFFERLENGTH] -= 1
      else
        this[BUFFERLENGTH] -= this.buffer.head.value.length
    }
    return this.buffer.shift()
  }

  [FLUSH] (noDrain) {
    do {} while (this[FLUSHCHUNK](this[BUFFERSHIFT]()))

    if (!noDrain && !this.buffer.length && !this[EOF])
      this.emit('drain')
  }

  [FLUSHCHUNK] (chunk) {
    return chunk ? (this.emit('data', chunk), this.flowing) : false
  }

  pipe (dest, opts) {
    if (this[DESTROYED])
      return

    const ended = this[EMITTED_END]
    opts = opts || {}
    if (dest === process.stdout || dest === process.stderr)
      opts.end = false
    else
      opts.end = opts.end !== false

    const p = { dest: dest, opts: opts, ondrain: _ => this[RESUME]() }
    this.pipes.push(p)

    dest.on('drain', p.ondrain)
    this[RESUME]()
    // piping an ended stream ends immediately
    if (ended && p.opts.end)
      p.dest.end()
    return dest
  }

  addListener (ev, fn) {
    return this.on(ev, fn)
  }

  on (ev, fn) {
    try {
      return super.on(ev, fn)
    } finally {
      if (ev === 'data' && !this.pipes.length && !this.flowing)
        this[RESUME]()
      else if (isEndish(ev) && this[EMITTED_END]) {
        super.emit(ev)
        this.removeAllListeners(ev)
      }
    }
  }

  get emittedEnd () {
    return this[EMITTED_END]
  }

  [MAYBE_EMIT_END] () {
    if (!this[EMITTING_END] &&
        !this[EMITTED_END] &&
        !this[DESTROYED] &&
        this.buffer.length === 0 &&
        this[EOF]) {
      this[EMITTING_END] = true
      this.emit('end')
      this.emit('prefinish')
      this.emit('finish')
      if (this[CLOSED])
        this.emit('close')
      this[EMITTING_END] = false
    }
  }

  emit (ev, data) {
    // error and close are only events allowed after calling destroy()
    if (ev !== 'error' && ev !== 'close' && ev !== DESTROYED && this[DESTROYED])
      return
    else if (ev === 'data') {
      if (!data)
        return

      if (this.pipes.length)
        this.pipes.forEach(p =>
          p.dest.write(data) === false && this.pause())
    } else if (ev === 'end') {
      // only actual end gets this treatment
      if (this[EMITTED_END] === true)
        return

      this[EMITTED_END] = true
      this.readable = false

      if (this[DECODER]) {
        data = this[DECODER].end()
        if (data) {
          this.pipes.forEach(p => p.dest.write(data))
          super.emit('data', data)
        }
      }

      this.pipes.forEach(p => {
        p.dest.removeListener('drain', p.ondrain)
        if (p.opts.end)
          p.dest.end()
      })
    } else if (ev === 'close') {
      this[CLOSED] = true
      // don't emit close before 'end' and 'finish'
      if (!this[EMITTED_END] && !this[DESTROYED])
        return
    }

    // TODO: replace with a spread operator when Node v4 support drops
    const args = new Array(arguments.length)
    args[0] = ev
    args[1] = data
    if (arguments.length > 2) {
      for (let i = 2; i < arguments.length; i++) {
        args[i] = arguments[i]
      }
    }

    try {
      return super.emit.apply(this, args)
    } finally {
      if (!isEndish(ev))
        this[MAYBE_EMIT_END]()
      else
        this.removeAllListeners(ev)
    }
  }

  // const all = await stream.collect()
  collect () {
    const buf = []
    if (!this[OBJECTMODE])
      buf.dataLength = 0
    // set the promise first, in case an error is raised
    // by triggering the flow here.
    const p = this.promise()
    this.on('data', c => {
      buf.push(c)
      if (!this[OBJECTMODE])
        buf.dataLength += c.length
    })
    return p.then(() => buf)
  }

  // const data = await stream.concat()
  concat () {
    return this[OBJECTMODE]
      ? Promise.reject(new Error('cannot concat in objectMode'))
      : this.collect().then(buf =>
          this[OBJECTMODE]
            ? Promise.reject(new Error('cannot concat in objectMode'))
            : this[ENCODING] ? buf.join('') : Buffer.concat(buf, buf.dataLength))
  }

  // stream.promise().then(() => done, er => emitted error)
  promise () {
    return new Promise((resolve, reject) => {
      this.on(DESTROYED, () => reject(new Error('stream destroyed')))
      this.on('end', () => resolve())
      this.on('error', er => reject(er))
    })
  }

  // for await (let chunk of stream)
  [ASYNCITERATOR] () {
    const next = () => {
      const res = this.read()
      if (res !== null)
        return Promise.resolve({ done: false, value: res })

      if (this[EOF])
        return Promise.resolve({ done: true })

      let resolve = null
      let reject = null
      const onerr = er => {
        this.removeListener('data', ondata)
        this.removeListener('end', onend)
        reject(er)
      }
      const ondata = value => {
        this.removeListener('error', onerr)
        this.removeListener('end', onend)
        this.pause()
        resolve({ value: value, done: !!this[EOF] })
      }
      const onend = () => {
        this.removeListener('error', onerr)
        this.removeListener('data', ondata)
        resolve({ done: true })
      }
      const ondestroy = () => onerr(new Error('stream destroyed'))
      return new Promise((res, rej) => {
        reject = rej
        resolve = res
        this.once(DESTROYED, ondestroy)
        this.once('error', onerr)
        this.once('end', onend)
        this.once('data', ondata)
      })
    }

    return { next }
  }

  // for (let chunk of stream)
  [ITERATOR] () {
    const next = () => {
      const value = this.read()
      const done = value === null
      return { value, done }
    }
    return { next }
  }

  destroy (er) {
    if (this[DESTROYED]) {
      if (er)
        this.emit('error', er)
      else
        this.emit(DESTROYED)
      return this
    }

    this[DESTROYED] = true

    // throw away all buffered data, it's never coming out
    this.buffer = new Yallist()
    this[BUFFERLENGTH] = 0

    if (typeof this.close === 'function' && !this[CLOSED])
      this.close()

    if (er)
      this.emit('error', er)
    else // if no error to emit, still reject pending promises
      this.emit(DESTROYED)

    return this
  }

  static isStream (s) {
    return !!s && (s instanceof Minipass || s instanceof Stream ||
      s instanceof EE && (
        typeof s.pipe === 'function' || // readable
        (typeof s.write === 'function' && typeof s.end === 'function') // writable
      ))
  }
}


/***/ }),

/***/ 21465:
/***/ ((module) => {

"use strict";

module.exports = function (Yallist) {
  Yallist.prototype[Symbol.iterator] = function* () {
    for (let walker = this.head; walker; walker = walker.next) {
      yield walker.value
    }
  }
}


/***/ }),

/***/ 20315:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

module.exports = Yallist

Yallist.Node = Node
Yallist.create = Yallist

function Yallist (list) {
  var self = this
  if (!(self instanceof Yallist)) {
    self = new Yallist()
  }

  self.tail = null
  self.head = null
  self.length = 0

  if (list && typeof list.forEach === 'function') {
    list.forEach(function (item) {
      self.push(item)
    })
  } else if (arguments.length > 0) {
    for (var i = 0, l = arguments.length; i < l; i++) {
      self.push(arguments[i])
    }
  }

  return self
}

Yallist.prototype.removeNode = function (node) {
  if (node.list !== this) {
    throw new Error('removing node which does not belong to this list')
  }

  var next = node.next
  var prev = node.prev

  if (next) {
    next.prev = prev
  }

  if (prev) {
    prev.next = next
  }

  if (node === this.head) {
    this.head = next
  }
  if (node === this.tail) {
    this.tail = prev
  }

  node.list.length--
  node.next = null
  node.prev = null
  node.list = null

  return next
}

Yallist.prototype.unshiftNode = function (node) {
  if (node === this.head) {
    return
  }

  if (node.list) {
    node.list.removeNode(node)
  }

  var head = this.head
  node.list = this
  node.next = head
  if (head) {
    head.prev = node
  }

  this.head = node
  if (!this.tail) {
    this.tail = node
  }
  this.length++
}

Yallist.prototype.pushNode = function (node) {
  if (node === this.tail) {
    return
  }

  if (node.list) {
    node.list.removeNode(node)
  }

  var tail = this.tail
  node.list = this
  node.prev = tail
  if (tail) {
    tail.next = node
  }

  this.tail = node
  if (!this.head) {
    this.head = node
  }
  this.length++
}

Yallist.prototype.push = function () {
  for (var i = 0, l = arguments.length; i < l; i++) {
    push(this, arguments[i])
  }
  return this.length
}

Yallist.prototype.unshift = function () {
  for (var i = 0, l = arguments.length; i < l; i++) {
    unshift(this, arguments[i])
  }
  return this.length
}

Yallist.prototype.pop = function () {
  if (!this.tail) {
    return undefined
  }

  var res = this.tail.value
  this.tail = this.tail.prev
  if (this.tail) {
    this.tail.next = null
  } else {
    this.head = null
  }
  this.length--
  return res
}

Yallist.prototype.shift = function () {
  if (!this.head) {
    return undefined
  }

  var res = this.head.value
  this.head = this.head.next
  if (this.head) {
    this.head.prev = null
  } else {
    this.tail = null
  }
  this.length--
  return res
}

Yallist.prototype.forEach = function (fn, thisp) {
  thisp = thisp || this
  for (var walker = this.head, i = 0; walker !== null; i++) {
    fn.call(thisp, walker.value, i, this)
    walker = walker.next
  }
}

Yallist.prototype.forEachReverse = function (fn, thisp) {
  thisp = thisp || this
  for (var walker = this.tail, i = this.length - 1; walker !== null; i--) {
    fn.call(thisp, walker.value, i, this)
    walker = walker.prev
  }
}

Yallist.prototype.get = function (n) {
  for (var i = 0, walker = this.head; walker !== null && i < n; i++) {
    // abort out of the list early if we hit a cycle
    walker = walker.next
  }
  if (i === n && walker !== null) {
    return walker.value
  }
}

Yallist.prototype.getReverse = function (n) {
  for (var i = 0, walker = this.tail; walker !== null && i < n; i++) {
    // abort out of the list early if we hit a cycle
    walker = walker.prev
  }
  if (i === n && walker !== null) {
    return walker.value
  }
}

Yallist.prototype.map = function (fn, thisp) {
  thisp = thisp || this
  var res = new Yallist()
  for (var walker = this.head; walker !== null;) {
    res.push(fn.call(thisp, walker.value, this))
    walker = walker.next
  }
  return res
}

Yallist.prototype.mapReverse = function (fn, thisp) {
  thisp = thisp || this
  var res = new Yallist()
  for (var walker = this.tail; walker !== null;) {
    res.push(fn.call(thisp, walker.value, this))
    walker = walker.prev
  }
  return res
}

Yallist.prototype.reduce = function (fn, initial) {
  var acc
  var walker = this.head
  if (arguments.length > 1) {
    acc = initial
  } else if (this.head) {
    walker = this.head.next
    acc = this.head.value
  } else {
    throw new TypeError('Reduce of empty list with no initial value')
  }

  for (var i = 0; walker !== null; i++) {
    acc = fn(acc, walker.value, i)
    walker = walker.next
  }

  return acc
}

Yallist.prototype.reduceReverse = function (fn, initial) {
  var acc
  var walker = this.tail
  if (arguments.length > 1) {
    acc = initial
  } else if (this.tail) {
    walker = this.tail.prev
    acc = this.tail.value
  } else {
    throw new TypeError('Reduce of empty list with no initial value')
  }

  for (var i = this.length - 1; walker !== null; i--) {
    acc = fn(acc, walker.value, i)
    walker = walker.prev
  }

  return acc
}

Yallist.prototype.toArray = function () {
  var arr = new Array(this.length)
  for (var i = 0, walker = this.head; walker !== null; i++) {
    arr[i] = walker.value
    walker = walker.next
  }
  return arr
}

Yallist.prototype.toArrayReverse = function () {
  var arr = new Array(this.length)
  for (var i = 0, walker = this.tail; walker !== null; i++) {
    arr[i] = walker.value
    walker = walker.prev
  }
  return arr
}

Yallist.prototype.slice = function (from, to) {
  to = to || this.length
  if (to < 0) {
    to += this.length
  }
  from = from || 0
  if (from < 0) {
    from += this.length
  }
  var ret = new Yallist()
  if (to < from || to < 0) {
    return ret
  }
  if (from < 0) {
    from = 0
  }
  if (to > this.length) {
    to = this.length
  }
  for (var i = 0, walker = this.head; walker !== null && i < from; i++) {
    walker = walker.next
  }
  for (; walker !== null && i < to; i++, walker = walker.next) {
    ret.push(walker.value)
  }
  return ret
}

Yallist.prototype.sliceReverse = function (from, to) {
  to = to || this.length
  if (to < 0) {
    to += this.length
  }
  from = from || 0
  if (from < 0) {
    from += this.length
  }
  var ret = new Yallist()
  if (to < from || to < 0) {
    return ret
  }
  if (from < 0) {
    from = 0
  }
  if (to > this.length) {
    to = this.length
  }
  for (var i = this.length, walker = this.tail; walker !== null && i > to; i--) {
    walker = walker.prev
  }
  for (; walker !== null && i > from; i--, walker = walker.prev) {
    ret.push(walker.value)
  }
  return ret
}

Yallist.prototype.splice = function (start, deleteCount, ...nodes) {
  if (start > this.length) {
    start = this.length - 1
  }
  if (start < 0) {
    start = this.length + start;
  }

  for (var i = 0, walker = this.head; walker !== null && i < start; i++) {
    walker = walker.next
  }

  var ret = []
  for (var i = 0; walker && i < deleteCount; i++) {
    ret.push(walker.value)
    walker = this.removeNode(walker)
  }
  if (walker === null) {
    walker = this.tail
  }

  if (walker !== this.head && walker !== this.tail) {
    walker = walker.prev
  }

  for (var i = 0; i < nodes.length; i++) {
    walker = insert(this, walker, nodes[i])
  }
  return ret;
}

Yallist.prototype.reverse = function () {
  var head = this.head
  var tail = this.tail
  for (var walker = head; walker !== null; walker = walker.prev) {
    var p = walker.prev
    walker.prev = walker.next
    walker.next = p
  }
  this.head = tail
  this.tail = head
  return this
}

function insert (self, node, value) {
  var inserted = node === self.head ?
    new Node(value, null, node, self) :
    new Node(value, node, node.next, self)

  if (inserted.next === null) {
    self.tail = inserted
  }
  if (inserted.prev === null) {
    self.head = inserted
  }

  self.length++

  return inserted
}

function push (self, item) {
  self.tail = new Node(item, self.tail, null, self)
  if (!self.head) {
    self.head = self.tail
  }
  self.length++
}

function unshift (self, item) {
  self.head = new Node(item, null, self.head, self)
  if (!self.tail) {
    self.tail = self.head
  }
  self.length++
}

function Node (value, prev, next, list) {
  if (!(this instanceof Node)) {
    return new Node(value, prev, next, list)
  }

  this.list = list
  this.value = value

  if (prev) {
    prev.next = this
    this.prev = prev
  } else {
    this.prev = null
  }

  if (next) {
    next.prev = this
    this.next = next
  } else {
    this.next = null
  }
}

try {
  // add if support for Symbol.iterator is present
  __webpack_require__(21465)(Yallist)
} catch (er) {}


/***/ }),

/***/ 20883:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

// Update with any zlib constants that are added or changed in the future.
// Node v6 didn't export this, so we just hard code the version and rely
// on all the other hard-coded values from zlib v4736.  When node v6
// support drops, we can just export the realZlibConstants object.
const realZlibConstants = __webpack_require__(78761).constants ||
  /* istanbul ignore next */ { ZLIB_VERNUM: 4736 }

module.exports = Object.freeze(Object.assign(Object.create(null), {
  Z_NO_FLUSH: 0,
  Z_PARTIAL_FLUSH: 1,
  Z_SYNC_FLUSH: 2,
  Z_FULL_FLUSH: 3,
  Z_FINISH: 4,
  Z_BLOCK: 5,
  Z_OK: 0,
  Z_STREAM_END: 1,
  Z_NEED_DICT: 2,
  Z_ERRNO: -1,
  Z_STREAM_ERROR: -2,
  Z_DATA_ERROR: -3,
  Z_MEM_ERROR: -4,
  Z_BUF_ERROR: -5,
  Z_VERSION_ERROR: -6,
  Z_NO_COMPRESSION: 0,
  Z_BEST_SPEED: 1,
  Z_BEST_COMPRESSION: 9,
  Z_DEFAULT_COMPRESSION: -1,
  Z_FILTERED: 1,
  Z_HUFFMAN_ONLY: 2,
  Z_RLE: 3,
  Z_FIXED: 4,
  Z_DEFAULT_STRATEGY: 0,
  DEFLATE: 1,
  INFLATE: 2,
  GZIP: 3,
  GUNZIP: 4,
  DEFLATERAW: 5,
  INFLATERAW: 6,
  UNZIP: 7,
  BROTLI_DECODE: 8,
  BROTLI_ENCODE: 9,
  Z_MIN_WINDOWBITS: 8,
  Z_MAX_WINDOWBITS: 15,
  Z_DEFAULT_WINDOWBITS: 15,
  Z_MIN_CHUNK: 64,
  Z_MAX_CHUNK: Infinity,
  Z_DEFAULT_CHUNK: 16384,
  Z_MIN_MEMLEVEL: 1,
  Z_MAX_MEMLEVEL: 9,
  Z_DEFAULT_MEMLEVEL: 8,
  Z_MIN_LEVEL: -1,
  Z_MAX_LEVEL: 9,
  Z_DEFAULT_LEVEL: -1,
  BROTLI_OPERATION_PROCESS: 0,
  BROTLI_OPERATION_FLUSH: 1,
  BROTLI_OPERATION_FINISH: 2,
  BROTLI_OPERATION_EMIT_METADATA: 3,
  BROTLI_MODE_GENERIC: 0,
  BROTLI_MODE_TEXT: 1,
  BROTLI_MODE_FONT: 2,
  BROTLI_DEFAULT_MODE: 0,
  BROTLI_MIN_QUALITY: 0,
  BROTLI_MAX_QUALITY: 11,
  BROTLI_DEFAULT_QUALITY: 11,
  BROTLI_MIN_WINDOW_BITS: 10,
  BROTLI_MAX_WINDOW_BITS: 24,
  BROTLI_LARGE_MAX_WINDOW_BITS: 30,
  BROTLI_DEFAULT_WINDOW: 22,
  BROTLI_MIN_INPUT_BLOCK_BITS: 16,
  BROTLI_MAX_INPUT_BLOCK_BITS: 24,
  BROTLI_PARAM_MODE: 0,
  BROTLI_PARAM_QUALITY: 1,
  BROTLI_PARAM_LGWIN: 2,
  BROTLI_PARAM_LGBLOCK: 3,
  BROTLI_PARAM_DISABLE_LITERAL_CONTEXT_MODELING: 4,
  BROTLI_PARAM_SIZE_HINT: 5,
  BROTLI_PARAM_LARGE_WINDOW: 6,
  BROTLI_PARAM_NPOSTFIX: 7,
  BROTLI_PARAM_NDIRECT: 8,
  BROTLI_DECODER_RESULT_ERROR: 0,
  BROTLI_DECODER_RESULT_SUCCESS: 1,
  BROTLI_DECODER_RESULT_NEEDS_MORE_INPUT: 2,
  BROTLI_DECODER_RESULT_NEEDS_MORE_OUTPUT: 3,
  BROTLI_DECODER_PARAM_DISABLE_RING_BUFFER_REALLOCATION: 0,
  BROTLI_DECODER_PARAM_LARGE_WINDOW: 1,
  BROTLI_DECODER_NO_ERROR: 0,
  BROTLI_DECODER_SUCCESS: 1,
  BROTLI_DECODER_NEEDS_MORE_INPUT: 2,
  BROTLI_DECODER_NEEDS_MORE_OUTPUT: 3,
  BROTLI_DECODER_ERROR_FORMAT_EXUBERANT_NIBBLE: -1,
  BROTLI_DECODER_ERROR_FORMAT_RESERVED: -2,
  BROTLI_DECODER_ERROR_FORMAT_EXUBERANT_META_NIBBLE: -3,
  BROTLI_DECODER_ERROR_FORMAT_SIMPLE_HUFFMAN_ALPHABET: -4,
  BROTLI_DECODER_ERROR_FORMAT_SIMPLE_HUFFMAN_SAME: -5,
  BROTLI_DECODER_ERROR_FORMAT_CL_SPACE: -6,
  BROTLI_DECODER_ERROR_FORMAT_HUFFMAN_SPACE: -7,
  BROTLI_DECODER_ERROR_FORMAT_CONTEXT_MAP_REPEAT: -8,
  BROTLI_DECODER_ERROR_FORMAT_BLOCK_LENGTH_1: -9,
  BROTLI_DECODER_ERROR_FORMAT_BLOCK_LENGTH_2: -10,
  BROTLI_DECODER_ERROR_FORMAT_TRANSFORM: -11,
  BROTLI_DECODER_ERROR_FORMAT_DICTIONARY: -12,
  BROTLI_DECODER_ERROR_FORMAT_WINDOW_BITS: -13,
  BROTLI_DECODER_ERROR_FORMAT_PADDING_1: -14,
  BROTLI_DECODER_ERROR_FORMAT_PADDING_2: -15,
  BROTLI_DECODER_ERROR_FORMAT_DISTANCE: -16,
  BROTLI_DECODER_ERROR_DICTIONARY_NOT_SET: -19,
  BROTLI_DECODER_ERROR_INVALID_ARGUMENTS: -20,
  BROTLI_DECODER_ERROR_ALLOC_CONTEXT_MODES: -21,
  BROTLI_DECODER_ERROR_ALLOC_TREE_GROUPS: -22,
  BROTLI_DECODER_ERROR_ALLOC_CONTEXT_MAP: -25,
  BROTLI_DECODER_ERROR_ALLOC_RING_BUFFER_1: -26,
  BROTLI_DECODER_ERROR_ALLOC_RING_BUFFER_2: -27,
  BROTLI_DECODER_ERROR_ALLOC_BLOCK_TYPE_TREES: -30,
  BROTLI_DECODER_ERROR_UNREACHABLE: -31,
}, realZlibConstants))


/***/ }),

/***/ 31650:
/***/ ((__unused_webpack_module, exports, __webpack_require__) => {

"use strict";


const assert = __webpack_require__(42357)
const Buffer = __webpack_require__(64293).Buffer
const realZlib = __webpack_require__(78761)

const constants = exports.constants = __webpack_require__(20883)
const Minipass = __webpack_require__(30454)

const OriginalBufferConcat = Buffer.concat

const _superWrite = Symbol('_superWrite')
class ZlibError extends Error {
  constructor (err) {
    super('zlib: ' + err.message)
    this.code = err.code
    this.errno = err.errno
    /* istanbul ignore if */
    if (!this.code)
      this.code = 'ZLIB_ERROR'

    this.message = 'zlib: ' + err.message
    Error.captureStackTrace(this, this.constructor)
  }

  get name () {
    return 'ZlibError'
  }
}

// the Zlib class they all inherit from
// This thing manages the queue of requests, and returns
// true or false if there is anything in the queue when
// you call the .write() method.
const _opts = Symbol('opts')
const _flushFlag = Symbol('flushFlag')
const _finishFlushFlag = Symbol('finishFlushFlag')
const _fullFlushFlag = Symbol('fullFlushFlag')
const _handle = Symbol('handle')
const _onError = Symbol('onError')
const _sawError = Symbol('sawError')
const _level = Symbol('level')
const _strategy = Symbol('strategy')
const _ended = Symbol('ended')
const _defaultFullFlush = Symbol('_defaultFullFlush')

class ZlibBase extends Minipass {
  constructor (opts, mode) {
    if (!opts || typeof opts !== 'object')
      throw new TypeError('invalid options for ZlibBase constructor')

    super(opts)
    this[_sawError] = false
    this[_ended] = false
    this[_opts] = opts

    this[_flushFlag] = opts.flush
    this[_finishFlushFlag] = opts.finishFlush
    // this will throw if any options are invalid for the class selected
    try {
      this[_handle] = new realZlib[mode](opts)
    } catch (er) {
      // make sure that all errors get decorated properly
      throw new ZlibError(er)
    }

    this[_onError] = (err) => {
      // no sense raising multiple errors, since we abort on the first one.
      if (this[_sawError])
        return

      this[_sawError] = true

      // there is no way to cleanly recover.
      // continuing only obscures problems.
      this.close()
      this.emit('error', err)
    }

    this[_handle].on('error', er => this[_onError](new ZlibError(er)))
    this.once('end', () => this.close)
  }

  close () {
    if (this[_handle]) {
      this[_handle].close()
      this[_handle] = null
      this.emit('close')
    }
  }

  reset () {
    if (!this[_sawError]) {
      assert(this[_handle], 'zlib binding closed')
      return this[_handle].reset()
    }
  }

  flush (flushFlag) {
    if (this.ended)
      return

    if (typeof flushFlag !== 'number')
      flushFlag = this[_fullFlushFlag]
    this.write(Object.assign(Buffer.alloc(0), { [_flushFlag]: flushFlag }))
  }

  end (chunk, encoding, cb) {
    if (chunk)
      this.write(chunk, encoding)
    this.flush(this[_finishFlushFlag])
    this[_ended] = true
    return super.end(null, null, cb)
  }

  get ended () {
    return this[_ended]
  }

  write (chunk, encoding, cb) {
    // process the chunk using the sync process
    // then super.write() all the outputted chunks
    if (typeof encoding === 'function')
      cb = encoding, encoding = 'utf8'

    if (typeof chunk === 'string')
      chunk = Buffer.from(chunk, encoding)

    if (this[_sawError])
      return
    assert(this[_handle], 'zlib binding closed')

    // _processChunk tries to .close() the native handle after it's done, so we
    // intercept that by temporarily making it a no-op.
    const nativeHandle = this[_handle]._handle
    const originalNativeClose = nativeHandle.close
    nativeHandle.close = () => {}
    const originalClose = this[_handle].close
    this[_handle].close = () => {}
    // It also calls `Buffer.concat()` at the end, which may be convenient
    // for some, but which we are not interested in as it slows us down.
    Buffer.concat = (args) => args
    let result
    try {
      const flushFlag = typeof chunk[_flushFlag] === 'number'
        ? chunk[_flushFlag] : this[_flushFlag]
      result = this[_handle]._processChunk(chunk, flushFlag)
      // if we don't throw, reset it back how it was
      Buffer.concat = OriginalBufferConcat
    } catch (err) {
      // or if we do, put Buffer.concat() back before we emit error
      // Error events call into user code, which may call Buffer.concat()
      Buffer.concat = OriginalBufferConcat
      this[_onError](new ZlibError(err))
    } finally {
      if (this[_handle]) {
        // Core zlib resets `_handle` to null after attempting to close the
        // native handle. Our no-op handler prevented actual closure, but we
        // need to restore the `._handle` property.
        this[_handle]._handle = nativeHandle
        nativeHandle.close = originalNativeClose
        this[_handle].close = originalClose
        // `_processChunk()` adds an 'error' listener. If we don't remove it
        // after each call, these handlers start piling up.
        this[_handle].removeAllListeners('error')
        // make sure OUR error listener is still attached tho
      }
    }

    if (this[_handle])
      this[_handle].on('error', er => this[_onError](new ZlibError(er)))

    let writeReturn
    if (result) {
      if (Array.isArray(result) && result.length > 0) {
        // The first buffer is always `handle._outBuffer`, which would be
        // re-used for later invocations; so, we always have to copy that one.
        writeReturn = this[_superWrite](Buffer.from(result[0]))
        for (let i = 1; i < result.length; i++) {
          writeReturn = this[_superWrite](result[i])
        }
      } else {
        writeReturn = this[_superWrite](Buffer.from(result))
      }
    }

    if (cb)
      cb()
    return writeReturn
  }

  [_superWrite] (data) {
    return super.write(data)
  }
}

class Zlib extends ZlibBase {
  constructor (opts, mode) {
    opts = opts || {}

    opts.flush = opts.flush || constants.Z_NO_FLUSH
    opts.finishFlush = opts.finishFlush || constants.Z_FINISH
    super(opts, mode)

    this[_fullFlushFlag] = constants.Z_FULL_FLUSH
    this[_level] = opts.level
    this[_strategy] = opts.strategy
  }

  params (level, strategy) {
    if (this[_sawError])
      return

    if (!this[_handle])
      throw new Error('cannot switch params when binding is closed')

    // no way to test this without also not supporting params at all
    /* istanbul ignore if */
    if (!this[_handle].params)
      throw new Error('not supported in this implementation')

    if (this[_level] !== level || this[_strategy] !== strategy) {
      this.flush(constants.Z_SYNC_FLUSH)
      assert(this[_handle], 'zlib binding closed')
      // .params() calls .flush(), but the latter is always async in the
      // core zlib. We override .flush() temporarily to intercept that and
      // flush synchronously.
      const origFlush = this[_handle].flush
      this[_handle].flush = (flushFlag, cb) => {
        this.flush(flushFlag)
        cb()
      }
      try {
        this[_handle].params(level, strategy)
      } finally {
        this[_handle].flush = origFlush
      }
      /* istanbul ignore else */
      if (this[_handle]) {
        this[_level] = level
        this[_strategy] = strategy
      }
    }
  }
}

// minimal 2-byte header
class Deflate extends Zlib {
  constructor (opts) {
    super(opts, 'Deflate')
  }
}

class Inflate extends Zlib {
  constructor (opts) {
    super(opts, 'Inflate')
  }
}

// gzip - bigger header, same deflate compression
const _portable = Symbol('_portable')
class Gzip extends Zlib {
  constructor (opts) {
    super(opts, 'Gzip')
    this[_portable] = opts && !!opts.portable
  }

  [_superWrite] (data) {
    if (!this[_portable])
      return super[_superWrite](data)

    // we'll always get the header emitted in one first chunk
    // overwrite the OS indicator byte with 0xFF
    this[_portable] = false
    data[9] = 255
    return super[_superWrite](data)
  }
}

class Gunzip extends Zlib {
  constructor (opts) {
    super(opts, 'Gunzip')
  }
}

// raw - no header
class DeflateRaw extends Zlib {
  constructor (opts) {
    super(opts, 'DeflateRaw')
  }
}

class InflateRaw extends Zlib {
  constructor (opts) {
    super(opts, 'InflateRaw')
  }
}

// auto-detect header.
class Unzip extends Zlib {
  constructor (opts) {
    super(opts, 'Unzip')
  }
}

class Brotli extends ZlibBase {
  constructor (opts, mode) {
    opts = opts || {}

    opts.flush = opts.flush || constants.BROTLI_OPERATION_PROCESS
    opts.finishFlush = opts.finishFlush || constants.BROTLI_OPERATION_FINISH

    super(opts, mode)

    this[_fullFlushFlag] = constants.BROTLI_OPERATION_FLUSH
  }
}

class BrotliCompress extends Brotli {
  constructor (opts) {
    super(opts, 'BrotliCompress')
  }
}

class BrotliDecompress extends Brotli {
  constructor (opts) {
    super(opts, 'BrotliDecompress')
  }
}

exports.Deflate = Deflate
exports.Inflate = Inflate
exports.Gzip = Gzip
exports.Gunzip = Gunzip
exports.DeflateRaw = DeflateRaw
exports.InflateRaw = InflateRaw
exports.Unzip = Unzip
/* istanbul ignore else */
if (typeof realZlib.BrotliCompress === 'function') {
  exports.BrotliCompress = BrotliCompress
  exports.BrotliDecompress = BrotliDecompress
} else {
  exports.BrotliCompress = exports.BrotliDecompress = class {
    constructor () {
      throw new Error('Brotli is not supported in this version of Node.js')
    }
  }
}


/***/ }),

/***/ 30454:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

const EE = __webpack_require__(28614)
const Stream = __webpack_require__(92413)
const Yallist = __webpack_require__(16666)
const SD = __webpack_require__(24304).StringDecoder

const EOF = Symbol('EOF')
const MAYBE_EMIT_END = Symbol('maybeEmitEnd')
const EMITTED_END = Symbol('emittedEnd')
const EMITTING_END = Symbol('emittingEnd')
const CLOSED = Symbol('closed')
const READ = Symbol('read')
const FLUSH = Symbol('flush')
const FLUSHCHUNK = Symbol('flushChunk')
const ENCODING = Symbol('encoding')
const DECODER = Symbol('decoder')
const FLOWING = Symbol('flowing')
const PAUSED = Symbol('paused')
const RESUME = Symbol('resume')
const BUFFERLENGTH = Symbol('bufferLength')
const BUFFERPUSH = Symbol('bufferPush')
const BUFFERSHIFT = Symbol('bufferShift')
const OBJECTMODE = Symbol('objectMode')
const DESTROYED = Symbol('destroyed')

// TODO remove when Node v8 support drops
const doIter = global._MP_NO_ITERATOR_SYMBOLS_  !== '1'
const ASYNCITERATOR = doIter && Symbol.asyncIterator
  || Symbol('asyncIterator not implemented')
const ITERATOR = doIter && Symbol.iterator
  || Symbol('iterator not implemented')

// events that mean 'the stream is over'
// these are treated specially, and re-emitted
// if they are listened for after emitting.
const isEndish = ev =>
  ev === 'end' ||
  ev === 'finish' ||
  ev === 'prefinish'

const isArrayBuffer = b => b instanceof ArrayBuffer ||
  typeof b === 'object' &&
  b.constructor &&
  b.constructor.name === 'ArrayBuffer' &&
  b.byteLength >= 0

const isArrayBufferView = b => !Buffer.isBuffer(b) && ArrayBuffer.isView(b)

module.exports = class Minipass extends Stream {
  constructor (options) {
    super()
    this[FLOWING] = false
    // whether we're explicitly paused
    this[PAUSED] = false
    this.pipes = new Yallist()
    this.buffer = new Yallist()
    this[OBJECTMODE] = options && options.objectMode || false
    if (this[OBJECTMODE])
      this[ENCODING] = null
    else
      this[ENCODING] = options && options.encoding || null
    if (this[ENCODING] === 'buffer')
      this[ENCODING] = null
    this[DECODER] = this[ENCODING] ? new SD(this[ENCODING]) : null
    this[EOF] = false
    this[EMITTED_END] = false
    this[EMITTING_END] = false
    this[CLOSED] = false
    this.writable = true
    this.readable = true
    this[BUFFERLENGTH] = 0
    this[DESTROYED] = false
  }

  get bufferLength () { return this[BUFFERLENGTH] }

  get encoding () { return this[ENCODING] }
  set encoding (enc) {
    if (this[OBJECTMODE])
      throw new Error('cannot set encoding in objectMode')

    if (this[ENCODING] && enc !== this[ENCODING] &&
        (this[DECODER] && this[DECODER].lastNeed || this[BUFFERLENGTH]))
      throw new Error('cannot change encoding')

    if (this[ENCODING] !== enc) {
      this[DECODER] = enc ? new SD(enc) : null
      if (this.buffer.length)
        this.buffer = this.buffer.map(chunk => this[DECODER].write(chunk))
    }

    this[ENCODING] = enc
  }

  setEncoding (enc) {
    this.encoding = enc
  }

  get objectMode () { return this[OBJECTMODE] }
  set objectMode (om) { this[OBJECTMODE] = this[OBJECTMODE] || !!om }

  write (chunk, encoding, cb) {
    if (this[EOF])
      throw new Error('write after end')

    if (this[DESTROYED]) {
      this.emit('error', Object.assign(
        new Error('Cannot call write after a stream was destroyed'),
        { code: 'ERR_STREAM_DESTROYED' }
      ))
      return true
    }

    if (typeof encoding === 'function')
      cb = encoding, encoding = 'utf8'

    if (!encoding)
      encoding = 'utf8'

    // convert array buffers and typed array views into buffers
    // at some point in the future, we may want to do the opposite!
    // leave strings and buffers as-is
    // anything else switches us into object mode
    if (!this[OBJECTMODE] && !Buffer.isBuffer(chunk)) {
      if (isArrayBufferView(chunk))
        chunk = Buffer.from(chunk.buffer, chunk.byteOffset, chunk.byteLength)
      else if (isArrayBuffer(chunk))
        chunk = Buffer.from(chunk)
      else if (typeof chunk !== 'string')
        // use the setter so we throw if we have encoding set
        this.objectMode = true
    }

    // this ensures at this point that the chunk is a buffer or string
    // don't buffer it up or send it to the decoder
    if (!this.objectMode && !chunk.length) {
      if (this[BUFFERLENGTH] !== 0)
        this.emit('readable')
      if (cb)
        cb()
      return this.flowing
    }

    // fast-path writing strings of same encoding to a stream with
    // an empty buffer, skipping the buffer/decoder dance
    if (typeof chunk === 'string' && !this[OBJECTMODE] &&
        // unless it is a string already ready for us to use
        !(encoding === this[ENCODING] && !this[DECODER].lastNeed)) {
      chunk = Buffer.from(chunk, encoding)
    }

    if (Buffer.isBuffer(chunk) && this[ENCODING])
      chunk = this[DECODER].write(chunk)

    if (this.flowing) {
      // if we somehow have something in the buffer, but we think we're
      // flowing, then we need to flush all that out first, or we get
      // chunks coming in out of order.  Can't emit 'drain' here though,
      // because we're mid-write, so that'd be bad.
      if (this[BUFFERLENGTH] !== 0)
        this[FLUSH](true)
      this.emit('data', chunk)
    } else
      this[BUFFERPUSH](chunk)

    if (this[BUFFERLENGTH] !== 0)
      this.emit('readable')

    if (cb)
      cb()

    return this.flowing
  }

  read (n) {
    if (this[DESTROYED])
      return null

    try {
      if (this[BUFFERLENGTH] === 0 || n === 0 || n > this[BUFFERLENGTH])
        return null

      if (this[OBJECTMODE])
        n = null

      if (this.buffer.length > 1 && !this[OBJECTMODE]) {
        if (this.encoding)
          this.buffer = new Yallist([
            Array.from(this.buffer).join('')
          ])
        else
          this.buffer = new Yallist([
            Buffer.concat(Array.from(this.buffer), this[BUFFERLENGTH])
          ])
      }

      return this[READ](n || null, this.buffer.head.value)
    } finally {
      this[MAYBE_EMIT_END]()
    }
  }

  [READ] (n, chunk) {
    if (n === chunk.length || n === null)
      this[BUFFERSHIFT]()
    else {
      this.buffer.head.value = chunk.slice(n)
      chunk = chunk.slice(0, n)
      this[BUFFERLENGTH] -= n
    }

    this.emit('data', chunk)

    if (!this.buffer.length && !this[EOF])
      this.emit('drain')

    return chunk
  }

  end (chunk, encoding, cb) {
    if (typeof chunk === 'function')
      cb = chunk, chunk = null
    if (typeof encoding === 'function')
      cb = encoding, encoding = 'utf8'
    if (chunk)
      this.write(chunk, encoding)
    if (cb)
      this.once('end', cb)
    this[EOF] = true
    this.writable = false

    // if we haven't written anything, then go ahead and emit,
    // even if we're not reading.
    // we'll re-emit if a new 'end' listener is added anyway.
    // This makes MP more suitable to write-only use cases.
    if (this.flowing || !this[PAUSED])
      this[MAYBE_EMIT_END]()
    return this
  }

  // don't let the internal resume be overwritten
  [RESUME] () {
    if (this[DESTROYED])
      return

    this[PAUSED] = false
    this[FLOWING] = true
    this.emit('resume')
    if (this.buffer.length)
      this[FLUSH]()
    else if (this[EOF])
      this[MAYBE_EMIT_END]()
    else
      this.emit('drain')
  }

  resume () {
    return this[RESUME]()
  }

  pause () {
    this[FLOWING] = false
    this[PAUSED] = true
  }

  get destroyed () {
    return this[DESTROYED]
  }

  get flowing () {
    return this[FLOWING]
  }

  get paused () {
    return this[PAUSED]
  }

  [BUFFERPUSH] (chunk) {
    if (this[OBJECTMODE])
      this[BUFFERLENGTH] += 1
    else
      this[BUFFERLENGTH] += chunk.length
    return this.buffer.push(chunk)
  }

  [BUFFERSHIFT] () {
    if (this.buffer.length) {
      if (this[OBJECTMODE])
        this[BUFFERLENGTH] -= 1
      else
        this[BUFFERLENGTH] -= this.buffer.head.value.length
    }
    return this.buffer.shift()
  }

  [FLUSH] (noDrain) {
    do {} while (this[FLUSHCHUNK](this[BUFFERSHIFT]()))

    if (!noDrain && !this.buffer.length && !this[EOF])
      this.emit('drain')
  }

  [FLUSHCHUNK] (chunk) {
    return chunk ? (this.emit('data', chunk), this.flowing) : false
  }

  pipe (dest, opts) {
    if (this[DESTROYED])
      return

    const ended = this[EMITTED_END]
    opts = opts || {}
    if (dest === process.stdout || dest === process.stderr)
      opts.end = false
    else
      opts.end = opts.end !== false

    const p = { dest: dest, opts: opts, ondrain: _ => this[RESUME]() }
    this.pipes.push(p)

    dest.on('drain', p.ondrain)
    this[RESUME]()
    // piping an ended stream ends immediately
    if (ended && p.opts.end)
      p.dest.end()
    return dest
  }

  addListener (ev, fn) {
    return this.on(ev, fn)
  }

  on (ev, fn) {
    try {
      return super.on(ev, fn)
    } finally {
      if (ev === 'data' && !this.pipes.length && !this.flowing)
        this[RESUME]()
      else if (isEndish(ev) && this[EMITTED_END]) {
        super.emit(ev)
        this.removeAllListeners(ev)
      }
    }
  }

  get emittedEnd () {
    return this[EMITTED_END]
  }

  [MAYBE_EMIT_END] () {
    if (!this[EMITTING_END] &&
        !this[EMITTED_END] &&
        !this[DESTROYED] &&
        this.buffer.length === 0 &&
        this[EOF]) {
      this[EMITTING_END] = true
      this.emit('end')
      this.emit('prefinish')
      this.emit('finish')
      if (this[CLOSED])
        this.emit('close')
      this[EMITTING_END] = false
    }
  }

  emit (ev, data) {
    // error and close are only events allowed after calling destroy()
    if (ev !== 'error' && ev !== 'close' && ev !== DESTROYED && this[DESTROYED])
      return
    else if (ev === 'data') {
      if (!data)
        return

      if (this.pipes.length)
        this.pipes.forEach(p =>
          p.dest.write(data) === false && this.pause())
    } else if (ev === 'end') {
      // only actual end gets this treatment
      if (this[EMITTED_END] === true)
        return

      this[EMITTED_END] = true
      this.readable = false

      if (this[DECODER]) {
        data = this[DECODER].end()
        if (data) {
          this.pipes.forEach(p => p.dest.write(data))
          super.emit('data', data)
        }
      }

      this.pipes.forEach(p => {
        p.dest.removeListener('drain', p.ondrain)
        if (p.opts.end)
          p.dest.end()
      })
    } else if (ev === 'close') {
      this[CLOSED] = true
      // don't emit close before 'end' and 'finish'
      if (!this[EMITTED_END] && !this[DESTROYED])
        return
    }

    // TODO: replace with a spread operator when Node v4 support drops
    const args = new Array(arguments.length)
    args[0] = ev
    args[1] = data
    if (arguments.length > 2) {
      for (let i = 2; i < arguments.length; i++) {
        args[i] = arguments[i]
      }
    }

    try {
      return super.emit.apply(this, args)
    } finally {
      if (!isEndish(ev))
        this[MAYBE_EMIT_END]()
      else
        this.removeAllListeners(ev)
    }
  }

  // const all = await stream.collect()
  collect () {
    const buf = []
    if (!this[OBJECTMODE])
      buf.dataLength = 0
    // set the promise first, in case an error is raised
    // by triggering the flow here.
    const p = this.promise()
    this.on('data', c => {
      buf.push(c)
      if (!this[OBJECTMODE])
        buf.dataLength += c.length
    })
    return p.then(() => buf)
  }

  // const data = await stream.concat()
  concat () {
    return this[OBJECTMODE]
      ? Promise.reject(new Error('cannot concat in objectMode'))
      : this.collect().then(buf =>
          this[OBJECTMODE]
            ? Promise.reject(new Error('cannot concat in objectMode'))
            : this[ENCODING] ? buf.join('') : Buffer.concat(buf, buf.dataLength))
  }

  // stream.promise().then(() => done, er => emitted error)
  promise () {
    return new Promise((resolve, reject) => {
      this.on(DESTROYED, () => reject(new Error('stream destroyed')))
      this.on('end', () => resolve())
      this.on('error', er => reject(er))
    })
  }

  // for await (let chunk of stream)
  [ASYNCITERATOR] () {
    const next = () => {
      const res = this.read()
      if (res !== null)
        return Promise.resolve({ done: false, value: res })

      if (this[EOF])
        return Promise.resolve({ done: true })

      let resolve = null
      let reject = null
      const onerr = er => {
        this.removeListener('data', ondata)
        this.removeListener('end', onend)
        reject(er)
      }
      const ondata = value => {
        this.removeListener('error', onerr)
        this.removeListener('end', onend)
        this.pause()
        resolve({ value: value, done: !!this[EOF] })
      }
      const onend = () => {
        this.removeListener('error', onerr)
        this.removeListener('data', ondata)
        resolve({ done: true })
      }
      const ondestroy = () => onerr(new Error('stream destroyed'))
      return new Promise((res, rej) => {
        reject = rej
        resolve = res
        this.once(DESTROYED, ondestroy)
        this.once('error', onerr)
        this.once('end', onend)
        this.once('data', ondata)
      })
    }

    return { next }
  }

  // for (let chunk of stream)
  [ITERATOR] () {
    const next = () => {
      const value = this.read()
      const done = value === null
      return { value, done }
    }
    return { next }
  }

  destroy (er) {
    if (this[DESTROYED]) {
      if (er)
        this.emit('error', er)
      else
        this.emit(DESTROYED)
      return this
    }

    this[DESTROYED] = true

    // throw away all buffered data, it's never coming out
    this.buffer = new Yallist()
    this[BUFFERLENGTH] = 0

    if (typeof this.close === 'function' && !this[CLOSED])
      this.close()

    if (er)
      this.emit('error', er)
    else // if no error to emit, still reject pending promises
      this.emit(DESTROYED)

    return this
  }

  static isStream (s) {
    return !!s && (s instanceof Minipass || s instanceof Stream ||
      s instanceof EE && (
        typeof s.pipe === 'function' || // readable
        (typeof s.write === 'function' && typeof s.end === 'function') // writable
      ))
  }
}


/***/ }),

/***/ 87332:
/***/ ((module) => {

"use strict";

module.exports = function (Yallist) {
  Yallist.prototype[Symbol.iterator] = function* () {
    for (let walker = this.head; walker; walker = walker.next) {
      yield walker.value
    }
  }
}


/***/ }),

/***/ 16666:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

module.exports = Yallist

Yallist.Node = Node
Yallist.create = Yallist

function Yallist (list) {
  var self = this
  if (!(self instanceof Yallist)) {
    self = new Yallist()
  }

  self.tail = null
  self.head = null
  self.length = 0

  if (list && typeof list.forEach === 'function') {
    list.forEach(function (item) {
      self.push(item)
    })
  } else if (arguments.length > 0) {
    for (var i = 0, l = arguments.length; i < l; i++) {
      self.push(arguments[i])
    }
  }

  return self
}

Yallist.prototype.removeNode = function (node) {
  if (node.list !== this) {
    throw new Error('removing node which does not belong to this list')
  }

  var next = node.next
  var prev = node.prev

  if (next) {
    next.prev = prev
  }

  if (prev) {
    prev.next = next
  }

  if (node === this.head) {
    this.head = next
  }
  if (node === this.tail) {
    this.tail = prev
  }

  node.list.length--
  node.next = null
  node.prev = null
  node.list = null

  return next
}

Yallist.prototype.unshiftNode = function (node) {
  if (node === this.head) {
    return
  }

  if (node.list) {
    node.list.removeNode(node)
  }

  var head = this.head
  node.list = this
  node.next = head
  if (head) {
    head.prev = node
  }

  this.head = node
  if (!this.tail) {
    this.tail = node
  }
  this.length++
}

Yallist.prototype.pushNode = function (node) {
  if (node === this.tail) {
    return
  }

  if (node.list) {
    node.list.removeNode(node)
  }

  var tail = this.tail
  node.list = this
  node.prev = tail
  if (tail) {
    tail.next = node
  }

  this.tail = node
  if (!this.head) {
    this.head = node
  }
  this.length++
}

Yallist.prototype.push = function () {
  for (var i = 0, l = arguments.length; i < l; i++) {
    push(this, arguments[i])
  }
  return this.length
}

Yallist.prototype.unshift = function () {
  for (var i = 0, l = arguments.length; i < l; i++) {
    unshift(this, arguments[i])
  }
  return this.length
}

Yallist.prototype.pop = function () {
  if (!this.tail) {
    return undefined
  }

  var res = this.tail.value
  this.tail = this.tail.prev
  if (this.tail) {
    this.tail.next = null
  } else {
    this.head = null
  }
  this.length--
  return res
}

Yallist.prototype.shift = function () {
  if (!this.head) {
    return undefined
  }

  var res = this.head.value
  this.head = this.head.next
  if (this.head) {
    this.head.prev = null
  } else {
    this.tail = null
  }
  this.length--
  return res
}

Yallist.prototype.forEach = function (fn, thisp) {
  thisp = thisp || this
  for (var walker = this.head, i = 0; walker !== null; i++) {
    fn.call(thisp, walker.value, i, this)
    walker = walker.next
  }
}

Yallist.prototype.forEachReverse = function (fn, thisp) {
  thisp = thisp || this
  for (var walker = this.tail, i = this.length - 1; walker !== null; i--) {
    fn.call(thisp, walker.value, i, this)
    walker = walker.prev
  }
}

Yallist.prototype.get = function (n) {
  for (var i = 0, walker = this.head; walker !== null && i < n; i++) {
    // abort out of the list early if we hit a cycle
    walker = walker.next
  }
  if (i === n && walker !== null) {
    return walker.value
  }
}

Yallist.prototype.getReverse = function (n) {
  for (var i = 0, walker = this.tail; walker !== null && i < n; i++) {
    // abort out of the list early if we hit a cycle
    walker = walker.prev
  }
  if (i === n && walker !== null) {
    return walker.value
  }
}

Yallist.prototype.map = function (fn, thisp) {
  thisp = thisp || this
  var res = new Yallist()
  for (var walker = this.head; walker !== null;) {
    res.push(fn.call(thisp, walker.value, this))
    walker = walker.next
  }
  return res
}

Yallist.prototype.mapReverse = function (fn, thisp) {
  thisp = thisp || this
  var res = new Yallist()
  for (var walker = this.tail; walker !== null;) {
    res.push(fn.call(thisp, walker.value, this))
    walker = walker.prev
  }
  return res
}

Yallist.prototype.reduce = function (fn, initial) {
  var acc
  var walker = this.head
  if (arguments.length > 1) {
    acc = initial
  } else if (this.head) {
    walker = this.head.next
    acc = this.head.value
  } else {
    throw new TypeError('Reduce of empty list with no initial value')
  }

  for (var i = 0; walker !== null; i++) {
    acc = fn(acc, walker.value, i)
    walker = walker.next
  }

  return acc
}

Yallist.prototype.reduceReverse = function (fn, initial) {
  var acc
  var walker = this.tail
  if (arguments.length > 1) {
    acc = initial
  } else if (this.tail) {
    walker = this.tail.prev
    acc = this.tail.value
  } else {
    throw new TypeError('Reduce of empty list with no initial value')
  }

  for (var i = this.length - 1; walker !== null; i--) {
    acc = fn(acc, walker.value, i)
    walker = walker.prev
  }

  return acc
}

Yallist.prototype.toArray = function () {
  var arr = new Array(this.length)
  for (var i = 0, walker = this.head; walker !== null; i++) {
    arr[i] = walker.value
    walker = walker.next
  }
  return arr
}

Yallist.prototype.toArrayReverse = function () {
  var arr = new Array(this.length)
  for (var i = 0, walker = this.tail; walker !== null; i++) {
    arr[i] = walker.value
    walker = walker.prev
  }
  return arr
}

Yallist.prototype.slice = function (from, to) {
  to = to || this.length
  if (to < 0) {
    to += this.length
  }
  from = from || 0
  if (from < 0) {
    from += this.length
  }
  var ret = new Yallist()
  if (to < from || to < 0) {
    return ret
  }
  if (from < 0) {
    from = 0
  }
  if (to > this.length) {
    to = this.length
  }
  for (var i = 0, walker = this.head; walker !== null && i < from; i++) {
    walker = walker.next
  }
  for (; walker !== null && i < to; i++, walker = walker.next) {
    ret.push(walker.value)
  }
  return ret
}

Yallist.prototype.sliceReverse = function (from, to) {
  to = to || this.length
  if (to < 0) {
    to += this.length
  }
  from = from || 0
  if (from < 0) {
    from += this.length
  }
  var ret = new Yallist()
  if (to < from || to < 0) {
    return ret
  }
  if (from < 0) {
    from = 0
  }
  if (to > this.length) {
    to = this.length
  }
  for (var i = this.length, walker = this.tail; walker !== null && i > to; i--) {
    walker = walker.prev
  }
  for (; walker !== null && i > from; i--, walker = walker.prev) {
    ret.push(walker.value)
  }
  return ret
}

Yallist.prototype.splice = function (start, deleteCount, ...nodes) {
  if (start > this.length) {
    start = this.length - 1
  }
  if (start < 0) {
    start = this.length + start;
  }

  for (var i = 0, walker = this.head; walker !== null && i < start; i++) {
    walker = walker.next
  }

  var ret = []
  for (var i = 0; walker && i < deleteCount; i++) {
    ret.push(walker.value)
    walker = this.removeNode(walker)
  }
  if (walker === null) {
    walker = this.tail
  }

  if (walker !== this.head && walker !== this.tail) {
    walker = walker.prev
  }

  for (var i = 0; i < nodes.length; i++) {
    walker = insert(this, walker, nodes[i])
  }
  return ret;
}

Yallist.prototype.reverse = function () {
  var head = this.head
  var tail = this.tail
  for (var walker = head; walker !== null; walker = walker.prev) {
    var p = walker.prev
    walker.prev = walker.next
    walker.next = p
  }
  this.head = tail
  this.tail = head
  return this
}

function insert (self, node, value) {
  var inserted = node === self.head ?
    new Node(value, null, node, self) :
    new Node(value, node, node.next, self)

  if (inserted.next === null) {
    self.tail = inserted
  }
  if (inserted.prev === null) {
    self.head = inserted
  }

  self.length++

  return inserted
}

function push (self, item) {
  self.tail = new Node(item, self.tail, null, self)
  if (!self.head) {
    self.head = self.tail
  }
  self.length++
}

function unshift (self, item) {
  self.head = new Node(item, null, self.head, self)
  if (!self.tail) {
    self.tail = self.head
  }
  self.length++
}

function Node (value, prev, next, list) {
  if (!(this instanceof Node)) {
    return new Node(value, prev, next, list)
  }

  this.list = list
  this.value = value

  if (prev) {
    prev.next = this
    this.prev = prev
  } else {
    this.prev = null
  }

  if (next) {
    next.prev = this
    this.next = next
  } else {
    this.next = null
  }
}

try {
  // add if support for Symbol.iterator is present
  __webpack_require__(87332)(Yallist)
} catch (er) {}


/***/ }),

/***/ 47724:
/***/ ((__unused_webpack_module, exports, __webpack_require__) => {

"use strict";

Object.defineProperty(exports, "__esModule", ({ value: true }));
exports.capitalize = exports.getColorBySeverity = exports.leftPad = void 0;
const chalk = __webpack_require__(97502);
function leftPad(text, padding = 4) {
    return padding <= 0 ? text : ' '.repeat(padding) + text;
}
exports.leftPad = leftPad;
function getColorBySeverity(severity) {
    switch (severity) {
        case 'low':
            return chalk.blueBright;
        case 'medium':
            return chalk.yellowBright;
        case 'high':
            return chalk.redBright;
        case 'critical':
            return chalk.magentaBright;
        default:
            return chalk.whiteBright;
    }
}
exports.getColorBySeverity = getColorBySeverity;
function capitalize(str) {
    return str.charAt(0).toUpperCase() + str.slice(1);
}
exports.capitalize = capitalize;
//# sourceMappingURL=common.js.map

/***/ }),

/***/ 98466:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";
/* module decorator */ module = __webpack_require__.nmd(module);


const wrapAnsi16 = (fn, offset) => (...args) => {
	const code = fn(...args);
	return `\u001B[${code + offset}m`;
};

const wrapAnsi256 = (fn, offset) => (...args) => {
	const code = fn(...args);
	return `\u001B[${38 + offset};5;${code}m`;
};

const wrapAnsi16m = (fn, offset) => (...args) => {
	const rgb = fn(...args);
	return `\u001B[${38 + offset};2;${rgb[0]};${rgb[1]};${rgb[2]}m`;
};

const ansi2ansi = n => n;
const rgb2rgb = (r, g, b) => [r, g, b];

const setLazyProperty = (object, property, get) => {
	Object.defineProperty(object, property, {
		get: () => {
			const value = get();

			Object.defineProperty(object, property, {
				value,
				enumerable: true,
				configurable: true
			});

			return value;
		},
		enumerable: true,
		configurable: true
	});
};

/** @type {typeof import('color-convert')} */
let colorConvert;
const makeDynamicStyles = (wrap, targetSpace, identity, isBackground) => {
	if (colorConvert === undefined) {
		colorConvert = __webpack_require__(37050);
	}

	const offset = isBackground ? 10 : 0;
	const styles = {};

	for (const [sourceSpace, suite] of Object.entries(colorConvert)) {
		const name = sourceSpace === 'ansi16' ? 'ansi' : sourceSpace;
		if (sourceSpace === targetSpace) {
			styles[name] = wrap(identity, offset);
		} else if (typeof suite === 'object') {
			styles[name] = wrap(suite[targetSpace], offset);
		}
	}

	return styles;
};

function assembleStyles() {
	const codes = new Map();
	const styles = {
		modifier: {
			reset: [0, 0],
			// 21 isn't widely supported and 22 does the same thing
			bold: [1, 22],
			dim: [2, 22],
			italic: [3, 23],
			underline: [4, 24],
			inverse: [7, 27],
			hidden: [8, 28],
			strikethrough: [9, 29]
		},
		color: {
			black: [30, 39],
			red: [31, 39],
			green: [32, 39],
			yellow: [33, 39],
			blue: [34, 39],
			magenta: [35, 39],
			cyan: [36, 39],
			white: [37, 39],

			// Bright color
			blackBright: [90, 39],
			redBright: [91, 39],
			greenBright: [92, 39],
			yellowBright: [93, 39],
			blueBright: [94, 39],
			magentaBright: [95, 39],
			cyanBright: [96, 39],
			whiteBright: [97, 39]
		},
		bgColor: {
			bgBlack: [40, 49],
			bgRed: [41, 49],
			bgGreen: [42, 49],
			bgYellow: [43, 49],
			bgBlue: [44, 49],
			bgMagenta: [45, 49],
			bgCyan: [46, 49],
			bgWhite: [47, 49],

			// Bright color
			bgBlackBright: [100, 49],
			bgRedBright: [101, 49],
			bgGreenBright: [102, 49],
			bgYellowBright: [103, 49],
			bgBlueBright: [104, 49],
			bgMagentaBright: [105, 49],
			bgCyanBright: [106, 49],
			bgWhiteBright: [107, 49]
		}
	};

	// Alias bright black as gray (and grey)
	styles.color.gray = styles.color.blackBright;
	styles.bgColor.bgGray = styles.bgColor.bgBlackBright;
	styles.color.grey = styles.color.blackBright;
	styles.bgColor.bgGrey = styles.bgColor.bgBlackBright;

	for (const [groupName, group] of Object.entries(styles)) {
		for (const [styleName, style] of Object.entries(group)) {
			styles[styleName] = {
				open: `\u001B[${style[0]}m`,
				close: `\u001B[${style[1]}m`
			};

			group[styleName] = styles[styleName];

			codes.set(style[0], style[1]);
		}

		Object.defineProperty(styles, groupName, {
			value: group,
			enumerable: false
		});
	}

	Object.defineProperty(styles, 'codes', {
		value: codes,
		enumerable: false
	});

	styles.color.close = '\u001B[39m';
	styles.bgColor.close = '\u001B[49m';

	setLazyProperty(styles.color, 'ansi', () => makeDynamicStyles(wrapAnsi16, 'ansi16', ansi2ansi, false));
	setLazyProperty(styles.color, 'ansi256', () => makeDynamicStyles(wrapAnsi256, 'ansi256', ansi2ansi, false));
	setLazyProperty(styles.color, 'ansi16m', () => makeDynamicStyles(wrapAnsi16m, 'rgb', rgb2rgb, false));
	setLazyProperty(styles.bgColor, 'ansi', () => makeDynamicStyles(wrapAnsi16, 'ansi16', ansi2ansi, true));
	setLazyProperty(styles.bgColor, 'ansi256', () => makeDynamicStyles(wrapAnsi256, 'ansi256', ansi2ansi, true));
	setLazyProperty(styles.bgColor, 'ansi16m', () => makeDynamicStyles(wrapAnsi16m, 'rgb', rgb2rgb, true));

	return styles;
}

// Make the export immutable
Object.defineProperty(module, 'exports', {
	enumerable: true,
	get: assembleStyles
});


/***/ }),

/***/ 97502:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

const ansiStyles = __webpack_require__(98466);
const {stdout: stdoutColor, stderr: stderrColor} = __webpack_require__(12500);
const {
	stringReplaceAll,
	stringEncaseCRLFWithFirstIndex
} = __webpack_require__(4762);

const {isArray} = Array;

// `supportsColor.level` → `ansiStyles.color[name]` mapping
const levelMapping = [
	'ansi',
	'ansi',
	'ansi256',
	'ansi16m'
];

const styles = Object.create(null);

const applyOptions = (object, options = {}) => {
	if (options.level && !(Number.isInteger(options.level) && options.level >= 0 && options.level <= 3)) {
		throw new Error('The `level` option should be an integer from 0 to 3');
	}

	// Detect level if not set manually
	const colorLevel = stdoutColor ? stdoutColor.level : 0;
	object.level = options.level === undefined ? colorLevel : options.level;
};

class ChalkClass {
	constructor(options) {
		// eslint-disable-next-line no-constructor-return
		return chalkFactory(options);
	}
}

const chalkFactory = options => {
	const chalk = {};
	applyOptions(chalk, options);

	chalk.template = (...arguments_) => chalkTag(chalk.template, ...arguments_);

	Object.setPrototypeOf(chalk, Chalk.prototype);
	Object.setPrototypeOf(chalk.template, chalk);

	chalk.template.constructor = () => {
		throw new Error('`chalk.constructor()` is deprecated. Use `new chalk.Instance()` instead.');
	};

	chalk.template.Instance = ChalkClass;

	return chalk.template;
};

function Chalk(options) {
	return chalkFactory(options);
}

for (const [styleName, style] of Object.entries(ansiStyles)) {
	styles[styleName] = {
		get() {
			const builder = createBuilder(this, createStyler(style.open, style.close, this._styler), this._isEmpty);
			Object.defineProperty(this, styleName, {value: builder});
			return builder;
		}
	};
}

styles.visible = {
	get() {
		const builder = createBuilder(this, this._styler, true);
		Object.defineProperty(this, 'visible', {value: builder});
		return builder;
	}
};

const usedModels = ['rgb', 'hex', 'keyword', 'hsl', 'hsv', 'hwb', 'ansi', 'ansi256'];

for (const model of usedModels) {
	styles[model] = {
		get() {
			const {level} = this;
			return function (...arguments_) {
				const styler = createStyler(ansiStyles.color[levelMapping[level]][model](...arguments_), ansiStyles.color.close, this._styler);
				return createBuilder(this, styler, this._isEmpty);
			};
		}
	};
}

for (const model of usedModels) {
	const bgModel = 'bg' + model[0].toUpperCase() + model.slice(1);
	styles[bgModel] = {
		get() {
			const {level} = this;
			return function (...arguments_) {
				const styler = createStyler(ansiStyles.bgColor[levelMapping[level]][model](...arguments_), ansiStyles.bgColor.close, this._styler);
				return createBuilder(this, styler, this._isEmpty);
			};
		}
	};
}

const proto = Object.defineProperties(() => {}, {
	...styles,
	level: {
		enumerable: true,
		get() {
			return this._generator.level;
		},
		set(level) {
			this._generator.level = level;
		}
	}
});

const createStyler = (open, close, parent) => {
	let openAll;
	let closeAll;
	if (parent === undefined) {
		openAll = open;
		closeAll = close;
	} else {
		openAll = parent.openAll + open;
		closeAll = close + parent.closeAll;
	}

	return {
		open,
		close,
		openAll,
		closeAll,
		parent
	};
};

const createBuilder = (self, _styler, _isEmpty) => {
	const builder = (...arguments_) => {
		if (isArray(arguments_[0]) && isArray(arguments_[0].raw)) {
			// Called as a template literal, for example: chalk.red`2 + 3 = {bold ${2+3}}`
			return applyStyle(builder, chalkTag(builder, ...arguments_));
		}

		// Single argument is hot path, implicit coercion is faster than anything
		// eslint-disable-next-line no-implicit-coercion
		return applyStyle(builder, (arguments_.length === 1) ? ('' + arguments_[0]) : arguments_.join(' '));
	};

	// We alter the prototype because we must return a function, but there is
	// no way to create a function with a different prototype
	Object.setPrototypeOf(builder, proto);

	builder._generator = self;
	builder._styler = _styler;
	builder._isEmpty = _isEmpty;

	return builder;
};

const applyStyle = (self, string) => {
	if (self.level <= 0 || !string) {
		return self._isEmpty ? '' : string;
	}

	let styler = self._styler;

	if (styler === undefined) {
		return string;
	}

	const {openAll, closeAll} = styler;
	if (string.indexOf('\u001B') !== -1) {
		while (styler !== undefined) {
			// Replace any instances already present with a re-opening code
			// otherwise only the part of the string until said closing code
			// will be colored, and the rest will simply be 'plain'.
			string = stringReplaceAll(string, styler.close, styler.open);

			styler = styler.parent;
		}
	}

	// We can move both next actions out of loop, because remaining actions in loop won't have
	// any/visible effect on parts we add here. Close the styling before a linebreak and reopen
	// after next line to fix a bleed issue on macOS: https://github.com/chalk/chalk/pull/92
	const lfIndex = string.indexOf('\n');
	if (lfIndex !== -1) {
		string = stringEncaseCRLFWithFirstIndex(string, closeAll, openAll, lfIndex);
	}

	return openAll + string + closeAll;
};

let template;
const chalkTag = (chalk, ...strings) => {
	const [firstString] = strings;

	if (!isArray(firstString) || !isArray(firstString.raw)) {
		// If chalk() was called by itself or with a string,
		// return the string itself as a string.
		return strings.join(' ');
	}

	const arguments_ = strings.slice(1);
	const parts = [firstString.raw[0]];

	for (let i = 1; i < firstString.length; i++) {
		parts.push(
			String(arguments_[i - 1]).replace(/[{}\\]/g, '\\$&'),
			String(firstString.raw[i])
		);
	}

	if (template === undefined) {
		template = __webpack_require__(41455);
	}

	return template(chalk, parts.join(''));
};

Object.defineProperties(Chalk.prototype, styles);

const chalk = Chalk(); // eslint-disable-line new-cap
chalk.supportsColor = stdoutColor;
chalk.stderr = Chalk({level: stderrColor ? stderrColor.level : 0}); // eslint-disable-line new-cap
chalk.stderr.supportsColor = stderrColor;

module.exports = chalk;


/***/ }),

/***/ 41455:
/***/ ((module) => {

"use strict";

const TEMPLATE_REGEX = /(?:\\(u(?:[a-f\d]{4}|\{[a-f\d]{1,6}\})|x[a-f\d]{2}|.))|(?:\{(~)?(\w+(?:\([^)]*\))?(?:\.\w+(?:\([^)]*\))?)*)(?:[ \t]|(?=\r?\n)))|(\})|((?:.|[\r\n\f])+?)/gi;
const STYLE_REGEX = /(?:^|\.)(\w+)(?:\(([^)]*)\))?/g;
const STRING_REGEX = /^(['"])((?:\\.|(?!\1)[^\\])*)\1$/;
const ESCAPE_REGEX = /\\(u(?:[a-f\d]{4}|{[a-f\d]{1,6}})|x[a-f\d]{2}|.)|([^\\])/gi;

const ESCAPES = new Map([
	['n', '\n'],
	['r', '\r'],
	['t', '\t'],
	['b', '\b'],
	['f', '\f'],
	['v', '\v'],
	['0', '\0'],
	['\\', '\\'],
	['e', '\u001B'],
	['a', '\u0007']
]);

function unescape(c) {
	const u = c[0] === 'u';
	const bracket = c[1] === '{';

	if ((u && !bracket && c.length === 5) || (c[0] === 'x' && c.length === 3)) {
		return String.fromCharCode(parseInt(c.slice(1), 16));
	}

	if (u && bracket) {
		return String.fromCodePoint(parseInt(c.slice(2, -1), 16));
	}

	return ESCAPES.get(c) || c;
}

function parseArguments(name, arguments_) {
	const results = [];
	const chunks = arguments_.trim().split(/\s*,\s*/g);
	let matches;

	for (const chunk of chunks) {
		const number = Number(chunk);
		if (!Number.isNaN(number)) {
			results.push(number);
		} else if ((matches = chunk.match(STRING_REGEX))) {
			results.push(matches[2].replace(ESCAPE_REGEX, (m, escape, character) => escape ? unescape(escape) : character));
		} else {
			throw new Error(`Invalid Chalk template style argument: ${chunk} (in style '${name}')`);
		}
	}

	return results;
}

function parseStyle(style) {
	STYLE_REGEX.lastIndex = 0;

	const results = [];
	let matches;

	while ((matches = STYLE_REGEX.exec(style)) !== null) {
		const name = matches[1];

		if (matches[2]) {
			const args = parseArguments(name, matches[2]);
			results.push([name].concat(args));
		} else {
			results.push([name]);
		}
	}

	return results;
}

function buildStyle(chalk, styles) {
	const enabled = {};

	for (const layer of styles) {
		for (const style of layer.styles) {
			enabled[style[0]] = layer.inverse ? null : style.slice(1);
		}
	}

	let current = chalk;
	for (const [styleName, styles] of Object.entries(enabled)) {
		if (!Array.isArray(styles)) {
			continue;
		}

		if (!(styleName in current)) {
			throw new Error(`Unknown Chalk style: ${styleName}`);
		}

		current = styles.length > 0 ? current[styleName](...styles) : current[styleName];
	}

	return current;
}

module.exports = (chalk, temporary) => {
	const styles = [];
	const chunks = [];
	let chunk = [];

	// eslint-disable-next-line max-params
	temporary.replace(TEMPLATE_REGEX, (m, escapeCharacter, inverse, style, close, character) => {
		if (escapeCharacter) {
			chunk.push(unescape(escapeCharacter));
		} else if (style) {
			const string = chunk.join('');
			chunk = [];
			chunks.push(styles.length === 0 ? string : buildStyle(chalk, styles)(string));
			styles.push({inverse, styles: parseStyle(style)});
		} else if (close) {
			if (styles.length === 0) {
				throw new Error('Found extraneous } in Chalk template literal');
			}

			chunks.push(buildStyle(chalk, styles)(chunk.join('')));
			chunk = [];
			styles.pop();
		} else {
			chunk.push(character);
		}
	});

	chunks.push(chunk.join(''));

	if (styles.length > 0) {
		const errMessage = `Chalk template literal is missing ${styles.length} closing bracket${styles.length === 1 ? '' : 's'} (\`}\`)`;
		throw new Error(errMessage);
	}

	return chunks.join('');
};


/***/ }),

/***/ 4762:
/***/ ((module) => {

"use strict";


const stringReplaceAll = (string, substring, replacer) => {
	let index = string.indexOf(substring);
	if (index === -1) {
		return string;
	}

	const substringLength = substring.length;
	let endIndex = 0;
	let returnValue = '';
	do {
		returnValue += string.substr(endIndex, index - endIndex) + substring + replacer;
		endIndex = index + substringLength;
		index = string.indexOf(substring, endIndex);
	} while (index !== -1);

	returnValue += string.substr(endIndex);
	return returnValue;
};

const stringEncaseCRLFWithFirstIndex = (string, prefix, postfix, index) => {
	let endIndex = 0;
	let returnValue = '';
	do {
		const gotCR = string[index - 1] === '\r';
		returnValue += string.substr(endIndex, (gotCR ? index - 1 : index) - endIndex) + prefix + (gotCR ? '\r\n' : '\n') + postfix;
		endIndex = index + 1;
		index = string.indexOf('\n', endIndex);
	} while (index !== -1);

	returnValue += string.substr(endIndex);
	return returnValue;
};

module.exports = {
	stringReplaceAll,
	stringEncaseCRLFWithFirstIndex
};


/***/ }),

/***/ 1434:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

/* MIT license */
/* eslint-disable no-mixed-operators */
const cssKeywords = __webpack_require__(55063);

// NOTE: conversions should only return primitive values (i.e. arrays, or
//       values that give correct `typeof` results).
//       do not use box values types (i.e. Number(), String(), etc.)

const reverseKeywords = {};
for (const key of Object.keys(cssKeywords)) {
	reverseKeywords[cssKeywords[key]] = key;
}

const convert = {
	rgb: {channels: 3, labels: 'rgb'},
	hsl: {channels: 3, labels: 'hsl'},
	hsv: {channels: 3, labels: 'hsv'},
	hwb: {channels: 3, labels: 'hwb'},
	cmyk: {channels: 4, labels: 'cmyk'},
	xyz: {channels: 3, labels: 'xyz'},
	lab: {channels: 3, labels: 'lab'},
	lch: {channels: 3, labels: 'lch'},
	hex: {channels: 1, labels: ['hex']},
	keyword: {channels: 1, labels: ['keyword']},
	ansi16: {channels: 1, labels: ['ansi16']},
	ansi256: {channels: 1, labels: ['ansi256']},
	hcg: {channels: 3, labels: ['h', 'c', 'g']},
	apple: {channels: 3, labels: ['r16', 'g16', 'b16']},
	gray: {channels: 1, labels: ['gray']}
};

module.exports = convert;

// Hide .channels and .labels properties
for (const model of Object.keys(convert)) {
	if (!('channels' in convert[model])) {
		throw new Error('missing channels property: ' + model);
	}

	if (!('labels' in convert[model])) {
		throw new Error('missing channel labels property: ' + model);
	}

	if (convert[model].labels.length !== convert[model].channels) {
		throw new Error('channel and label counts mismatch: ' + model);
	}

	const {channels, labels} = convert[model];
	delete convert[model].channels;
	delete convert[model].labels;
	Object.defineProperty(convert[model], 'channels', {value: channels});
	Object.defineProperty(convert[model], 'labels', {value: labels});
}

convert.rgb.hsl = function (rgb) {
	const r = rgb[0] / 255;
	const g = rgb[1] / 255;
	const b = rgb[2] / 255;
	const min = Math.min(r, g, b);
	const max = Math.max(r, g, b);
	const delta = max - min;
	let h;
	let s;

	if (max === min) {
		h = 0;
	} else if (r === max) {
		h = (g - b) / delta;
	} else if (g === max) {
		h = 2 + (b - r) / delta;
	} else if (b === max) {
		h = 4 + (r - g) / delta;
	}

	h = Math.min(h * 60, 360);

	if (h < 0) {
		h += 360;
	}

	const l = (min + max) / 2;

	if (max === min) {
		s = 0;
	} else if (l <= 0.5) {
		s = delta / (max + min);
	} else {
		s = delta / (2 - max - min);
	}

	return [h, s * 100, l * 100];
};

convert.rgb.hsv = function (rgb) {
	let rdif;
	let gdif;
	let bdif;
	let h;
	let s;

	const r = rgb[0] / 255;
	const g = rgb[1] / 255;
	const b = rgb[2] / 255;
	const v = Math.max(r, g, b);
	const diff = v - Math.min(r, g, b);
	const diffc = function (c) {
		return (v - c) / 6 / diff + 1 / 2;
	};

	if (diff === 0) {
		h = 0;
		s = 0;
	} else {
		s = diff / v;
		rdif = diffc(r);
		gdif = diffc(g);
		bdif = diffc(b);

		if (r === v) {
			h = bdif - gdif;
		} else if (g === v) {
			h = (1 / 3) + rdif - bdif;
		} else if (b === v) {
			h = (2 / 3) + gdif - rdif;
		}

		if (h < 0) {
			h += 1;
		} else if (h > 1) {
			h -= 1;
		}
	}

	return [
		h * 360,
		s * 100,
		v * 100
	];
};

convert.rgb.hwb = function (rgb) {
	const r = rgb[0];
	const g = rgb[1];
	let b = rgb[2];
	const h = convert.rgb.hsl(rgb)[0];
	const w = 1 / 255 * Math.min(r, Math.min(g, b));

	b = 1 - 1 / 255 * Math.max(r, Math.max(g, b));

	return [h, w * 100, b * 100];
};

convert.rgb.cmyk = function (rgb) {
	const r = rgb[0] / 255;
	const g = rgb[1] / 255;
	const b = rgb[2] / 255;

	const k = Math.min(1 - r, 1 - g, 1 - b);
	const c = (1 - r - k) / (1 - k) || 0;
	const m = (1 - g - k) / (1 - k) || 0;
	const y = (1 - b - k) / (1 - k) || 0;

	return [c * 100, m * 100, y * 100, k * 100];
};

function comparativeDistance(x, y) {
	/*
		See https://en.m.wikipedia.org/wiki/Euclidean_distance#Squared_Euclidean_distance
	*/
	return (
		((x[0] - y[0]) ** 2) +
		((x[1] - y[1]) ** 2) +
		((x[2] - y[2]) ** 2)
	);
}

convert.rgb.keyword = function (rgb) {
	const reversed = reverseKeywords[rgb];
	if (reversed) {
		return reversed;
	}

	let currentClosestDistance = Infinity;
	let currentClosestKeyword;

	for (const keyword of Object.keys(cssKeywords)) {
		const value = cssKeywords[keyword];

		// Compute comparative distance
		const distance = comparativeDistance(rgb, value);

		// Check if its less, if so set as closest
		if (distance < currentClosestDistance) {
			currentClosestDistance = distance;
			currentClosestKeyword = keyword;
		}
	}

	return currentClosestKeyword;
};

convert.keyword.rgb = function (keyword) {
	return cssKeywords[keyword];
};

convert.rgb.xyz = function (rgb) {
	let r = rgb[0] / 255;
	let g = rgb[1] / 255;
	let b = rgb[2] / 255;

	// Assume sRGB
	r = r > 0.04045 ? (((r + 0.055) / 1.055) ** 2.4) : (r / 12.92);
	g = g > 0.04045 ? (((g + 0.055) / 1.055) ** 2.4) : (g / 12.92);
	b = b > 0.04045 ? (((b + 0.055) / 1.055) ** 2.4) : (b / 12.92);

	const x = (r * 0.4124) + (g * 0.3576) + (b * 0.1805);
	const y = (r * 0.2126) + (g * 0.7152) + (b * 0.0722);
	const z = (r * 0.0193) + (g * 0.1192) + (b * 0.9505);

	return [x * 100, y * 100, z * 100];
};

convert.rgb.lab = function (rgb) {
	const xyz = convert.rgb.xyz(rgb);
	let x = xyz[0];
	let y = xyz[1];
	let z = xyz[2];

	x /= 95.047;
	y /= 100;
	z /= 108.883;

	x = x > 0.008856 ? (x ** (1 / 3)) : (7.787 * x) + (16 / 116);
	y = y > 0.008856 ? (y ** (1 / 3)) : (7.787 * y) + (16 / 116);
	z = z > 0.008856 ? (z ** (1 / 3)) : (7.787 * z) + (16 / 116);

	const l = (116 * y) - 16;
	const a = 500 * (x - y);
	const b = 200 * (y - z);

	return [l, a, b];
};

convert.hsl.rgb = function (hsl) {
	const h = hsl[0] / 360;
	const s = hsl[1] / 100;
	const l = hsl[2] / 100;
	let t2;
	let t3;
	let val;

	if (s === 0) {
		val = l * 255;
		return [val, val, val];
	}

	if (l < 0.5) {
		t2 = l * (1 + s);
	} else {
		t2 = l + s - l * s;
	}

	const t1 = 2 * l - t2;

	const rgb = [0, 0, 0];
	for (let i = 0; i < 3; i++) {
		t3 = h + 1 / 3 * -(i - 1);
		if (t3 < 0) {
			t3++;
		}

		if (t3 > 1) {
			t3--;
		}

		if (6 * t3 < 1) {
			val = t1 + (t2 - t1) * 6 * t3;
		} else if (2 * t3 < 1) {
			val = t2;
		} else if (3 * t3 < 2) {
			val = t1 + (t2 - t1) * (2 / 3 - t3) * 6;
		} else {
			val = t1;
		}

		rgb[i] = val * 255;
	}

	return rgb;
};

convert.hsl.hsv = function (hsl) {
	const h = hsl[0];
	let s = hsl[1] / 100;
	let l = hsl[2] / 100;
	let smin = s;
	const lmin = Math.max(l, 0.01);

	l *= 2;
	s *= (l <= 1) ? l : 2 - l;
	smin *= lmin <= 1 ? lmin : 2 - lmin;
	const v = (l + s) / 2;
	const sv = l === 0 ? (2 * smin) / (lmin + smin) : (2 * s) / (l + s);

	return [h, sv * 100, v * 100];
};

convert.hsv.rgb = function (hsv) {
	const h = hsv[0] / 60;
	const s = hsv[1] / 100;
	let v = hsv[2] / 100;
	const hi = Math.floor(h) % 6;

	const f = h - Math.floor(h);
	const p = 255 * v * (1 - s);
	const q = 255 * v * (1 - (s * f));
	const t = 255 * v * (1 - (s * (1 - f)));
	v *= 255;

	switch (hi) {
		case 0:
			return [v, t, p];
		case 1:
			return [q, v, p];
		case 2:
			return [p, v, t];
		case 3:
			return [p, q, v];
		case 4:
			return [t, p, v];
		case 5:
			return [v, p, q];
	}
};

convert.hsv.hsl = function (hsv) {
	const h = hsv[0];
	const s = hsv[1] / 100;
	const v = hsv[2] / 100;
	const vmin = Math.max(v, 0.01);
	let sl;
	let l;

	l = (2 - s) * v;
	const lmin = (2 - s) * vmin;
	sl = s * vmin;
	sl /= (lmin <= 1) ? lmin : 2 - lmin;
	sl = sl || 0;
	l /= 2;

	return [h, sl * 100, l * 100];
};

// http://dev.w3.org/csswg/css-color/#hwb-to-rgb
convert.hwb.rgb = function (hwb) {
	const h = hwb[0] / 360;
	let wh = hwb[1] / 100;
	let bl = hwb[2] / 100;
	const ratio = wh + bl;
	let f;

	// Wh + bl cant be > 1
	if (ratio > 1) {
		wh /= ratio;
		bl /= ratio;
	}

	const i = Math.floor(6 * h);
	const v = 1 - bl;
	f = 6 * h - i;

	if ((i & 0x01) !== 0) {
		f = 1 - f;
	}

	const n = wh + f * (v - wh); // Linear interpolation

	let r;
	let g;
	let b;
	/* eslint-disable max-statements-per-line,no-multi-spaces */
	switch (i) {
		default:
		case 6:
		case 0: r = v;  g = n;  b = wh; break;
		case 1: r = n;  g = v;  b = wh; break;
		case 2: r = wh; g = v;  b = n; break;
		case 3: r = wh; g = n;  b = v; break;
		case 4: r = n;  g = wh; b = v; break;
		case 5: r = v;  g = wh; b = n; break;
	}
	/* eslint-enable max-statements-per-line,no-multi-spaces */

	return [r * 255, g * 255, b * 255];
};

convert.cmyk.rgb = function (cmyk) {
	const c = cmyk[0] / 100;
	const m = cmyk[1] / 100;
	const y = cmyk[2] / 100;
	const k = cmyk[3] / 100;

	const r = 1 - Math.min(1, c * (1 - k) + k);
	const g = 1 - Math.min(1, m * (1 - k) + k);
	const b = 1 - Math.min(1, y * (1 - k) + k);

	return [r * 255, g * 255, b * 255];
};

convert.xyz.rgb = function (xyz) {
	const x = xyz[0] / 100;
	const y = xyz[1] / 100;
	const z = xyz[2] / 100;
	let r;
	let g;
	let b;

	r = (x * 3.2406) + (y * -1.5372) + (z * -0.4986);
	g = (x * -0.9689) + (y * 1.8758) + (z * 0.0415);
	b = (x * 0.0557) + (y * -0.2040) + (z * 1.0570);

	// Assume sRGB
	r = r > 0.0031308
		? ((1.055 * (r ** (1.0 / 2.4))) - 0.055)
		: r * 12.92;

	g = g > 0.0031308
		? ((1.055 * (g ** (1.0 / 2.4))) - 0.055)
		: g * 12.92;

	b = b > 0.0031308
		? ((1.055 * (b ** (1.0 / 2.4))) - 0.055)
		: b * 12.92;

	r = Math.min(Math.max(0, r), 1);
	g = Math.min(Math.max(0, g), 1);
	b = Math.min(Math.max(0, b), 1);

	return [r * 255, g * 255, b * 255];
};

convert.xyz.lab = function (xyz) {
	let x = xyz[0];
	let y = xyz[1];
	let z = xyz[2];

	x /= 95.047;
	y /= 100;
	z /= 108.883;

	x = x > 0.008856 ? (x ** (1 / 3)) : (7.787 * x) + (16 / 116);
	y = y > 0.008856 ? (y ** (1 / 3)) : (7.787 * y) + (16 / 116);
	z = z > 0.008856 ? (z ** (1 / 3)) : (7.787 * z) + (16 / 116);

	const l = (116 * y) - 16;
	const a = 500 * (x - y);
	const b = 200 * (y - z);

	return [l, a, b];
};

convert.lab.xyz = function (lab) {
	const l = lab[0];
	const a = lab[1];
	const b = lab[2];
	let x;
	let y;
	let z;

	y = (l + 16) / 116;
	x = a / 500 + y;
	z = y - b / 200;

	const y2 = y ** 3;
	const x2 = x ** 3;
	const z2 = z ** 3;
	y = y2 > 0.008856 ? y2 : (y - 16 / 116) / 7.787;
	x = x2 > 0.008856 ? x2 : (x - 16 / 116) / 7.787;
	z = z2 > 0.008856 ? z2 : (z - 16 / 116) / 7.787;

	x *= 95.047;
	y *= 100;
	z *= 108.883;

	return [x, y, z];
};

convert.lab.lch = function (lab) {
	const l = lab[0];
	const a = lab[1];
	const b = lab[2];
	let h;

	const hr = Math.atan2(b, a);
	h = hr * 360 / 2 / Math.PI;

	if (h < 0) {
		h += 360;
	}

	const c = Math.sqrt(a * a + b * b);

	return [l, c, h];
};

convert.lch.lab = function (lch) {
	const l = lch[0];
	const c = lch[1];
	const h = lch[2];

	const hr = h / 360 * 2 * Math.PI;
	const a = c * Math.cos(hr);
	const b = c * Math.sin(hr);

	return [l, a, b];
};

convert.rgb.ansi16 = function (args, saturation = null) {
	const [r, g, b] = args;
	let value = saturation === null ? convert.rgb.hsv(args)[2] : saturation; // Hsv -> ansi16 optimization

	value = Math.round(value / 50);

	if (value === 0) {
		return 30;
	}

	let ansi = 30
		+ ((Math.round(b / 255) << 2)
		| (Math.round(g / 255) << 1)
		| Math.round(r / 255));

	if (value === 2) {
		ansi += 60;
	}

	return ansi;
};

convert.hsv.ansi16 = function (args) {
	// Optimization here; we already know the value and don't need to get
	// it converted for us.
	return convert.rgb.ansi16(convert.hsv.rgb(args), args[2]);
};

convert.rgb.ansi256 = function (args) {
	const r = args[0];
	const g = args[1];
	const b = args[2];

	// We use the extended greyscale palette here, with the exception of
	// black and white. normal palette only has 4 greyscale shades.
	if (r === g && g === b) {
		if (r < 8) {
			return 16;
		}

		if (r > 248) {
			return 231;
		}

		return Math.round(((r - 8) / 247) * 24) + 232;
	}

	const ansi = 16
		+ (36 * Math.round(r / 255 * 5))
		+ (6 * Math.round(g / 255 * 5))
		+ Math.round(b / 255 * 5);

	return ansi;
};

convert.ansi16.rgb = function (args) {
	let color = args % 10;

	// Handle greyscale
	if (color === 0 || color === 7) {
		if (args > 50) {
			color += 3.5;
		}

		color = color / 10.5 * 255;

		return [color, color, color];
	}

	const mult = (~~(args > 50) + 1) * 0.5;
	const r = ((color & 1) * mult) * 255;
	const g = (((color >> 1) & 1) * mult) * 255;
	const b = (((color >> 2) & 1) * mult) * 255;

	return [r, g, b];
};

convert.ansi256.rgb = function (args) {
	// Handle greyscale
	if (args >= 232) {
		const c = (args - 232) * 10 + 8;
		return [c, c, c];
	}

	args -= 16;

	let rem;
	const r = Math.floor(args / 36) / 5 * 255;
	const g = Math.floor((rem = args % 36) / 6) / 5 * 255;
	const b = (rem % 6) / 5 * 255;

	return [r, g, b];
};

convert.rgb.hex = function (args) {
	const integer = ((Math.round(args[0]) & 0xFF) << 16)
		+ ((Math.round(args[1]) & 0xFF) << 8)
		+ (Math.round(args[2]) & 0xFF);

	const string = integer.toString(16).toUpperCase();
	return '000000'.substring(string.length) + string;
};

convert.hex.rgb = function (args) {
	const match = args.toString(16).match(/[a-f0-9]{6}|[a-f0-9]{3}/i);
	if (!match) {
		return [0, 0, 0];
	}

	let colorString = match[0];

	if (match[0].length === 3) {
		colorString = colorString.split('').map(char => {
			return char + char;
		}).join('');
	}

	const integer = parseInt(colorString, 16);
	const r = (integer >> 16) & 0xFF;
	const g = (integer >> 8) & 0xFF;
	const b = integer & 0xFF;

	return [r, g, b];
};

convert.rgb.hcg = function (rgb) {
	const r = rgb[0] / 255;
	const g = rgb[1] / 255;
	const b = rgb[2] / 255;
	const max = Math.max(Math.max(r, g), b);
	const min = Math.min(Math.min(r, g), b);
	const chroma = (max - min);
	let grayscale;
	let hue;

	if (chroma < 1) {
		grayscale = min / (1 - chroma);
	} else {
		grayscale = 0;
	}

	if (chroma <= 0) {
		hue = 0;
	} else
	if (max === r) {
		hue = ((g - b) / chroma) % 6;
	} else
	if (max === g) {
		hue = 2 + (b - r) / chroma;
	} else {
		hue = 4 + (r - g) / chroma;
	}

	hue /= 6;
	hue %= 1;

	return [hue * 360, chroma * 100, grayscale * 100];
};

convert.hsl.hcg = function (hsl) {
	const s = hsl[1] / 100;
	const l = hsl[2] / 100;

	const c = l < 0.5 ? (2.0 * s * l) : (2.0 * s * (1.0 - l));

	let f = 0;
	if (c < 1.0) {
		f = (l - 0.5 * c) / (1.0 - c);
	}

	return [hsl[0], c * 100, f * 100];
};

convert.hsv.hcg = function (hsv) {
	const s = hsv[1] / 100;
	const v = hsv[2] / 100;

	const c = s * v;
	let f = 0;

	if (c < 1.0) {
		f = (v - c) / (1 - c);
	}

	return [hsv[0], c * 100, f * 100];
};

convert.hcg.rgb = function (hcg) {
	const h = hcg[0] / 360;
	const c = hcg[1] / 100;
	const g = hcg[2] / 100;

	if (c === 0.0) {
		return [g * 255, g * 255, g * 255];
	}

	const pure = [0, 0, 0];
	const hi = (h % 1) * 6;
	const v = hi % 1;
	const w = 1 - v;
	let mg = 0;

	/* eslint-disable max-statements-per-line */
	switch (Math.floor(hi)) {
		case 0:
			pure[0] = 1; pure[1] = v; pure[2] = 0; break;
		case 1:
			pure[0] = w; pure[1] = 1; pure[2] = 0; break;
		case 2:
			pure[0] = 0; pure[1] = 1; pure[2] = v; break;
		case 3:
			pure[0] = 0; pure[1] = w; pure[2] = 1; break;
		case 4:
			pure[0] = v; pure[1] = 0; pure[2] = 1; break;
		default:
			pure[0] = 1; pure[1] = 0; pure[2] = w;
	}
	/* eslint-enable max-statements-per-line */

	mg = (1.0 - c) * g;

	return [
		(c * pure[0] + mg) * 255,
		(c * pure[1] + mg) * 255,
		(c * pure[2] + mg) * 255
	];
};

convert.hcg.hsv = function (hcg) {
	const c = hcg[1] / 100;
	const g = hcg[2] / 100;

	const v = c + g * (1.0 - c);
	let f = 0;

	if (v > 0.0) {
		f = c / v;
	}

	return [hcg[0], f * 100, v * 100];
};

convert.hcg.hsl = function (hcg) {
	const c = hcg[1] / 100;
	const g = hcg[2] / 100;

	const l = g * (1.0 - c) + 0.5 * c;
	let s = 0;

	if (l > 0.0 && l < 0.5) {
		s = c / (2 * l);
	} else
	if (l >= 0.5 && l < 1.0) {
		s = c / (2 * (1 - l));
	}

	return [hcg[0], s * 100, l * 100];
};

convert.hcg.hwb = function (hcg) {
	const c = hcg[1] / 100;
	const g = hcg[2] / 100;
	const v = c + g * (1.0 - c);
	return [hcg[0], (v - c) * 100, (1 - v) * 100];
};

convert.hwb.hcg = function (hwb) {
	const w = hwb[1] / 100;
	const b = hwb[2] / 100;
	const v = 1 - b;
	const c = v - w;
	let g = 0;

	if (c < 1) {
		g = (v - c) / (1 - c);
	}

	return [hwb[0], c * 100, g * 100];
};

convert.apple.rgb = function (apple) {
	return [(apple[0] / 65535) * 255, (apple[1] / 65535) * 255, (apple[2] / 65535) * 255];
};

convert.rgb.apple = function (rgb) {
	return [(rgb[0] / 255) * 65535, (rgb[1] / 255) * 65535, (rgb[2] / 255) * 65535];
};

convert.gray.rgb = function (args) {
	return [args[0] / 100 * 255, args[0] / 100 * 255, args[0] / 100 * 255];
};

convert.gray.hsl = function (args) {
	return [0, 0, args[0]];
};

convert.gray.hsv = convert.gray.hsl;

convert.gray.hwb = function (gray) {
	return [0, 100, gray[0]];
};

convert.gray.cmyk = function (gray) {
	return [0, 0, 0, gray[0]];
};

convert.gray.lab = function (gray) {
	return [gray[0], 0, 0];
};

convert.gray.hex = function (gray) {
	const val = Math.round(gray[0] / 100 * 255) & 0xFF;
	const integer = (val << 16) + (val << 8) + val;

	const string = integer.toString(16).toUpperCase();
	return '000000'.substring(string.length) + string;
};

convert.rgb.gray = function (rgb) {
	const val = (rgb[0] + rgb[1] + rgb[2]) / 3;
	return [val / 255 * 100];
};


/***/ }),

/***/ 37050:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

const conversions = __webpack_require__(1434);
const route = __webpack_require__(55406);

const convert = {};

const models = Object.keys(conversions);

function wrapRaw(fn) {
	const wrappedFn = function (...args) {
		const arg0 = args[0];
		if (arg0 === undefined || arg0 === null) {
			return arg0;
		}

		if (arg0.length > 1) {
			args = arg0;
		}

		return fn(args);
	};

	// Preserve .conversion property if there is one
	if ('conversion' in fn) {
		wrappedFn.conversion = fn.conversion;
	}

	return wrappedFn;
}

function wrapRounded(fn) {
	const wrappedFn = function (...args) {
		const arg0 = args[0];

		if (arg0 === undefined || arg0 === null) {
			return arg0;
		}

		if (arg0.length > 1) {
			args = arg0;
		}

		const result = fn(args);

		// We're assuming the result is an array here.
		// see notice in conversions.js; don't use box types
		// in conversion functions.
		if (typeof result === 'object') {
			for (let len = result.length, i = 0; i < len; i++) {
				result[i] = Math.round(result[i]);
			}
		}

		return result;
	};

	// Preserve .conversion property if there is one
	if ('conversion' in fn) {
		wrappedFn.conversion = fn.conversion;
	}

	return wrappedFn;
}

models.forEach(fromModel => {
	convert[fromModel] = {};

	Object.defineProperty(convert[fromModel], 'channels', {value: conversions[fromModel].channels});
	Object.defineProperty(convert[fromModel], 'labels', {value: conversions[fromModel].labels});

	const routes = route(fromModel);
	const routeModels = Object.keys(routes);

	routeModels.forEach(toModel => {
		const fn = routes[toModel];

		convert[fromModel][toModel] = wrapRounded(fn);
		convert[fromModel][toModel].raw = wrapRaw(fn);
	});
});

module.exports = convert;


/***/ }),

/***/ 55406:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

const conversions = __webpack_require__(1434);

/*
	This function routes a model to all other models.

	all functions that are routed have a property `.conversion` attached
	to the returned synthetic function. This property is an array
	of strings, each with the steps in between the 'from' and 'to'
	color models (inclusive).

	conversions that are not possible simply are not included.
*/

function buildGraph() {
	const graph = {};
	// https://jsperf.com/object-keys-vs-for-in-with-closure/3
	const models = Object.keys(conversions);

	for (let len = models.length, i = 0; i < len; i++) {
		graph[models[i]] = {
			// http://jsperf.com/1-vs-infinity
			// micro-opt, but this is simple.
			distance: -1,
			parent: null
		};
	}

	return graph;
}

// https://en.wikipedia.org/wiki/Breadth-first_search
function deriveBFS(fromModel) {
	const graph = buildGraph();
	const queue = [fromModel]; // Unshift -> queue -> pop

	graph[fromModel].distance = 0;

	while (queue.length) {
		const current = queue.pop();
		const adjacents = Object.keys(conversions[current]);

		for (let len = adjacents.length, i = 0; i < len; i++) {
			const adjacent = adjacents[i];
			const node = graph[adjacent];

			if (node.distance === -1) {
				node.distance = graph[current].distance + 1;
				node.parent = current;
				queue.unshift(adjacent);
			}
		}
	}

	return graph;
}

function link(from, to) {
	return function (args) {
		return to(from(args));
	};
}

function wrapConversion(toModel, graph) {
	const path = [graph[toModel].parent, toModel];
	let fn = conversions[graph[toModel].parent][toModel];

	let cur = graph[toModel].parent;
	while (graph[cur].parent) {
		path.unshift(graph[cur].parent);
		fn = link(conversions[graph[cur].parent][cur], fn);
		cur = graph[cur].parent;
	}

	fn.conversion = path;
	return fn;
}

module.exports = function (fromModel) {
	const graph = deriveBFS(fromModel);
	const conversion = {};

	const models = Object.keys(graph);
	for (let len = models.length, i = 0; i < len; i++) {
		const toModel = models[i];
		const node = graph[toModel];

		if (node.parent === null) {
			// No possible conversion, or this node is the source model.
			continue;
		}

		conversion[toModel] = wrapConversion(toModel, graph);
	}

	return conversion;
};



/***/ }),

/***/ 55063:
/***/ ((module) => {

"use strict";


module.exports = {
	"aliceblue": [240, 248, 255],
	"antiquewhite": [250, 235, 215],
	"aqua": [0, 255, 255],
	"aquamarine": [127, 255, 212],
	"azure": [240, 255, 255],
	"beige": [245, 245, 220],
	"bisque": [255, 228, 196],
	"black": [0, 0, 0],
	"blanchedalmond": [255, 235, 205],
	"blue": [0, 0, 255],
	"blueviolet": [138, 43, 226],
	"brown": [165, 42, 42],
	"burlywood": [222, 184, 135],
	"cadetblue": [95, 158, 160],
	"chartreuse": [127, 255, 0],
	"chocolate": [210, 105, 30],
	"coral": [255, 127, 80],
	"cornflowerblue": [100, 149, 237],
	"cornsilk": [255, 248, 220],
	"crimson": [220, 20, 60],
	"cyan": [0, 255, 255],
	"darkblue": [0, 0, 139],
	"darkcyan": [0, 139, 139],
	"darkgoldenrod": [184, 134, 11],
	"darkgray": [169, 169, 169],
	"darkgreen": [0, 100, 0],
	"darkgrey": [169, 169, 169],
	"darkkhaki": [189, 183, 107],
	"darkmagenta": [139, 0, 139],
	"darkolivegreen": [85, 107, 47],
	"darkorange": [255, 140, 0],
	"darkorchid": [153, 50, 204],
	"darkred": [139, 0, 0],
	"darksalmon": [233, 150, 122],
	"darkseagreen": [143, 188, 143],
	"darkslateblue": [72, 61, 139],
	"darkslategray": [47, 79, 79],
	"darkslategrey": [47, 79, 79],
	"darkturquoise": [0, 206, 209],
	"darkviolet": [148, 0, 211],
	"deeppink": [255, 20, 147],
	"deepskyblue": [0, 191, 255],
	"dimgray": [105, 105, 105],
	"dimgrey": [105, 105, 105],
	"dodgerblue": [30, 144, 255],
	"firebrick": [178, 34, 34],
	"floralwhite": [255, 250, 240],
	"forestgreen": [34, 139, 34],
	"fuchsia": [255, 0, 255],
	"gainsboro": [220, 220, 220],
	"ghostwhite": [248, 248, 255],
	"gold": [255, 215, 0],
	"goldenrod": [218, 165, 32],
	"gray": [128, 128, 128],
	"green": [0, 128, 0],
	"greenyellow": [173, 255, 47],
	"grey": [128, 128, 128],
	"honeydew": [240, 255, 240],
	"hotpink": [255, 105, 180],
	"indianred": [205, 92, 92],
	"indigo": [75, 0, 130],
	"ivory": [255, 255, 240],
	"khaki": [240, 230, 140],
	"lavender": [230, 230, 250],
	"lavenderblush": [255, 240, 245],
	"lawngreen": [124, 252, 0],
	"lemonchiffon": [255, 250, 205],
	"lightblue": [173, 216, 230],
	"lightcoral": [240, 128, 128],
	"lightcyan": [224, 255, 255],
	"lightgoldenrodyellow": [250, 250, 210],
	"lightgray": [211, 211, 211],
	"lightgreen": [144, 238, 144],
	"lightgrey": [211, 211, 211],
	"lightpink": [255, 182, 193],
	"lightsalmon": [255, 160, 122],
	"lightseagreen": [32, 178, 170],
	"lightskyblue": [135, 206, 250],
	"lightslategray": [119, 136, 153],
	"lightslategrey": [119, 136, 153],
	"lightsteelblue": [176, 196, 222],
	"lightyellow": [255, 255, 224],
	"lime": [0, 255, 0],
	"limegreen": [50, 205, 50],
	"linen": [250, 240, 230],
	"magenta": [255, 0, 255],
	"maroon": [128, 0, 0],
	"mediumaquamarine": [102, 205, 170],
	"mediumblue": [0, 0, 205],
	"mediumorchid": [186, 85, 211],
	"mediumpurple": [147, 112, 219],
	"mediumseagreen": [60, 179, 113],
	"mediumslateblue": [123, 104, 238],
	"mediumspringgreen": [0, 250, 154],
	"mediumturquoise": [72, 209, 204],
	"mediumvioletred": [199, 21, 133],
	"midnightblue": [25, 25, 112],
	"mintcream": [245, 255, 250],
	"mistyrose": [255, 228, 225],
	"moccasin": [255, 228, 181],
	"navajowhite": [255, 222, 173],
	"navy": [0, 0, 128],
	"oldlace": [253, 245, 230],
	"olive": [128, 128, 0],
	"olivedrab": [107, 142, 35],
	"orange": [255, 165, 0],
	"orangered": [255, 69, 0],
	"orchid": [218, 112, 214],
	"palegoldenrod": [238, 232, 170],
	"palegreen": [152, 251, 152],
	"paleturquoise": [175, 238, 238],
	"palevioletred": [219, 112, 147],
	"papayawhip": [255, 239, 213],
	"peachpuff": [255, 218, 185],
	"peru": [205, 133, 63],
	"pink": [255, 192, 203],
	"plum": [221, 160, 221],
	"powderblue": [176, 224, 230],
	"purple": [128, 0, 128],
	"rebeccapurple": [102, 51, 153],
	"red": [255, 0, 0],
	"rosybrown": [188, 143, 143],
	"royalblue": [65, 105, 225],
	"saddlebrown": [139, 69, 19],
	"salmon": [250, 128, 114],
	"sandybrown": [244, 164, 96],
	"seagreen": [46, 139, 87],
	"seashell": [255, 245, 238],
	"sienna": [160, 82, 45],
	"silver": [192, 192, 192],
	"skyblue": [135, 206, 235],
	"slateblue": [106, 90, 205],
	"slategray": [112, 128, 144],
	"slategrey": [112, 128, 144],
	"snow": [255, 250, 250],
	"springgreen": [0, 255, 127],
	"steelblue": [70, 130, 180],
	"tan": [210, 180, 140],
	"teal": [0, 128, 128],
	"thistle": [216, 191, 216],
	"tomato": [255, 99, 71],
	"turquoise": [64, 224, 208],
	"violet": [238, 130, 238],
	"wheat": [245, 222, 179],
	"white": [255, 255, 255],
	"whitesmoke": [245, 245, 245],
	"yellow": [255, 255, 0],
	"yellowgreen": [154, 205, 50]
};


/***/ }),

/***/ 87584:
/***/ ((module) => {

"use strict";


module.exports = (flag, argv = process.argv) => {
	const prefix = flag.startsWith('-') ? '' : (flag.length === 1 ? '-' : '--');
	const position = argv.indexOf(prefix + flag);
	const terminatorPosition = argv.indexOf('--');
	return position !== -1 && (terminatorPosition === -1 || position < terminatorPosition);
};


/***/ }),

/***/ 12500:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

const os = __webpack_require__(12087);
const tty = __webpack_require__(33867);
const hasFlag = __webpack_require__(87584);

const {env} = process;

let forceColor;
if (hasFlag('no-color') ||
	hasFlag('no-colors') ||
	hasFlag('color=false') ||
	hasFlag('color=never')) {
	forceColor = 0;
} else if (hasFlag('color') ||
	hasFlag('colors') ||
	hasFlag('color=true') ||
	hasFlag('color=always')) {
	forceColor = 1;
}

if ('FORCE_COLOR' in env) {
	if (env.FORCE_COLOR === 'true') {
		forceColor = 1;
	} else if (env.FORCE_COLOR === 'false') {
		forceColor = 0;
	} else {
		forceColor = env.FORCE_COLOR.length === 0 ? 1 : Math.min(parseInt(env.FORCE_COLOR, 10), 3);
	}
}

function translateLevel(level) {
	if (level === 0) {
		return false;
	}

	return {
		level,
		hasBasic: true,
		has256: level >= 2,
		has16m: level >= 3
	};
}

function supportsColor(haveStream, streamIsTTY) {
	if (forceColor === 0) {
		return 0;
	}

	if (hasFlag('color=16m') ||
		hasFlag('color=full') ||
		hasFlag('color=truecolor')) {
		return 3;
	}

	if (hasFlag('color=256')) {
		return 2;
	}

	if (haveStream && !streamIsTTY && forceColor === undefined) {
		return 0;
	}

	const min = forceColor || 0;

	if (env.TERM === 'dumb') {
		return min;
	}

	if (process.platform === 'win32') {
		// Windows 10 build 10586 is the first Windows release that supports 256 colors.
		// Windows 10 build 14931 is the first release that supports 16m/TrueColor.
		const osRelease = os.release().split('.');
		if (
			Number(osRelease[0]) >= 10 &&
			Number(osRelease[2]) >= 10586
		) {
			return Number(osRelease[2]) >= 14931 ? 3 : 2;
		}

		return 1;
	}

	if ('CI' in env) {
		if (['TRAVIS', 'CIRCLECI', 'APPVEYOR', 'GITLAB_CI', 'GITHUB_ACTIONS', 'BUILDKITE'].some(sign => sign in env) || env.CI_NAME === 'codeship') {
			return 1;
		}

		return min;
	}

	if ('TEAMCITY_VERSION' in env) {
		return /^(9\.(0*[1-9]\d*)\.|\d{2,}\.)/.test(env.TEAMCITY_VERSION) ? 1 : 0;
	}

	if (env.COLORTERM === 'truecolor') {
		return 3;
	}

	if ('TERM_PROGRAM' in env) {
		const version = parseInt((env.TERM_PROGRAM_VERSION || '').split('.')[0], 10);

		switch (env.TERM_PROGRAM) {
			case 'iTerm.app':
				return version >= 3 ? 3 : 2;
			case 'Apple_Terminal':
				return 2;
			// No default
		}
	}

	if (/-256(color)?$/i.test(env.TERM)) {
		return 2;
	}

	if (/^screen|^xterm|^vt100|^vt220|^rxvt|color|ansi|cygwin|linux/i.test(env.TERM)) {
		return 1;
	}

	if ('COLORTERM' in env) {
		return 1;
	}

	return min;
}

function getSupportLevel(stream) {
	const level = supportsColor(stream, stream && stream.isTTY);
	return translateLevel(level);
}

module.exports = {
	supportsColor: getSupportLevel,
	stdout: translateLevel(supportsColor(true, tty.isatty(1))),
	stderr: translateLevel(supportsColor(true, tty.isatty(2)))
};


/***/ }),

/***/ 97998:
/***/ ((__unused_webpack_module, exports, __webpack_require__) => {

"use strict";


// high-level commands
exports.c = exports.create = __webpack_require__(74629)
exports.r = exports.replace = __webpack_require__(71746)
exports.t = exports.list = __webpack_require__(6473)
exports.u = exports.update = __webpack_require__(45997)
exports.x = exports.extract = __webpack_require__(30769)

// classes
exports.Pack = __webpack_require__(48042)
exports.Unpack = __webpack_require__(42699)
exports.Parse = __webpack_require__(26824)
exports.ReadEntry = __webpack_require__(16277)
exports.WriteEntry = __webpack_require__(17620)
exports.Header = __webpack_require__(37134)
exports.Pax = __webpack_require__(64747)
exports.types = __webpack_require__(86753)


/***/ }),

/***/ 74629:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";


// tar -c
const hlo = __webpack_require__(32093)

const Pack = __webpack_require__(48042)
const fsm = __webpack_require__(10292)
const t = __webpack_require__(6473)
const path = __webpack_require__(85622)

module.exports = (opt_, files, cb) => {
  if (typeof files === 'function')
    cb = files

  if (Array.isArray(opt_))
    files = opt_, opt_ = {}

  if (!files || !Array.isArray(files) || !files.length)
    throw new TypeError('no files or directories specified')

  files = Array.from(files)

  const opt = hlo(opt_)

  if (opt.sync && typeof cb === 'function')
    throw new TypeError('callback not supported for sync tar functions')

  if (!opt.file && typeof cb === 'function')
    throw new TypeError('callback only supported with file option')

  return opt.file && opt.sync ? createFileSync(opt, files)
    : opt.file ? createFile(opt, files, cb)
    : opt.sync ? createSync(opt, files)
    : create(opt, files)
}

const createFileSync = (opt, files) => {
  const p = new Pack.Sync(opt)
  const stream = new fsm.WriteStreamSync(opt.file, {
    mode: opt.mode || 0o666,
  })
  p.pipe(stream)
  addFilesSync(p, files)
}

const createFile = (opt, files, cb) => {
  const p = new Pack(opt)
  const stream = new fsm.WriteStream(opt.file, {
    mode: opt.mode || 0o666,
  })
  p.pipe(stream)

  const promise = new Promise((res, rej) => {
    stream.on('error', rej)
    stream.on('close', res)
    p.on('error', rej)
  })

  addFilesAsync(p, files)

  return cb ? promise.then(cb, cb) : promise
}

const addFilesSync = (p, files) => {
  files.forEach(file => {
    if (file.charAt(0) === '@') {
      t({
        file: path.resolve(p.cwd, file.substr(1)),
        sync: true,
        noResume: true,
        onentry: entry => p.add(entry),
      })
    } else
      p.add(file)
  })
  p.end()
}

const addFilesAsync = (p, files) => {
  while (files.length) {
    const file = files.shift()
    if (file.charAt(0) === '@') {
      return t({
        file: path.resolve(p.cwd, file.substr(1)),
        noResume: true,
        onentry: entry => p.add(entry),
      }).then(_ => addFilesAsync(p, files))
    } else
      p.add(file)
  }
  p.end()
}

const createSync = (opt, files) => {
  const p = new Pack.Sync(opt)
  addFilesSync(p, files)
  return p
}

const create = (opt, files) => {
  const p = new Pack(opt)
  addFilesAsync(p, files)
  return p
}


/***/ }),

/***/ 30769:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";


// tar -x
const hlo = __webpack_require__(32093)
const Unpack = __webpack_require__(42699)
const fs = __webpack_require__(35747)
const fsm = __webpack_require__(10292)
const path = __webpack_require__(85622)
const stripSlash = __webpack_require__(64922)

module.exports = (opt_, files, cb) => {
  if (typeof opt_ === 'function')
    cb = opt_, files = null, opt_ = {}
  else if (Array.isArray(opt_))
    files = opt_, opt_ = {}

  if (typeof files === 'function')
    cb = files, files = null

  if (!files)
    files = []
  else
    files = Array.from(files)

  const opt = hlo(opt_)

  if (opt.sync && typeof cb === 'function')
    throw new TypeError('callback not supported for sync tar functions')

  if (!opt.file && typeof cb === 'function')
    throw new TypeError('callback only supported with file option')

  if (files.length)
    filesFilter(opt, files)

  return opt.file && opt.sync ? extractFileSync(opt)
    : opt.file ? extractFile(opt, cb)
    : opt.sync ? extractSync(opt)
    : extract(opt)
}

// construct a filter that limits the file entries listed
// include child entries if a dir is included
const filesFilter = (opt, files) => {
  const map = new Map(files.map(f => [stripSlash(f), true]))
  const filter = opt.filter

  const mapHas = (file, r) => {
    const root = r || path.parse(file).root || '.'
    const ret = file === root ? false
      : map.has(file) ? map.get(file)
      : mapHas(path.dirname(file), root)

    map.set(file, ret)
    return ret
  }

  opt.filter = filter
    ? (file, entry) => filter(file, entry) && mapHas(stripSlash(file))
    : file => mapHas(stripSlash(file))
}

const extractFileSync = opt => {
  const u = new Unpack.Sync(opt)

  const file = opt.file
  const stat = fs.statSync(file)
  // This trades a zero-byte read() syscall for a stat
  // However, it will usually result in less memory allocation
  const readSize = opt.maxReadSize || 16 * 1024 * 1024
  const stream = new fsm.ReadStreamSync(file, {
    readSize: readSize,
    size: stat.size,
  })
  stream.pipe(u)
}

const extractFile = (opt, cb) => {
  const u = new Unpack(opt)
  const readSize = opt.maxReadSize || 16 * 1024 * 1024

  const file = opt.file
  const p = new Promise((resolve, reject) => {
    u.on('error', reject)
    u.on('close', resolve)

    // This trades a zero-byte read() syscall for a stat
    // However, it will usually result in less memory allocation
    fs.stat(file, (er, stat) => {
      if (er)
        reject(er)
      else {
        const stream = new fsm.ReadStream(file, {
          readSize: readSize,
          size: stat.size,
        })
        stream.on('error', reject)
        stream.pipe(u)
      }
    })
  })
  return cb ? p.then(cb, cb) : p
}

const extractSync = opt => new Unpack.Sync(opt)

const extract = opt => new Unpack(opt)


/***/ }),

/***/ 35879:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

// Get the appropriate flag to use for creating files
// We use fmap on Windows platforms for files less than
// 512kb.  This is a fairly low limit, but avoids making
// things slower in some cases.  Since most of what this
// library is used for is extracting tarballs of many
// relatively small files in npm packages and the like,
// it can be a big boost on Windows platforms.
// Only supported in Node v12.9.0 and above.
const platform = process.env.__FAKE_PLATFORM__ || process.platform
const isWindows = platform === 'win32'
const fs = global.__FAKE_TESTING_FS__ || __webpack_require__(35747)

/* istanbul ignore next */
const { O_CREAT, O_TRUNC, O_WRONLY, UV_FS_O_FILEMAP = 0 } = fs.constants

const fMapEnabled = isWindows && !!UV_FS_O_FILEMAP
const fMapLimit = 512 * 1024
const fMapFlag = UV_FS_O_FILEMAP | O_TRUNC | O_CREAT | O_WRONLY
module.exports = !fMapEnabled ? () => 'w'
  : size => size < fMapLimit ? fMapFlag : 'w'


/***/ }),

/***/ 37134:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

// parse a 512-byte header block to a data object, or vice-versa
// encode returns `true` if a pax extended header is needed, because
// the data could not be faithfully encoded in a simple header.
// (Also, check header.needPax to see if it needs a pax header.)

const types = __webpack_require__(86753)
const pathModule = __webpack_require__(85622).posix
const large = __webpack_require__(69678)

const SLURP = Symbol('slurp')
const TYPE = Symbol('type')

class Header {
  constructor (data, off, ex, gex) {
    this.cksumValid = false
    this.needPax = false
    this.nullBlock = false

    this.block = null
    this.path = null
    this.mode = null
    this.uid = null
    this.gid = null
    this.size = null
    this.mtime = null
    this.cksum = null
    this[TYPE] = '0'
    this.linkpath = null
    this.uname = null
    this.gname = null
    this.devmaj = 0
    this.devmin = 0
    this.atime = null
    this.ctime = null

    if (Buffer.isBuffer(data))
      this.decode(data, off || 0, ex, gex)
    else if (data)
      this.set(data)
  }

  decode (buf, off, ex, gex) {
    if (!off)
      off = 0

    if (!buf || !(buf.length >= off + 512))
      throw new Error('need 512 bytes for header')

    this.path = decString(buf, off, 100)
    this.mode = decNumber(buf, off + 100, 8)
    this.uid = decNumber(buf, off + 108, 8)
    this.gid = decNumber(buf, off + 116, 8)
    this.size = decNumber(buf, off + 124, 12)
    this.mtime = decDate(buf, off + 136, 12)
    this.cksum = decNumber(buf, off + 148, 12)

    // if we have extended or global extended headers, apply them now
    // See https://github.com/npm/node-tar/pull/187
    this[SLURP](ex)
    this[SLURP](gex, true)

    // old tar versions marked dirs as a file with a trailing /
    this[TYPE] = decString(buf, off + 156, 1)
    if (this[TYPE] === '')
      this[TYPE] = '0'
    if (this[TYPE] === '0' && this.path.substr(-1) === '/')
      this[TYPE] = '5'

    // tar implementations sometimes incorrectly put the stat(dir).size
    // as the size in the tarball, even though Directory entries are
    // not able to have any body at all.  In the very rare chance that
    // it actually DOES have a body, we weren't going to do anything with
    // it anyway, and it'll just be a warning about an invalid header.
    if (this[TYPE] === '5')
      this.size = 0

    this.linkpath = decString(buf, off + 157, 100)
    if (buf.slice(off + 257, off + 265).toString() === 'ustar\u000000') {
      this.uname = decString(buf, off + 265, 32)
      this.gname = decString(buf, off + 297, 32)
      this.devmaj = decNumber(buf, off + 329, 8)
      this.devmin = decNumber(buf, off + 337, 8)
      if (buf[off + 475] !== 0) {
        // definitely a prefix, definitely >130 chars.
        const prefix = decString(buf, off + 345, 155)
        this.path = prefix + '/' + this.path
      } else {
        const prefix = decString(buf, off + 345, 130)
        if (prefix)
          this.path = prefix + '/' + this.path
        this.atime = decDate(buf, off + 476, 12)
        this.ctime = decDate(buf, off + 488, 12)
      }
    }

    let sum = 8 * 0x20
    for (let i = off; i < off + 148; i++)
      sum += buf[i]

    for (let i = off + 156; i < off + 512; i++)
      sum += buf[i]

    this.cksumValid = sum === this.cksum
    if (this.cksum === null && sum === 8 * 0x20)
      this.nullBlock = true
  }

  [SLURP] (ex, global) {
    for (const k in ex) {
      // we slurp in everything except for the path attribute in
      // a global extended header, because that's weird.
      if (ex[k] !== null && ex[k] !== undefined &&
          !(global && k === 'path'))
        this[k] = ex[k]
    }
  }

  encode (buf, off) {
    if (!buf) {
      buf = this.block = Buffer.alloc(512)
      off = 0
    }

    if (!off)
      off = 0

    if (!(buf.length >= off + 512))
      throw new Error('need 512 bytes for header')

    const prefixSize = this.ctime || this.atime ? 130 : 155
    const split = splitPrefix(this.path || '', prefixSize)
    const path = split[0]
    const prefix = split[1]
    this.needPax = split[2]

    this.needPax = encString(buf, off, 100, path) || this.needPax
    this.needPax = encNumber(buf, off + 100, 8, this.mode) || this.needPax
    this.needPax = encNumber(buf, off + 108, 8, this.uid) || this.needPax
    this.needPax = encNumber(buf, off + 116, 8, this.gid) || this.needPax
    this.needPax = encNumber(buf, off + 124, 12, this.size) || this.needPax
    this.needPax = encDate(buf, off + 136, 12, this.mtime) || this.needPax
    buf[off + 156] = this[TYPE].charCodeAt(0)
    this.needPax = encString(buf, off + 157, 100, this.linkpath) || this.needPax
    buf.write('ustar\u000000', off + 257, 8)
    this.needPax = encString(buf, off + 265, 32, this.uname) || this.needPax
    this.needPax = encString(buf, off + 297, 32, this.gname) || this.needPax
    this.needPax = encNumber(buf, off + 329, 8, this.devmaj) || this.needPax
    this.needPax = encNumber(buf, off + 337, 8, this.devmin) || this.needPax
    this.needPax = encString(buf, off + 345, prefixSize, prefix) || this.needPax
    if (buf[off + 475] !== 0)
      this.needPax = encString(buf, off + 345, 155, prefix) || this.needPax
    else {
      this.needPax = encString(buf, off + 345, 130, prefix) || this.needPax
      this.needPax = encDate(buf, off + 476, 12, this.atime) || this.needPax
      this.needPax = encDate(buf, off + 488, 12, this.ctime) || this.needPax
    }

    let sum = 8 * 0x20
    for (let i = off; i < off + 148; i++)
      sum += buf[i]

    for (let i = off + 156; i < off + 512; i++)
      sum += buf[i]

    this.cksum = sum
    encNumber(buf, off + 148, 8, this.cksum)
    this.cksumValid = true

    return this.needPax
  }

  set (data) {
    for (const i in data) {
      if (data[i] !== null && data[i] !== undefined)
        this[i] = data[i]
    }
  }

  get type () {
    return types.name.get(this[TYPE]) || this[TYPE]
  }

  get typeKey () {
    return this[TYPE]
  }

  set type (type) {
    if (types.code.has(type))
      this[TYPE] = types.code.get(type)
    else
      this[TYPE] = type
  }
}

const splitPrefix = (p, prefixSize) => {
  const pathSize = 100
  let pp = p
  let prefix = ''
  let ret
  const root = pathModule.parse(p).root || '.'

  if (Buffer.byteLength(pp) < pathSize)
    ret = [pp, prefix, false]
  else {
    // first set prefix to the dir, and path to the base
    prefix = pathModule.dirname(pp)
    pp = pathModule.basename(pp)

    do {
      // both fit!
      if (Buffer.byteLength(pp) <= pathSize &&
          Buffer.byteLength(prefix) <= prefixSize)
        ret = [pp, prefix, false]

      // prefix fits in prefix, but path doesn't fit in path
      else if (Buffer.byteLength(pp) > pathSize &&
          Buffer.byteLength(prefix) <= prefixSize)
        ret = [pp.substr(0, pathSize - 1), prefix, true]

      else {
        // make path take a bit from prefix
        pp = pathModule.join(pathModule.basename(prefix), pp)
        prefix = pathModule.dirname(prefix)
      }
    } while (prefix !== root && !ret)

    // at this point, found no resolution, just truncate
    if (!ret)
      ret = [p.substr(0, pathSize - 1), '', true]
  }
  return ret
}

const decString = (buf, off, size) =>
  buf.slice(off, off + size).toString('utf8').replace(/\0.*/, '')

const decDate = (buf, off, size) =>
  numToDate(decNumber(buf, off, size))

const numToDate = num => num === null ? null : new Date(num * 1000)

const decNumber = (buf, off, size) =>
  buf[off] & 0x80 ? large.parse(buf.slice(off, off + size))
  : decSmallNumber(buf, off, size)

const nanNull = value => isNaN(value) ? null : value

const decSmallNumber = (buf, off, size) =>
  nanNull(parseInt(
    buf.slice(off, off + size)
      .toString('utf8').replace(/\0.*$/, '').trim(), 8))

// the maximum encodable as a null-terminated octal, by field size
const MAXNUM = {
  12: 0o77777777777,
  8: 0o7777777,
}

const encNumber = (buf, off, size, number) =>
  number === null ? false :
  number > MAXNUM[size] || number < 0
    ? (large.encode(number, buf.slice(off, off + size)), true)
    : (encSmallNumber(buf, off, size, number), false)

const encSmallNumber = (buf, off, size, number) =>
  buf.write(octalString(number, size), off, size, 'ascii')

const octalString = (number, size) =>
  padOctal(Math.floor(number).toString(8), size)

const padOctal = (string, size) =>
  (string.length === size - 1 ? string
  : new Array(size - string.length - 1).join('0') + string + ' ') + '\0'

const encDate = (buf, off, size, date) =>
  date === null ? false :
  encNumber(buf, off, size, date.getTime() / 1000)

// enough to fill the longest string we've got
const NULLS = new Array(156).join('\0')
// pad with nulls, return true if it's longer or non-ascii
const encString = (buf, off, size, string) =>
  string === null ? false :
  (buf.write(string + NULLS, off, size, 'utf8'),
  string.length !== Buffer.byteLength(string) || string.length > size)

module.exports = Header


/***/ }),

/***/ 32093:
/***/ ((module) => {

"use strict";


// turn tar(1) style args like `C` into the more verbose things like `cwd`

const argmap = new Map([
  ['C', 'cwd'],
  ['f', 'file'],
  ['z', 'gzip'],
  ['P', 'preservePaths'],
  ['U', 'unlink'],
  ['strip-components', 'strip'],
  ['stripComponents', 'strip'],
  ['keep-newer', 'newer'],
  ['keepNewer', 'newer'],
  ['keep-newer-files', 'newer'],
  ['keepNewerFiles', 'newer'],
  ['k', 'keep'],
  ['keep-existing', 'keep'],
  ['keepExisting', 'keep'],
  ['m', 'noMtime'],
  ['no-mtime', 'noMtime'],
  ['p', 'preserveOwner'],
  ['L', 'follow'],
  ['h', 'follow'],
])

module.exports = opt => opt ? Object.keys(opt).map(k => [
  argmap.has(k) ? argmap.get(k) : k, opt[k],
]).reduce((set, kv) => (set[kv[0]] = kv[1], set), Object.create(null)) : {}


/***/ }),

/***/ 69678:
/***/ ((module) => {

"use strict";

// Tar can encode large and negative numbers using a leading byte of
// 0xff for negative, and 0x80 for positive.

const encode = (num, buf) => {
  if (!Number.isSafeInteger(num))
    // The number is so large that javascript cannot represent it with integer
    // precision.
    throw Error('cannot encode number outside of javascript safe integer range')
  else if (num < 0)
    encodeNegative(num, buf)
  else
    encodePositive(num, buf)
  return buf
}

const encodePositive = (num, buf) => {
  buf[0] = 0x80

  for (var i = buf.length; i > 1; i--) {
    buf[i - 1] = num & 0xff
    num = Math.floor(num / 0x100)
  }
}

const encodeNegative = (num, buf) => {
  buf[0] = 0xff
  var flipped = false
  num = num * -1
  for (var i = buf.length; i > 1; i--) {
    var byte = num & 0xff
    num = Math.floor(num / 0x100)
    if (flipped)
      buf[i - 1] = onesComp(byte)
    else if (byte === 0)
      buf[i - 1] = 0
    else {
      flipped = true
      buf[i - 1] = twosComp(byte)
    }
  }
}

const parse = (buf) => {
  const pre = buf[0]
  const value = pre === 0x80 ? pos(buf.slice(1, buf.length))
    : pre === 0xff ? twos(buf)
    : null
  if (value === null)
    throw Error('invalid base256 encoding')

  if (!Number.isSafeInteger(value))
    // The number is so large that javascript cannot represent it with integer
    // precision.
    throw Error('parsed number outside of javascript safe integer range')

  return value
}

const twos = (buf) => {
  var len = buf.length
  var sum = 0
  var flipped = false
  for (var i = len - 1; i > -1; i--) {
    var byte = buf[i]
    var f
    if (flipped)
      f = onesComp(byte)
    else if (byte === 0)
      f = byte
    else {
      flipped = true
      f = twosComp(byte)
    }
    if (f !== 0)
      sum -= f * Math.pow(256, len - i - 1)
  }
  return sum
}

const pos = (buf) => {
  var len = buf.length
  var sum = 0
  for (var i = len - 1; i > -1; i--) {
    var byte = buf[i]
    if (byte !== 0)
      sum += byte * Math.pow(256, len - i - 1)
  }
  return sum
}

const onesComp = byte => (0xff ^ byte) & 0xff

const twosComp = byte => ((0xff ^ byte) + 1) & 0xff

module.exports = {
  encode,
  parse,
}


/***/ }),

/***/ 6473:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";


// XXX: This shares a lot in common with extract.js
// maybe some DRY opportunity here?

// tar -t
const hlo = __webpack_require__(32093)
const Parser = __webpack_require__(26824)
const fs = __webpack_require__(35747)
const fsm = __webpack_require__(10292)
const path = __webpack_require__(85622)
const stripSlash = __webpack_require__(64922)

module.exports = (opt_, files, cb) => {
  if (typeof opt_ === 'function')
    cb = opt_, files = null, opt_ = {}
  else if (Array.isArray(opt_))
    files = opt_, opt_ = {}

  if (typeof files === 'function')
    cb = files, files = null

  if (!files)
    files = []
  else
    files = Array.from(files)

  const opt = hlo(opt_)

  if (opt.sync && typeof cb === 'function')
    throw new TypeError('callback not supported for sync tar functions')

  if (!opt.file && typeof cb === 'function')
    throw new TypeError('callback only supported with file option')

  if (files.length)
    filesFilter(opt, files)

  if (!opt.noResume)
    onentryFunction(opt)

  return opt.file && opt.sync ? listFileSync(opt)
    : opt.file ? listFile(opt, cb)
    : list(opt)
}

const onentryFunction = opt => {
  const onentry = opt.onentry
  opt.onentry = onentry ? e => {
    onentry(e)
    e.resume()
  } : e => e.resume()
}

// construct a filter that limits the file entries listed
// include child entries if a dir is included
const filesFilter = (opt, files) => {
  const map = new Map(files.map(f => [stripSlash(f), true]))
  const filter = opt.filter

  const mapHas = (file, r) => {
    const root = r || path.parse(file).root || '.'
    const ret = file === root ? false
      : map.has(file) ? map.get(file)
      : mapHas(path.dirname(file), root)

    map.set(file, ret)
    return ret
  }

  opt.filter = filter
    ? (file, entry) => filter(file, entry) && mapHas(stripSlash(file))
    : file => mapHas(stripSlash(file))
}

const listFileSync = opt => {
  const p = list(opt)
  const file = opt.file
  let threw = true
  let fd
  try {
    const stat = fs.statSync(file)
    const readSize = opt.maxReadSize || 16 * 1024 * 1024
    if (stat.size < readSize)
      p.end(fs.readFileSync(file))
    else {
      let pos = 0
      const buf = Buffer.allocUnsafe(readSize)
      fd = fs.openSync(file, 'r')
      while (pos < stat.size) {
        const bytesRead = fs.readSync(fd, buf, 0, readSize, pos)
        pos += bytesRead
        p.write(buf.slice(0, bytesRead))
      }
      p.end()
    }
    threw = false
  } finally {
    if (threw && fd) {
      try {
        fs.closeSync(fd)
      } catch (er) {}
    }
  }
}

const listFile = (opt, cb) => {
  const parse = new Parser(opt)
  const readSize = opt.maxReadSize || 16 * 1024 * 1024

  const file = opt.file
  const p = new Promise((resolve, reject) => {
    parse.on('error', reject)
    parse.on('end', resolve)

    fs.stat(file, (er, stat) => {
      if (er)
        reject(er)
      else {
        const stream = new fsm.ReadStream(file, {
          readSize: readSize,
          size: stat.size,
        })
        stream.on('error', reject)
        stream.pipe(parse)
      }
    })
  })
  return cb ? p.then(cb, cb) : p
}

const list = opt => new Parser(opt)


/***/ }),

/***/ 53248:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

// wrapper around mkdirp for tar's needs.

// TODO: This should probably be a class, not functionally
// passing around state in a gazillion args.

const mkdirp = __webpack_require__(76318)
const fs = __webpack_require__(35747)
const path = __webpack_require__(85622)
const chownr = __webpack_require__(85608)
const normPath = __webpack_require__(22905)

class SymlinkError extends Error {
  constructor (symlink, path) {
    super('Cannot extract through symbolic link')
    this.path = path
    this.symlink = symlink
  }

  get name () {
    return 'SylinkError'
  }
}

class CwdError extends Error {
  constructor (path, code) {
    super(code + ': Cannot cd into \'' + path + '\'')
    this.path = path
    this.code = code
  }

  get name () {
    return 'CwdError'
  }
}

const cGet = (cache, key) => cache.get(normPath(key))
const cSet = (cache, key, val) => cache.set(normPath(key), val)

const checkCwd = (dir, cb) => {
  fs.stat(dir, (er, st) => {
    if (er || !st.isDirectory())
      er = new CwdError(dir, er && er.code || 'ENOTDIR')
    cb(er)
  })
}

module.exports = (dir, opt, cb) => {
  dir = normPath(dir)

  // if there's any overlap between mask and mode,
  // then we'll need an explicit chmod
  const umask = opt.umask
  const mode = opt.mode | 0o0700
  const needChmod = (mode & umask) !== 0

  const uid = opt.uid
  const gid = opt.gid
  const doChown = typeof uid === 'number' &&
    typeof gid === 'number' &&
    (uid !== opt.processUid || gid !== opt.processGid)

  const preserve = opt.preserve
  const unlink = opt.unlink
  const cache = opt.cache
  const cwd = normPath(opt.cwd)

  const done = (er, created) => {
    if (er)
      cb(er)
    else {
      cSet(cache, dir, true)
      if (created && doChown)
        chownr(created, uid, gid, er => done(er))
      else if (needChmod)
        fs.chmod(dir, mode, cb)
      else
        cb()
    }
  }

  if (cache && cGet(cache, dir) === true)
    return done()

  if (dir === cwd)
    return checkCwd(dir, done)

  if (preserve)
    return mkdirp(dir, {mode}).then(made => done(null, made), done)

  const sub = normPath(path.relative(cwd, dir))
  const parts = sub.split('/')
  mkdir_(cwd, parts, mode, cache, unlink, cwd, null, done)
}

const mkdir_ = (base, parts, mode, cache, unlink, cwd, created, cb) => {
  if (!parts.length)
    return cb(null, created)
  const p = parts.shift()
  const part = normPath(path.resolve(base + '/' + p))
  if (cGet(cache, part))
    return mkdir_(part, parts, mode, cache, unlink, cwd, created, cb)
  fs.mkdir(part, mode, onmkdir(part, parts, mode, cache, unlink, cwd, created, cb))
}

const onmkdir = (part, parts, mode, cache, unlink, cwd, created, cb) => er => {
  if (er) {
    fs.lstat(part, (statEr, st) => {
      if (statEr) {
        statEr.path = statEr.path && normPath(statEr.path)
        cb(statEr)
      } else if (st.isDirectory())
        mkdir_(part, parts, mode, cache, unlink, cwd, created, cb)
      else if (unlink) {
        fs.unlink(part, er => {
          if (er)
            return cb(er)
          fs.mkdir(part, mode, onmkdir(part, parts, mode, cache, unlink, cwd, created, cb))
        })
      } else if (st.isSymbolicLink())
        return cb(new SymlinkError(part, part + '/' + parts.join('/')))
      else
        cb(er)
    })
  } else {
    created = created || part
    mkdir_(part, parts, mode, cache, unlink, cwd, created, cb)
  }
}

const checkCwdSync = dir => {
  let ok = false
  let code = 'ENOTDIR'
  try {
    ok = fs.statSync(dir).isDirectory()
  } catch (er) {
    code = er.code
  } finally {
    if (!ok)
      throw new CwdError(dir, code)
  }
}

module.exports.sync = (dir, opt) => {
  dir = normPath(dir)
  // if there's any overlap between mask and mode,
  // then we'll need an explicit chmod
  const umask = opt.umask
  const mode = opt.mode | 0o0700
  const needChmod = (mode & umask) !== 0

  const uid = opt.uid
  const gid = opt.gid
  const doChown = typeof uid === 'number' &&
    typeof gid === 'number' &&
    (uid !== opt.processUid || gid !== opt.processGid)

  const preserve = opt.preserve
  const unlink = opt.unlink
  const cache = opt.cache
  const cwd = normPath(opt.cwd)

  const done = (created) => {
    cSet(cache, dir, true)
    if (created && doChown)
      chownr.sync(created, uid, gid)
    if (needChmod)
      fs.chmodSync(dir, mode)
  }

  if (cache && cGet(cache, dir) === true)
    return done()

  if (dir === cwd) {
    checkCwdSync(cwd)
    return done()
  }

  if (preserve)
    return done(mkdirp.sync(dir, mode))

  const sub = normPath(path.relative(cwd, dir))
  const parts = sub.split('/')
  let created = null
  for (let p = parts.shift(), part = cwd;
    p && (part += '/' + p);
    p = parts.shift()) {
    part = normPath(path.resolve(part))
    if (cGet(cache, part))
      continue

    try {
      fs.mkdirSync(part, mode)
      created = created || part
      cSet(cache, part, true)
    } catch (er) {
      const st = fs.lstatSync(part)
      if (st.isDirectory()) {
        cSet(cache, part, true)
        continue
      } else if (unlink) {
        fs.unlinkSync(part)
        fs.mkdirSync(part, mode)
        created = created || part
        cSet(cache, part, true)
        continue
      } else if (st.isSymbolicLink())
        return new SymlinkError(part, part + '/' + parts.join('/'))
    }
  }

  return done(created)
}


/***/ }),

/***/ 27716:
/***/ ((module) => {

"use strict";

module.exports = (mode, isDir, portable) => {
  mode &= 0o7777

  // in portable mode, use the minimum reasonable umask
  // if this system creates files with 0o664 by default
  // (as some linux distros do), then we'll write the
  // archive with 0o644 instead.  Also, don't ever create
  // a file that is not readable/writable by the owner.
  if (portable)
    mode = (mode | 0o600) & ~0o22

  // if dirs are readable, then they should be listable
  if (isDir) {
    if (mode & 0o400)
      mode |= 0o100
    if (mode & 0o40)
      mode |= 0o10
    if (mode & 0o4)
      mode |= 0o1
  }
  return mode
}


/***/ }),

/***/ 31946:
/***/ ((module) => {

// warning: extremely hot code path.
// This has been meticulously optimized for use
// within npm install on large package trees.
// Do not edit without careful benchmarking.
const normalizeCache = Object.create(null)
const {hasOwnProperty} = Object.prototype
module.exports = s => {
  if (!hasOwnProperty.call(normalizeCache, s))
    normalizeCache[s] = s.normalize('NFKD')
  return normalizeCache[s]
}


/***/ }),

/***/ 22905:
/***/ ((module) => {

// on windows, either \ or / are valid directory separators.
// on unix, \ is a valid character in filenames.
// so, on windows, and only on windows, we replace all \ chars with /,
// so that we can use / as our one and only directory separator char.

const platform = process.env.TESTING_TAR_FAKE_PLATFORM || process.platform
module.exports = platform !== 'win32' ? p => p
  : p => p && p.replace(/\\/g, '/')


/***/ }),

/***/ 48042:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";


// A readable tar stream creator
// Technically, this is a transform stream that you write paths into,
// and tar format comes out of.
// The `add()` method is like `write()` but returns this,
// and end() return `this` as well, so you can
// do `new Pack(opt).add('files').add('dir').end().pipe(output)
// You could also do something like:
// streamOfPaths().pipe(new Pack()).pipe(new fs.WriteStream('out.tar'))

class PackJob {
  constructor (path, absolute) {
    this.path = path || './'
    this.absolute = absolute
    this.entry = null
    this.stat = null
    this.readdir = null
    this.pending = false
    this.ignore = false
    this.piped = false
  }
}

const MiniPass = __webpack_require__(74577)
const zlib = __webpack_require__(31650)
const ReadEntry = __webpack_require__(16277)
const WriteEntry = __webpack_require__(17620)
const WriteEntrySync = WriteEntry.Sync
const WriteEntryTar = WriteEntry.Tar
const Yallist = __webpack_require__(51234)
const EOF = Buffer.alloc(1024)
const ONSTAT = Symbol('onStat')
const ENDED = Symbol('ended')
const QUEUE = Symbol('queue')
const CURRENT = Symbol('current')
const PROCESS = Symbol('process')
const PROCESSING = Symbol('processing')
const PROCESSJOB = Symbol('processJob')
const JOBS = Symbol('jobs')
const JOBDONE = Symbol('jobDone')
const ADDFSENTRY = Symbol('addFSEntry')
const ADDTARENTRY = Symbol('addTarEntry')
const STAT = Symbol('stat')
const READDIR = Symbol('readdir')
const ONREADDIR = Symbol('onreaddir')
const PIPE = Symbol('pipe')
const ENTRY = Symbol('entry')
const ENTRYOPT = Symbol('entryOpt')
const WRITEENTRYCLASS = Symbol('writeEntryClass')
const WRITE = Symbol('write')
const ONDRAIN = Symbol('ondrain')

const fs = __webpack_require__(35747)
const path = __webpack_require__(85622)
const warner = __webpack_require__(7902)
const normPath = __webpack_require__(22905)

const Pack = warner(class Pack extends MiniPass {
  constructor (opt) {
    super(opt)
    opt = opt || Object.create(null)
    this.opt = opt
    this.file = opt.file || ''
    this.cwd = opt.cwd || process.cwd()
    this.maxReadSize = opt.maxReadSize
    this.preservePaths = !!opt.preservePaths
    this.strict = !!opt.strict
    this.noPax = !!opt.noPax
    this.prefix = normPath(opt.prefix || '')
    this.linkCache = opt.linkCache || new Map()
    this.statCache = opt.statCache || new Map()
    this.readdirCache = opt.readdirCache || new Map()

    this[WRITEENTRYCLASS] = WriteEntry
    if (typeof opt.onwarn === 'function')
      this.on('warn', opt.onwarn)

    this.portable = !!opt.portable
    this.zip = null
    if (opt.gzip) {
      if (typeof opt.gzip !== 'object')
        opt.gzip = {}
      if (this.portable)
        opt.gzip.portable = true
      this.zip = new zlib.Gzip(opt.gzip)
      this.zip.on('data', chunk => super.write(chunk))
      this.zip.on('end', _ => super.end())
      this.zip.on('drain', _ => this[ONDRAIN]())
      this.on('resume', _ => this.zip.resume())
    } else
      this.on('drain', this[ONDRAIN])

    this.noDirRecurse = !!opt.noDirRecurse
    this.follow = !!opt.follow
    this.noMtime = !!opt.noMtime
    this.mtime = opt.mtime || null

    this.filter = typeof opt.filter === 'function' ? opt.filter : _ => true

    this[QUEUE] = new Yallist()
    this[JOBS] = 0
    this.jobs = +opt.jobs || 4
    this[PROCESSING] = false
    this[ENDED] = false
  }

  [WRITE] (chunk) {
    return super.write(chunk)
  }

  add (path) {
    this.write(path)
    return this
  }

  end (path) {
    if (path)
      this.write(path)
    this[ENDED] = true
    this[PROCESS]()
    return this
  }

  write (path) {
    if (this[ENDED])
      throw new Error('write after end')

    if (path instanceof ReadEntry)
      this[ADDTARENTRY](path)
    else
      this[ADDFSENTRY](path)
    return this.flowing
  }

  [ADDTARENTRY] (p) {
    const absolute = normPath(path.resolve(this.cwd, p.path))
    // in this case, we don't have to wait for the stat
    if (!this.filter(p.path, p))
      p.resume()
    else {
      const job = new PackJob(p.path, absolute, false)
      job.entry = new WriteEntryTar(p, this[ENTRYOPT](job))
      job.entry.on('end', _ => this[JOBDONE](job))
      this[JOBS] += 1
      this[QUEUE].push(job)
    }

    this[PROCESS]()
  }

  [ADDFSENTRY] (p) {
    const absolute = normPath(path.resolve(this.cwd, p))
    this[QUEUE].push(new PackJob(p, absolute))
    this[PROCESS]()
  }

  [STAT] (job) {
    job.pending = true
    this[JOBS] += 1
    const stat = this.follow ? 'stat' : 'lstat'
    fs[stat](job.absolute, (er, stat) => {
      job.pending = false
      this[JOBS] -= 1
      if (er)
        this.emit('error', er)
      else
        this[ONSTAT](job, stat)
    })
  }

  [ONSTAT] (job, stat) {
    this.statCache.set(job.absolute, stat)
    job.stat = stat

    // now we have the stat, we can filter it.
    if (!this.filter(job.path, stat))
      job.ignore = true

    this[PROCESS]()
  }

  [READDIR] (job) {
    job.pending = true
    this[JOBS] += 1
    fs.readdir(job.absolute, (er, entries) => {
      job.pending = false
      this[JOBS] -= 1
      if (er)
        return this.emit('error', er)
      this[ONREADDIR](job, entries)
    })
  }

  [ONREADDIR] (job, entries) {
    this.readdirCache.set(job.absolute, entries)
    job.readdir = entries
    this[PROCESS]()
  }

  [PROCESS] () {
    if (this[PROCESSING])
      return

    this[PROCESSING] = true
    for (let w = this[QUEUE].head;
      w !== null && this[JOBS] < this.jobs;
      w = w.next) {
      this[PROCESSJOB](w.value)
      if (w.value.ignore) {
        const p = w.next
        this[QUEUE].removeNode(w)
        w.next = p
      }
    }

    this[PROCESSING] = false

    if (this[ENDED] && !this[QUEUE].length && this[JOBS] === 0) {
      if (this.zip)
        this.zip.end(EOF)
      else {
        super.write(EOF)
        super.end()
      }
    }
  }

  get [CURRENT] () {
    return this[QUEUE] && this[QUEUE].head && this[QUEUE].head.value
  }

  [JOBDONE] (job) {
    this[QUEUE].shift()
    this[JOBS] -= 1
    this[PROCESS]()
  }

  [PROCESSJOB] (job) {
    if (job.pending)
      return

    if (job.entry) {
      if (job === this[CURRENT] && !job.piped)
        this[PIPE](job)
      return
    }

    if (!job.stat) {
      if (this.statCache.has(job.absolute))
        this[ONSTAT](job, this.statCache.get(job.absolute))
      else
        this[STAT](job)
    }
    if (!job.stat)
      return

    // filtered out!
    if (job.ignore)
      return

    if (!this.noDirRecurse && job.stat.isDirectory() && !job.readdir) {
      if (this.readdirCache.has(job.absolute))
        this[ONREADDIR](job, this.readdirCache.get(job.absolute))
      else
        this[READDIR](job)
      if (!job.readdir)
        return
    }

    // we know it doesn't have an entry, because that got checked above
    job.entry = this[ENTRY](job)
    if (!job.entry) {
      job.ignore = true
      return
    }

    if (job === this[CURRENT] && !job.piped)
      this[PIPE](job)
  }

  [ENTRYOPT] (job) {
    return {
      onwarn: (code, msg, data) => this.warn(code, msg, data),
      noPax: this.noPax,
      cwd: this.cwd,
      absolute: job.absolute,
      preservePaths: this.preservePaths,
      maxReadSize: this.maxReadSize,
      strict: this.strict,
      portable: this.portable,
      linkCache: this.linkCache,
      statCache: this.statCache,
      noMtime: this.noMtime,
      mtime: this.mtime,
      prefix: this.prefix,
    }
  }

  [ENTRY] (job) {
    this[JOBS] += 1
    try {
      return new this[WRITEENTRYCLASS](job.path, this[ENTRYOPT](job))
        .on('end', () => this[JOBDONE](job))
        .on('error', er => this.emit('error', er))
    } catch (er) {
      this.emit('error', er)
    }
  }

  [ONDRAIN] () {
    if (this[CURRENT] && this[CURRENT].entry)
      this[CURRENT].entry.resume()
  }

  // like .pipe() but using super, because our write() is special
  [PIPE] (job) {
    job.piped = true

    if (job.readdir) {
      job.readdir.forEach(entry => {
        const p = job.path
        const base = p === './' ? '' : p.replace(/\/*$/, '/')
        this[ADDFSENTRY](base + entry)
      })
    }

    const source = job.entry
    const zip = this.zip

    if (zip) {
      source.on('data', chunk => {
        if (!zip.write(chunk))
          source.pause()
      })
    } else {
      source.on('data', chunk => {
        if (!super.write(chunk))
          source.pause()
      })
    }
  }

  pause () {
    if (this.zip)
      this.zip.pause()
    return super.pause()
  }
})

class PackSync extends Pack {
  constructor (opt) {
    super(opt)
    this[WRITEENTRYCLASS] = WriteEntrySync
  }

  // pause/resume are no-ops in sync streams.
  pause () {}
  resume () {}

  [STAT] (job) {
    const stat = this.follow ? 'statSync' : 'lstatSync'
    this[ONSTAT](job, fs[stat](job.absolute))
  }

  [READDIR] (job, stat) {
    this[ONREADDIR](job, fs.readdirSync(job.absolute))
  }

  // gotta get it all in this tick
  [PIPE] (job) {
    const source = job.entry
    const zip = this.zip

    if (job.readdir) {
      job.readdir.forEach(entry => {
        const p = job.path
        const base = p === './' ? '' : p.replace(/\/*$/, '/')
        this[ADDFSENTRY](base + entry)
      })
    }

    if (zip) {
      source.on('data', chunk => {
        zip.write(chunk)
      })
    } else {
      source.on('data', chunk => {
        super[WRITE](chunk)
      })
    }
  }
}

Pack.Sync = PackSync

module.exports = Pack


/***/ }),

/***/ 26824:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";


// this[BUFFER] is the remainder of a chunk if we're waiting for
// the full 512 bytes of a header to come in.  We will Buffer.concat()
// it to the next write(), which is a mem copy, but a small one.
//
// this[QUEUE] is a Yallist of entries that haven't been emitted
// yet this can only get filled up if the user keeps write()ing after
// a write() returns false, or does a write() with more than one entry
//
// We don't buffer chunks, we always parse them and either create an
// entry, or push it into the active entry.  The ReadEntry class knows
// to throw data away if .ignore=true
//
// Shift entry off the buffer when it emits 'end', and emit 'entry' for
// the next one in the list.
//
// At any time, we're pushing body chunks into the entry at WRITEENTRY,
// and waiting for 'end' on the entry at READENTRY
//
// ignored entries get .resume() called on them straight away

const warner = __webpack_require__(7902)
const Header = __webpack_require__(37134)
const EE = __webpack_require__(28614)
const Yallist = __webpack_require__(51234)
const maxMetaEntrySize = 1024 * 1024
const Entry = __webpack_require__(16277)
const Pax = __webpack_require__(64747)
const zlib = __webpack_require__(31650)

const gzipHeader = Buffer.from([0x1f, 0x8b])
const STATE = Symbol('state')
const WRITEENTRY = Symbol('writeEntry')
const READENTRY = Symbol('readEntry')
const NEXTENTRY = Symbol('nextEntry')
const PROCESSENTRY = Symbol('processEntry')
const EX = Symbol('extendedHeader')
const GEX = Symbol('globalExtendedHeader')
const META = Symbol('meta')
const EMITMETA = Symbol('emitMeta')
const BUFFER = Symbol('buffer')
const QUEUE = Symbol('queue')
const ENDED = Symbol('ended')
const EMITTEDEND = Symbol('emittedEnd')
const EMIT = Symbol('emit')
const UNZIP = Symbol('unzip')
const CONSUMECHUNK = Symbol('consumeChunk')
const CONSUMECHUNKSUB = Symbol('consumeChunkSub')
const CONSUMEBODY = Symbol('consumeBody')
const CONSUMEMETA = Symbol('consumeMeta')
const CONSUMEHEADER = Symbol('consumeHeader')
const CONSUMING = Symbol('consuming')
const BUFFERCONCAT = Symbol('bufferConcat')
const MAYBEEND = Symbol('maybeEnd')
const WRITING = Symbol('writing')
const ABORTED = Symbol('aborted')
const DONE = Symbol('onDone')
const SAW_VALID_ENTRY = Symbol('sawValidEntry')
const SAW_NULL_BLOCK = Symbol('sawNullBlock')
const SAW_EOF = Symbol('sawEOF')

const noop = _ => true

module.exports = warner(class Parser extends EE {
  constructor (opt) {
    opt = opt || {}
    super(opt)

    this.file = opt.file || ''

    // set to boolean false when an entry starts.  1024 bytes of \0
    // is technically a valid tarball, albeit a boring one.
    this[SAW_VALID_ENTRY] = null

    // these BADARCHIVE errors can't be detected early. listen on DONE.
    this.on(DONE, _ => {
      if (this[STATE] === 'begin' || this[SAW_VALID_ENTRY] === false) {
        // either less than 1 block of data, or all entries were invalid.
        // Either way, probably not even a tarball.
        this.warn('TAR_BAD_ARCHIVE', 'Unrecognized archive format')
      }
    })

    if (opt.ondone)
      this.on(DONE, opt.ondone)
    else {
      this.on(DONE, _ => {
        this.emit('prefinish')
        this.emit('finish')
        this.emit('end')
        this.emit('close')
      })
    }

    this.strict = !!opt.strict
    this.maxMetaEntrySize = opt.maxMetaEntrySize || maxMetaEntrySize
    this.filter = typeof opt.filter === 'function' ? opt.filter : noop

    // have to set this so that streams are ok piping into it
    this.writable = true
    this.readable = false

    this[QUEUE] = new Yallist()
    this[BUFFER] = null
    this[READENTRY] = null
    this[WRITEENTRY] = null
    this[STATE] = 'begin'
    this[META] = ''
    this[EX] = null
    this[GEX] = null
    this[ENDED] = false
    this[UNZIP] = null
    this[ABORTED] = false
    this[SAW_NULL_BLOCK] = false
    this[SAW_EOF] = false
    if (typeof opt.onwarn === 'function')
      this.on('warn', opt.onwarn)
    if (typeof opt.onentry === 'function')
      this.on('entry', opt.onentry)
  }

  [CONSUMEHEADER] (chunk, position) {
    if (this[SAW_VALID_ENTRY] === null)
      this[SAW_VALID_ENTRY] = false
    let header
    try {
      header = new Header(chunk, position, this[EX], this[GEX])
    } catch (er) {
      return this.warn('TAR_ENTRY_INVALID', er)
    }

    if (header.nullBlock) {
      if (this[SAW_NULL_BLOCK]) {
        this[SAW_EOF] = true
        // ending an archive with no entries.  pointless, but legal.
        if (this[STATE] === 'begin')
          this[STATE] = 'header'
        this[EMIT]('eof')
      } else {
        this[SAW_NULL_BLOCK] = true
        this[EMIT]('nullBlock')
      }
    } else {
      this[SAW_NULL_BLOCK] = false
      if (!header.cksumValid)
        this.warn('TAR_ENTRY_INVALID', 'checksum failure', {header})
      else if (!header.path)
        this.warn('TAR_ENTRY_INVALID', 'path is required', {header})
      else {
        const type = header.type
        if (/^(Symbolic)?Link$/.test(type) && !header.linkpath)
          this.warn('TAR_ENTRY_INVALID', 'linkpath required', {header})
        else if (!/^(Symbolic)?Link$/.test(type) && header.linkpath)
          this.warn('TAR_ENTRY_INVALID', 'linkpath forbidden', {header})
        else {
          const entry = this[WRITEENTRY] = new Entry(header, this[EX], this[GEX])

          // we do this for meta & ignored entries as well, because they
          // are still valid tar, or else we wouldn't know to ignore them
          if (!this[SAW_VALID_ENTRY]) {
            if (entry.remain) {
              // this might be the one!
              const onend = () => {
                if (!entry.invalid)
                  this[SAW_VALID_ENTRY] = true
              }
              entry.on('end', onend)
            } else
              this[SAW_VALID_ENTRY] = true
          }

          if (entry.meta) {
            if (entry.size > this.maxMetaEntrySize) {
              entry.ignore = true
              this[EMIT]('ignoredEntry', entry)
              this[STATE] = 'ignore'
              entry.resume()
            } else if (entry.size > 0) {
              this[META] = ''
              entry.on('data', c => this[META] += c)
              this[STATE] = 'meta'
            }
          } else {
            this[EX] = null
            entry.ignore = entry.ignore || !this.filter(entry.path, entry)

            if (entry.ignore) {
              // probably valid, just not something we care about
              this[EMIT]('ignoredEntry', entry)
              this[STATE] = entry.remain ? 'ignore' : 'header'
              entry.resume()
            } else {
              if (entry.remain)
                this[STATE] = 'body'
              else {
                this[STATE] = 'header'
                entry.end()
              }

              if (!this[READENTRY]) {
                this[QUEUE].push(entry)
                this[NEXTENTRY]()
              } else
                this[QUEUE].push(entry)
            }
          }
        }
      }
    }
  }

  [PROCESSENTRY] (entry) {
    let go = true

    if (!entry) {
      this[READENTRY] = null
      go = false
    } else if (Array.isArray(entry))
      this.emit.apply(this, entry)
    else {
      this[READENTRY] = entry
      this.emit('entry', entry)
      if (!entry.emittedEnd) {
        entry.on('end', _ => this[NEXTENTRY]())
        go = false
      }
    }

    return go
  }

  [NEXTENTRY] () {
    do {} while (this[PROCESSENTRY](this[QUEUE].shift()))

    if (!this[QUEUE].length) {
      // At this point, there's nothing in the queue, but we may have an
      // entry which is being consumed (readEntry).
      // If we don't, then we definitely can handle more data.
      // If we do, and either it's flowing, or it has never had any data
      // written to it, then it needs more.
      // The only other possibility is that it has returned false from a
      // write() call, so we wait for the next drain to continue.
      const re = this[READENTRY]
      const drainNow = !re || re.flowing || re.size === re.remain
      if (drainNow) {
        if (!this[WRITING])
          this.emit('drain')
      } else
        re.once('drain', _ => this.emit('drain'))
    }
  }

  [CONSUMEBODY] (chunk, position) {
    // write up to but no  more than writeEntry.blockRemain
    const entry = this[WRITEENTRY]
    const br = entry.blockRemain
    const c = (br >= chunk.length && position === 0) ? chunk
      : chunk.slice(position, position + br)

    entry.write(c)

    if (!entry.blockRemain) {
      this[STATE] = 'header'
      this[WRITEENTRY] = null
      entry.end()
    }

    return c.length
  }

  [CONSUMEMETA] (chunk, position) {
    const entry = this[WRITEENTRY]
    const ret = this[CONSUMEBODY](chunk, position)

    // if we finished, then the entry is reset
    if (!this[WRITEENTRY])
      this[EMITMETA](entry)

    return ret
  }

  [EMIT] (ev, data, extra) {
    if (!this[QUEUE].length && !this[READENTRY])
      this.emit(ev, data, extra)
    else
      this[QUEUE].push([ev, data, extra])
  }

  [EMITMETA] (entry) {
    this[EMIT]('meta', this[META])
    switch (entry.type) {
      case 'ExtendedHeader':
      case 'OldExtendedHeader':
        this[EX] = Pax.parse(this[META], this[EX], false)
        break

      case 'GlobalExtendedHeader':
        this[GEX] = Pax.parse(this[META], this[GEX], true)
        break

      case 'NextFileHasLongPath':
      case 'OldGnuLongPath':
        this[EX] = this[EX] || Object.create(null)
        this[EX].path = this[META].replace(/\0.*/, '')
        break

      case 'NextFileHasLongLinkpath':
        this[EX] = this[EX] || Object.create(null)
        this[EX].linkpath = this[META].replace(/\0.*/, '')
        break

      /* istanbul ignore next */
      default: throw new Error('unknown meta: ' + entry.type)
    }
  }

  abort (error) {
    this[ABORTED] = true
    this.emit('abort', error)
    // always throws, even in non-strict mode
    this.warn('TAR_ABORT', error, { recoverable: false })
  }

  write (chunk) {
    if (this[ABORTED])
      return

    // first write, might be gzipped
    if (this[UNZIP] === null && chunk) {
      if (this[BUFFER]) {
        chunk = Buffer.concat([this[BUFFER], chunk])
        this[BUFFER] = null
      }
      if (chunk.length < gzipHeader.length) {
        this[BUFFER] = chunk
        return true
      }
      for (let i = 0; this[UNZIP] === null && i < gzipHeader.length; i++) {
        if (chunk[i] !== gzipHeader[i])
          this[UNZIP] = false
      }
      if (this[UNZIP] === null) {
        const ended = this[ENDED]
        this[ENDED] = false
        this[UNZIP] = new zlib.Unzip()
        this[UNZIP].on('data', chunk => this[CONSUMECHUNK](chunk))
        this[UNZIP].on('error', er => this.abort(er))
        this[UNZIP].on('end', _ => {
          this[ENDED] = true
          this[CONSUMECHUNK]()
        })
        this[WRITING] = true
        const ret = this[UNZIP][ended ? 'end' : 'write'](chunk)
        this[WRITING] = false
        return ret
      }
    }

    this[WRITING] = true
    if (this[UNZIP])
      this[UNZIP].write(chunk)
    else
      this[CONSUMECHUNK](chunk)
    this[WRITING] = false

    // return false if there's a queue, or if the current entry isn't flowing
    const ret =
      this[QUEUE].length ? false :
      this[READENTRY] ? this[READENTRY].flowing :
      true

    // if we have no queue, then that means a clogged READENTRY
    if (!ret && !this[QUEUE].length)
      this[READENTRY].once('drain', _ => this.emit('drain'))

    return ret
  }

  [BUFFERCONCAT] (c) {
    if (c && !this[ABORTED])
      this[BUFFER] = this[BUFFER] ? Buffer.concat([this[BUFFER], c]) : c
  }

  [MAYBEEND] () {
    if (this[ENDED] &&
        !this[EMITTEDEND] &&
        !this[ABORTED] &&
        !this[CONSUMING]) {
      this[EMITTEDEND] = true
      const entry = this[WRITEENTRY]
      if (entry && entry.blockRemain) {
        // truncated, likely a damaged file
        const have = this[BUFFER] ? this[BUFFER].length : 0
        this.warn('TAR_BAD_ARCHIVE', `Truncated input (needed ${
          entry.blockRemain} more bytes, only ${have} available)`, {entry})
        if (this[BUFFER])
          entry.write(this[BUFFER])
        entry.end()
      }
      this[EMIT](DONE)
    }
  }

  [CONSUMECHUNK] (chunk) {
    if (this[CONSUMING])
      this[BUFFERCONCAT](chunk)
    else if (!chunk && !this[BUFFER])
      this[MAYBEEND]()
    else {
      this[CONSUMING] = true
      if (this[BUFFER]) {
        this[BUFFERCONCAT](chunk)
        const c = this[BUFFER]
        this[BUFFER] = null
        this[CONSUMECHUNKSUB](c)
      } else
        this[CONSUMECHUNKSUB](chunk)

      while (this[BUFFER] &&
          this[BUFFER].length >= 512 &&
          !this[ABORTED] &&
          !this[SAW_EOF]) {
        const c = this[BUFFER]
        this[BUFFER] = null
        this[CONSUMECHUNKSUB](c)
      }
      this[CONSUMING] = false
    }

    if (!this[BUFFER] || this[ENDED])
      this[MAYBEEND]()
  }

  [CONSUMECHUNKSUB] (chunk) {
    // we know that we are in CONSUMING mode, so anything written goes into
    // the buffer.  Advance the position and put any remainder in the buffer.
    let position = 0
    const length = chunk.length
    while (position + 512 <= length && !this[ABORTED] && !this[SAW_EOF]) {
      switch (this[STATE]) {
        case 'begin':
        case 'header':
          this[CONSUMEHEADER](chunk, position)
          position += 512
          break

        case 'ignore':
        case 'body':
          position += this[CONSUMEBODY](chunk, position)
          break

        case 'meta':
          position += this[CONSUMEMETA](chunk, position)
          break

        /* istanbul ignore next */
        default:
          throw new Error('invalid state: ' + this[STATE])
      }
    }

    if (position < length) {
      if (this[BUFFER])
        this[BUFFER] = Buffer.concat([chunk.slice(position), this[BUFFER]])
      else
        this[BUFFER] = chunk.slice(position)
    }
  }

  end (chunk) {
    if (!this[ABORTED]) {
      if (this[UNZIP])
        this[UNZIP].end(chunk)
      else {
        this[ENDED] = true
        this.write(chunk)
      }
    }
  }
})


/***/ }),

/***/ 10:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

// A path exclusive reservation system
// reserve([list, of, paths], fn)
// When the fn is first in line for all its paths, it
// is called with a cb that clears the reservation.
//
// Used by async unpack to avoid clobbering paths in use,
// while still allowing maximal safe parallelization.

const assert = __webpack_require__(42357)
const normalize = __webpack_require__(31946)
const stripSlashes = __webpack_require__(64922)
const { join } = __webpack_require__(85622)

const platform = process.env.TESTING_TAR_FAKE_PLATFORM || process.platform
const isWindows = platform === 'win32'

module.exports = () => {
  // path => [function or Set]
  // A Set object means a directory reservation
  // A fn is a direct reservation on that path
  const queues = new Map()

  // fn => {paths:[path,...], dirs:[path, ...]}
  const reservations = new Map()

  // return a set of parent dirs for a given path
  // '/a/b/c/d' -> ['/', '/a', '/a/b', '/a/b/c', '/a/b/c/d']
  const getDirs = path => {
    const dirs = path.split('/').slice(0, -1).reduce((set, path) => {
      if (set.length)
        path = join(set[set.length - 1], path)
      set.push(path || '/')
      return set
    }, [])
    return dirs
  }

  // functions currently running
  const running = new Set()

  // return the queues for each path the function cares about
  // fn => {paths, dirs}
  const getQueues = fn => {
    const res = reservations.get(fn)
    /* istanbul ignore if - unpossible */
    if (!res)
      throw new Error('function does not have any path reservations')
    return {
      paths: res.paths.map(path => queues.get(path)),
      dirs: [...res.dirs].map(path => queues.get(path)),
    }
  }

  // check if fn is first in line for all its paths, and is
  // included in the first set for all its dir queues
  const check = fn => {
    const {paths, dirs} = getQueues(fn)
    return paths.every(q => q[0] === fn) &&
      dirs.every(q => q[0] instanceof Set && q[0].has(fn))
  }

  // run the function if it's first in line and not already running
  const run = fn => {
    if (running.has(fn) || !check(fn))
      return false
    running.add(fn)
    fn(() => clear(fn))
    return true
  }

  const clear = fn => {
    if (!running.has(fn))
      return false

    const { paths, dirs } = reservations.get(fn)
    const next = new Set()

    paths.forEach(path => {
      const q = queues.get(path)
      assert.equal(q[0], fn)
      if (q.length === 1)
        queues.delete(path)
      else {
        q.shift()
        if (typeof q[0] === 'function')
          next.add(q[0])
        else
          q[0].forEach(fn => next.add(fn))
      }
    })

    dirs.forEach(dir => {
      const q = queues.get(dir)
      assert(q[0] instanceof Set)
      if (q[0].size === 1 && q.length === 1)
        queues.delete(dir)
      else if (q[0].size === 1) {
        q.shift()

        // must be a function or else the Set would've been reused
        next.add(q[0])
      } else
        q[0].delete(fn)
    })
    running.delete(fn)

    next.forEach(fn => run(fn))
    return true
  }

  const reserve = (paths, fn) => {
    // collide on matches across case and unicode normalization
    // On windows, thanks to the magic of 8.3 shortnames, it is fundamentally
    // impossible to determine whether two paths refer to the same thing on
    // disk, without asking the kernel for a shortname.
    // So, we just pretend that every path matches every other path here,
    // effectively removing all parallelization on windows.
    paths = isWindows ? ['win32 parallelization disabled'] : paths.map(p => {
      // don't need normPath, because we skip this entirely for windows
      return normalize(stripSlashes(join(p))).toLowerCase()
    })

    const dirs = new Set(
      paths.map(path => getDirs(path)).reduce((a, b) => a.concat(b))
    )
    reservations.set(fn, {dirs, paths})
    paths.forEach(path => {
      const q = queues.get(path)
      if (!q)
        queues.set(path, [fn])
      else
        q.push(fn)
    })
    dirs.forEach(dir => {
      const q = queues.get(dir)
      if (!q)
        queues.set(dir, [new Set([fn])])
      else if (q[q.length - 1] instanceof Set)
        q[q.length - 1].add(fn)
      else
        q.push(new Set([fn]))
    })

    return run(fn)
  }

  return { check, reserve }
}


/***/ }),

/***/ 64747:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

const Header = __webpack_require__(37134)
const path = __webpack_require__(85622)

class Pax {
  constructor (obj, global) {
    this.atime = obj.atime || null
    this.charset = obj.charset || null
    this.comment = obj.comment || null
    this.ctime = obj.ctime || null
    this.gid = obj.gid || null
    this.gname = obj.gname || null
    this.linkpath = obj.linkpath || null
    this.mtime = obj.mtime || null
    this.path = obj.path || null
    this.size = obj.size || null
    this.uid = obj.uid || null
    this.uname = obj.uname || null
    this.dev = obj.dev || null
    this.ino = obj.ino || null
    this.nlink = obj.nlink || null
    this.global = global || false
  }

  encode () {
    const body = this.encodeBody()
    if (body === '')
      return null

    const bodyLen = Buffer.byteLength(body)
    // round up to 512 bytes
    // add 512 for header
    const bufLen = 512 * Math.ceil(1 + bodyLen / 512)
    const buf = Buffer.allocUnsafe(bufLen)

    // 0-fill the header section, it might not hit every field
    for (let i = 0; i < 512; i++)
      buf[i] = 0

    new Header({
      // XXX split the path
      // then the path should be PaxHeader + basename, but less than 99,
      // prepend with the dirname
      path: ('PaxHeader/' + path.basename(this.path)).slice(0, 99),
      mode: this.mode || 0o644,
      uid: this.uid || null,
      gid: this.gid || null,
      size: bodyLen,
      mtime: this.mtime || null,
      type: this.global ? 'GlobalExtendedHeader' : 'ExtendedHeader',
      linkpath: '',
      uname: this.uname || '',
      gname: this.gname || '',
      devmaj: 0,
      devmin: 0,
      atime: this.atime || null,
      ctime: this.ctime || null,
    }).encode(buf)

    buf.write(body, 512, bodyLen, 'utf8')

    // null pad after the body
    for (let i = bodyLen + 512; i < buf.length; i++)
      buf[i] = 0

    return buf
  }

  encodeBody () {
    return (
      this.encodeField('path') +
      this.encodeField('ctime') +
      this.encodeField('atime') +
      this.encodeField('dev') +
      this.encodeField('ino') +
      this.encodeField('nlink') +
      this.encodeField('charset') +
      this.encodeField('comment') +
      this.encodeField('gid') +
      this.encodeField('gname') +
      this.encodeField('linkpath') +
      this.encodeField('mtime') +
      this.encodeField('size') +
      this.encodeField('uid') +
      this.encodeField('uname')
    )
  }

  encodeField (field) {
    if (this[field] === null || this[field] === undefined)
      return ''
    const v = this[field] instanceof Date ? this[field].getTime() / 1000
      : this[field]
    const s = ' ' +
      (field === 'dev' || field === 'ino' || field === 'nlink'
        ? 'SCHILY.' : '') +
      field + '=' + v + '\n'
    const byteLen = Buffer.byteLength(s)
    // the digits includes the length of the digits in ascii base-10
    // so if it's 9 characters, then adding 1 for the 9 makes it 10
    // which makes it 11 chars.
    let digits = Math.floor(Math.log(byteLen) / Math.log(10)) + 1
    if (byteLen + digits >= Math.pow(10, digits))
      digits += 1
    const len = digits + byteLen
    return len + s
  }
}

Pax.parse = (string, ex, g) => new Pax(merge(parseKV(string), ex), g)

const merge = (a, b) =>
  b ? Object.keys(a).reduce((s, k) => (s[k] = a[k], s), b) : a

const parseKV = string =>
  string
    .replace(/\n$/, '')
    .split('\n')
    .reduce(parseKVLine, Object.create(null))

const parseKVLine = (set, line) => {
  const n = parseInt(line, 10)

  // XXX Values with \n in them will fail this.
  // Refactor to not be a naive line-by-line parse.
  if (n !== Buffer.byteLength(line) + 1)
    return set

  line = line.substr((n + ' ').length)
  const kv = line.split('=')
  const k = kv.shift().replace(/^SCHILY\.(dev|ino|nlink)/, '$1')
  if (!k)
    return set

  const v = kv.join('=')
  set[k] = /^([A-Z]+\.)?([mac]|birth|creation)time$/.test(k)
    ? new Date(v * 1000)
    : /^[0-9]+$/.test(v) ? +v
    : v
  return set
}

module.exports = Pax


/***/ }),

/***/ 16277:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

const MiniPass = __webpack_require__(74577)
const normPath = __webpack_require__(22905)

const SLURP = Symbol('slurp')
module.exports = class ReadEntry extends MiniPass {
  constructor (header, ex, gex) {
    super()
    // read entries always start life paused.  this is to avoid the
    // situation where Minipass's auto-ending empty streams results
    // in an entry ending before we're ready for it.
    this.pause()
    this.extended = ex
    this.globalExtended = gex
    this.header = header
    this.startBlockSize = 512 * Math.ceil(header.size / 512)
    this.blockRemain = this.startBlockSize
    this.remain = header.size
    this.type = header.type
    this.meta = false
    this.ignore = false
    switch (this.type) {
      case 'File':
      case 'OldFile':
      case 'Link':
      case 'SymbolicLink':
      case 'CharacterDevice':
      case 'BlockDevice':
      case 'Directory':
      case 'FIFO':
      case 'ContiguousFile':
      case 'GNUDumpDir':
        break

      case 'NextFileHasLongLinkpath':
      case 'NextFileHasLongPath':
      case 'OldGnuLongPath':
      case 'GlobalExtendedHeader':
      case 'ExtendedHeader':
      case 'OldExtendedHeader':
        this.meta = true
        break

      // NOTE: gnutar and bsdtar treat unrecognized types as 'File'
      // it may be worth doing the same, but with a warning.
      default:
        this.ignore = true
    }

    this.path = normPath(header.path)
    this.mode = header.mode
    if (this.mode)
      this.mode = this.mode & 0o7777
    this.uid = header.uid
    this.gid = header.gid
    this.uname = header.uname
    this.gname = header.gname
    this.size = header.size
    this.mtime = header.mtime
    this.atime = header.atime
    this.ctime = header.ctime
    this.linkpath = normPath(header.linkpath)
    this.uname = header.uname
    this.gname = header.gname

    if (ex)
      this[SLURP](ex)
    if (gex)
      this[SLURP](gex, true)
  }

  write (data) {
    const writeLen = data.length
    if (writeLen > this.blockRemain)
      throw new Error('writing more to entry than is appropriate')

    const r = this.remain
    const br = this.blockRemain
    this.remain = Math.max(0, r - writeLen)
    this.blockRemain = Math.max(0, br - writeLen)
    if (this.ignore)
      return true

    if (r >= writeLen)
      return super.write(data)

    // r < writeLen
    return super.write(data.slice(0, r))
  }

  [SLURP] (ex, global) {
    for (const k in ex) {
      // we slurp in everything except for the path attribute in
      // a global extended header, because that's weird.
      if (ex[k] !== null && ex[k] !== undefined &&
          !(global && k === 'path'))
        this[k] = k === 'path' || k === 'linkpath' ? normPath(ex[k]) : ex[k]
    }
  }
}


/***/ }),

/***/ 71746:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";


// tar -r
const hlo = __webpack_require__(32093)
const Pack = __webpack_require__(48042)
const fs = __webpack_require__(35747)
const fsm = __webpack_require__(10292)
const t = __webpack_require__(6473)
const path = __webpack_require__(85622)

// starting at the head of the file, read a Header
// If the checksum is invalid, that's our position to start writing
// If it is, jump forward by the specified size (round up to 512)
// and try again.
// Write the new Pack stream starting there.

const Header = __webpack_require__(37134)

module.exports = (opt_, files, cb) => {
  const opt = hlo(opt_)

  if (!opt.file)
    throw new TypeError('file is required')

  if (opt.gzip)
    throw new TypeError('cannot append to compressed archives')

  if (!files || !Array.isArray(files) || !files.length)
    throw new TypeError('no files or directories specified')

  files = Array.from(files)

  return opt.sync ? replaceSync(opt, files)
    : replace(opt, files, cb)
}

const replaceSync = (opt, files) => {
  const p = new Pack.Sync(opt)

  let threw = true
  let fd
  let position

  try {
    try {
      fd = fs.openSync(opt.file, 'r+')
    } catch (er) {
      if (er.code === 'ENOENT')
        fd = fs.openSync(opt.file, 'w+')
      else
        throw er
    }

    const st = fs.fstatSync(fd)
    const headBuf = Buffer.alloc(512)

    POSITION: for (position = 0; position < st.size; position += 512) {
      for (let bufPos = 0, bytes = 0; bufPos < 512; bufPos += bytes) {
        bytes = fs.readSync(
          fd, headBuf, bufPos, headBuf.length - bufPos, position + bufPos
        )

        if (position === 0 && headBuf[0] === 0x1f && headBuf[1] === 0x8b)
          throw new Error('cannot append to compressed archives')

        if (!bytes)
          break POSITION
      }

      const h = new Header(headBuf)
      if (!h.cksumValid)
        break
      const entryBlockSize = 512 * Math.ceil(h.size / 512)
      if (position + entryBlockSize + 512 > st.size)
        break
      // the 512 for the header we just parsed will be added as well
      // also jump ahead all the blocks for the body
      position += entryBlockSize
      if (opt.mtimeCache)
        opt.mtimeCache.set(h.path, h.mtime)
    }
    threw = false

    streamSync(opt, p, position, fd, files)
  } finally {
    if (threw) {
      try {
        fs.closeSync(fd)
      } catch (er) {}
    }
  }
}

const streamSync = (opt, p, position, fd, files) => {
  const stream = new fsm.WriteStreamSync(opt.file, {
    fd: fd,
    start: position,
  })
  p.pipe(stream)
  addFilesSync(p, files)
}

const replace = (opt, files, cb) => {
  files = Array.from(files)
  const p = new Pack(opt)

  const getPos = (fd, size, cb_) => {
    const cb = (er, pos) => {
      if (er)
        fs.close(fd, _ => cb_(er))
      else
        cb_(null, pos)
    }

    let position = 0
    if (size === 0)
      return cb(null, 0)

    let bufPos = 0
    const headBuf = Buffer.alloc(512)
    const onread = (er, bytes) => {
      if (er)
        return cb(er)
      bufPos += bytes
      if (bufPos < 512 && bytes) {
        return fs.read(
          fd, headBuf, bufPos, headBuf.length - bufPos,
          position + bufPos, onread
        )
      }

      if (position === 0 && headBuf[0] === 0x1f && headBuf[1] === 0x8b)
        return cb(new Error('cannot append to compressed archives'))

      // truncated header
      if (bufPos < 512)
        return cb(null, position)

      const h = new Header(headBuf)
      if (!h.cksumValid)
        return cb(null, position)

      const entryBlockSize = 512 * Math.ceil(h.size / 512)
      if (position + entryBlockSize + 512 > size)
        return cb(null, position)

      position += entryBlockSize + 512
      if (position >= size)
        return cb(null, position)

      if (opt.mtimeCache)
        opt.mtimeCache.set(h.path, h.mtime)
      bufPos = 0
      fs.read(fd, headBuf, 0, 512, position, onread)
    }
    fs.read(fd, headBuf, 0, 512, position, onread)
  }

  const promise = new Promise((resolve, reject) => {
    p.on('error', reject)
    let flag = 'r+'
    const onopen = (er, fd) => {
      if (er && er.code === 'ENOENT' && flag === 'r+') {
        flag = 'w+'
        return fs.open(opt.file, flag, onopen)
      }

      if (er)
        return reject(er)

      fs.fstat(fd, (er, st) => {
        if (er)
          return fs.close(fd, () => reject(er))

        getPos(fd, st.size, (er, position) => {
          if (er)
            return reject(er)
          const stream = new fsm.WriteStream(opt.file, {
            fd: fd,
            start: position,
          })
          p.pipe(stream)
          stream.on('error', reject)
          stream.on('close', resolve)
          addFilesAsync(p, files)
        })
      })
    }
    fs.open(opt.file, flag, onopen)
  })

  return cb ? promise.then(cb, cb) : promise
}

const addFilesSync = (p, files) => {
  files.forEach(file => {
    if (file.charAt(0) === '@') {
      t({
        file: path.resolve(p.cwd, file.substr(1)),
        sync: true,
        noResume: true,
        onentry: entry => p.add(entry),
      })
    } else
      p.add(file)
  })
  p.end()
}

const addFilesAsync = (p, files) => {
  while (files.length) {
    const file = files.shift()
    if (file.charAt(0) === '@') {
      return t({
        file: path.resolve(p.cwd, file.substr(1)),
        noResume: true,
        onentry: entry => p.add(entry),
      }).then(_ => addFilesAsync(p, files))
    } else
      p.add(file)
  }
  p.end()
}


/***/ }),

/***/ 2214:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

// unix absolute paths are also absolute on win32, so we use this for both
const { isAbsolute, parse } = __webpack_require__(85622).win32

// returns [root, stripped]
// Note that windows will think that //x/y/z/a has a "root" of //x/y, and in
// those cases, we want to sanitize it to x/y/z/a, not z/a, so we strip /
// explicitly if it's the first character.
// drive-specific relative paths on Windows get their root stripped off even
// though they are not absolute, so `c:../foo` becomes ['c:', '../foo']
module.exports = path => {
  let r = ''

  let parsed = parse(path)
  while (isAbsolute(path) || parsed.root) {
    // windows will think that //x/y/z has a "root" of //x/y/
    // but strip the //?/C:/ off of //?/C:/path
    const root = path.charAt(0) === '/' && path.slice(0, 4) !== '//?/' ? '/'
      : parsed.root
    path = path.substr(root.length)
    r += root
    parsed = parse(path)
  }
  return [r, path]
}


/***/ }),

/***/ 64922:
/***/ ((module) => {

// warning: extremely hot code path.
// This has been meticulously optimized for use
// within npm install on large package trees.
// Do not edit without careful benchmarking.
module.exports = str => {
  let i = str.length - 1
  let slashesStart = -1
  while (i > -1 && str.charAt(i) === '/') {
    slashesStart = i
    i--
  }
  return slashesStart === -1 ? str : str.slice(0, slashesStart)
}


/***/ }),

/***/ 86753:
/***/ ((__unused_webpack_module, exports) => {

"use strict";

// map types from key to human-friendly name
exports.name = new Map([
  ['0', 'File'],
  // same as File
  ['', 'OldFile'],
  ['1', 'Link'],
  ['2', 'SymbolicLink'],
  // Devices and FIFOs aren't fully supported
  // they are parsed, but skipped when unpacking
  ['3', 'CharacterDevice'],
  ['4', 'BlockDevice'],
  ['5', 'Directory'],
  ['6', 'FIFO'],
  // same as File
  ['7', 'ContiguousFile'],
  // pax headers
  ['g', 'GlobalExtendedHeader'],
  ['x', 'ExtendedHeader'],
  // vendor-specific stuff
  // skip
  ['A', 'SolarisACL'],
  // like 5, but with data, which should be skipped
  ['D', 'GNUDumpDir'],
  // metadata only, skip
  ['I', 'Inode'],
  // data = link path of next file
  ['K', 'NextFileHasLongLinkpath'],
  // data = path of next file
  ['L', 'NextFileHasLongPath'],
  // skip
  ['M', 'ContinuationFile'],
  // like L
  ['N', 'OldGnuLongPath'],
  // skip
  ['S', 'SparseFile'],
  // skip
  ['V', 'TapeVolumeHeader'],
  // like x
  ['X', 'OldExtendedHeader'],
])

// map the other direction
exports.code = new Map(Array.from(exports.name).map(kv => [kv[1], kv[0]]))


/***/ }),

/***/ 42699:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";


// the PEND/UNPEND stuff tracks whether we're ready to emit end/close yet.
// but the path reservations are required to avoid race conditions where
// parallelized unpack ops may mess with one another, due to dependencies
// (like a Link depending on its target) or destructive operations (like
// clobbering an fs object to create one of a different type.)

const assert = __webpack_require__(42357)
const Parser = __webpack_require__(26824)
const fs = __webpack_require__(35747)
const fsm = __webpack_require__(10292)
const path = __webpack_require__(85622)
const mkdir = __webpack_require__(53248)
const wc = __webpack_require__(30619)
const pathReservations = __webpack_require__(10)
const stripAbsolutePath = __webpack_require__(2214)
const normPath = __webpack_require__(22905)
const stripSlash = __webpack_require__(64922)
const normalize = __webpack_require__(31946)

const ONENTRY = Symbol('onEntry')
const CHECKFS = Symbol('checkFs')
const CHECKFS2 = Symbol('checkFs2')
const PRUNECACHE = Symbol('pruneCache')
const ISREUSABLE = Symbol('isReusable')
const MAKEFS = Symbol('makeFs')
const FILE = Symbol('file')
const DIRECTORY = Symbol('directory')
const LINK = Symbol('link')
const SYMLINK = Symbol('symlink')
const HARDLINK = Symbol('hardlink')
const UNSUPPORTED = Symbol('unsupported')
const CHECKPATH = Symbol('checkPath')
const MKDIR = Symbol('mkdir')
const ONERROR = Symbol('onError')
const PENDING = Symbol('pending')
const PEND = Symbol('pend')
const UNPEND = Symbol('unpend')
const ENDED = Symbol('ended')
const MAYBECLOSE = Symbol('maybeClose')
const SKIP = Symbol('skip')
const DOCHOWN = Symbol('doChown')
const UID = Symbol('uid')
const GID = Symbol('gid')
const CHECKED_CWD = Symbol('checkedCwd')
const crypto = __webpack_require__(76417)
const getFlag = __webpack_require__(35879)
const platform = process.env.TESTING_TAR_FAKE_PLATFORM || process.platform
const isWindows = platform === 'win32'

// Unlinks on Windows are not atomic.
//
// This means that if you have a file entry, followed by another
// file entry with an identical name, and you cannot re-use the file
// (because it's a hardlink, or because unlink:true is set, or it's
// Windows, which does not have useful nlink values), then the unlink
// will be committed to the disk AFTER the new file has been written
// over the old one, deleting the new file.
//
// To work around this, on Windows systems, we rename the file and then
// delete the renamed file.  It's a sloppy kludge, but frankly, I do not
// know of a better way to do this, given windows' non-atomic unlink
// semantics.
//
// See: https://github.com/npm/node-tar/issues/183
/* istanbul ignore next */
const unlinkFile = (path, cb) => {
  if (!isWindows)
    return fs.unlink(path, cb)

  const name = path + '.DELETE.' + crypto.randomBytes(16).toString('hex')
  fs.rename(path, name, er => {
    if (er)
      return cb(er)
    fs.unlink(name, cb)
  })
}

/* istanbul ignore next */
const unlinkFileSync = path => {
  if (!isWindows)
    return fs.unlinkSync(path)

  const name = path + '.DELETE.' + crypto.randomBytes(16).toString('hex')
  fs.renameSync(path, name)
  fs.unlinkSync(name)
}

// this.gid, entry.gid, this.processUid
const uint32 = (a, b, c) =>
  a === a >>> 0 ? a
  : b === b >>> 0 ? b
  : c

// clear the cache if it's a case-insensitive unicode-squashing match.
// we can't know if the current file system is case-sensitive or supports
// unicode fully, so we check for similarity on the maximally compatible
// representation.  Err on the side of pruning, since all it's doing is
// preventing lstats, and it's not the end of the world if we get a false
// positive.
// Note that on windows, we always drop the entire cache whenever a
// symbolic link is encountered, because 8.3 filenames are impossible
// to reason about, and collisions are hazards rather than just failures.
const cacheKeyNormalize = path => normalize(stripSlash(normPath(path)))
  .toLowerCase()

const pruneCache = (cache, abs) => {
  abs = cacheKeyNormalize(abs)
  for (const path of cache.keys()) {
    const pnorm = cacheKeyNormalize(path)
    if (pnorm === abs || pnorm.indexOf(abs + '/') === 0)
      cache.delete(path)
  }
}

const dropCache = cache => {
  for (const key of cache.keys())
    cache.delete(key)
}

class Unpack extends Parser {
  constructor (opt) {
    if (!opt)
      opt = {}

    opt.ondone = _ => {
      this[ENDED] = true
      this[MAYBECLOSE]()
    }

    super(opt)

    this[CHECKED_CWD] = false

    this.reservations = pathReservations()

    this.transform = typeof opt.transform === 'function' ? opt.transform : null

    this.writable = true
    this.readable = false

    this[PENDING] = 0
    this[ENDED] = false

    this.dirCache = opt.dirCache || new Map()

    if (typeof opt.uid === 'number' || typeof opt.gid === 'number') {
      // need both or neither
      if (typeof opt.uid !== 'number' || typeof opt.gid !== 'number')
        throw new TypeError('cannot set owner without number uid and gid')
      if (opt.preserveOwner) {
        throw new TypeError(
          'cannot preserve owner in archive and also set owner explicitly')
      }
      this.uid = opt.uid
      this.gid = opt.gid
      this.setOwner = true
    } else {
      this.uid = null
      this.gid = null
      this.setOwner = false
    }

    // default true for root
    if (opt.preserveOwner === undefined && typeof opt.uid !== 'number')
      this.preserveOwner = process.getuid && process.getuid() === 0
    else
      this.preserveOwner = !!opt.preserveOwner

    this.processUid = (this.preserveOwner || this.setOwner) && process.getuid ?
      process.getuid() : null
    this.processGid = (this.preserveOwner || this.setOwner) && process.getgid ?
      process.getgid() : null

    // mostly just for testing, but useful in some cases.
    // Forcibly trigger a chown on every entry, no matter what
    this.forceChown = opt.forceChown === true

    // turn ><?| in filenames into 0xf000-higher encoded forms
    this.win32 = !!opt.win32 || isWindows

    // do not unpack over files that are newer than what's in the archive
    this.newer = !!opt.newer

    // do not unpack over ANY files
    this.keep = !!opt.keep

    // do not set mtime/atime of extracted entries
    this.noMtime = !!opt.noMtime

    // allow .., absolute path entries, and unpacking through symlinks
    // without this, warn and skip .., relativize absolutes, and error
    // on symlinks in extraction path
    this.preservePaths = !!opt.preservePaths

    // unlink files and links before writing. This breaks existing hard
    // links, and removes symlink directories rather than erroring
    this.unlink = !!opt.unlink

    this.cwd = normPath(path.resolve(opt.cwd || process.cwd()))
    this.strip = +opt.strip || 0
    // if we're not chmodding, then we don't need the process umask
    this.processUmask = opt.noChmod ? 0 : process.umask()
    this.umask = typeof opt.umask === 'number' ? opt.umask : this.processUmask

    // default mode for dirs created as parents
    this.dmode = opt.dmode || (0o0777 & (~this.umask))
    this.fmode = opt.fmode || (0o0666 & (~this.umask))

    this.on('entry', entry => this[ONENTRY](entry))
  }

  // a bad or damaged archive is a warning for Parser, but an error
  // when extracting.  Mark those errors as unrecoverable, because
  // the Unpack contract cannot be met.
  warn (code, msg, data = {}) {
    if (code === 'TAR_BAD_ARCHIVE' || code === 'TAR_ABORT')
      data.recoverable = false
    return super.warn(code, msg, data)
  }

  [MAYBECLOSE] () {
    if (this[ENDED] && this[PENDING] === 0) {
      this.emit('prefinish')
      this.emit('finish')
      this.emit('end')
      this.emit('close')
    }
  }

  [CHECKPATH] (entry) {
    if (this.strip) {
      const parts = normPath(entry.path).split('/')
      if (parts.length < this.strip)
        return false
      entry.path = parts.slice(this.strip).join('/')

      if (entry.type === 'Link') {
        const linkparts = normPath(entry.linkpath).split('/')
        if (linkparts.length >= this.strip)
          entry.linkpath = linkparts.slice(this.strip).join('/')
        else
          return false
      }
    }

    if (!this.preservePaths) {
      const p = normPath(entry.path)
      const parts = p.split('/')
      if (parts.includes('..') || isWindows && /^[a-z]:\.\.$/i.test(parts[0])) {
        this.warn('TAR_ENTRY_ERROR', `path contains '..'`, {
          entry,
          path: p,
        })
        return false
      }

      // strip off the root
      const [root, stripped] = stripAbsolutePath(p)
      if (root) {
        entry.path = stripped
        this.warn('TAR_ENTRY_INFO', `stripping ${root} from absolute path`, {
          entry,
          path: p,
        })
      }
    }

    if (path.isAbsolute(entry.path))
      entry.absolute = normPath(path.resolve(entry.path))
    else
      entry.absolute = normPath(path.resolve(this.cwd, entry.path))

    // if we somehow ended up with a path that escapes the cwd, and we are
    // not in preservePaths mode, then something is fishy!  This should have
    // been prevented above, so ignore this for coverage.
    /* istanbul ignore if - defense in depth */
    if (!this.preservePaths &&
        entry.absolute.indexOf(this.cwd + '/') !== 0 &&
        entry.absolute !== this.cwd) {
      this.warn('TAR_ENTRY_ERROR', 'path escaped extraction target', {
        entry,
        path: normPath(entry.path),
        resolvedPath: entry.absolute,
        cwd: this.cwd,
      })
      return false
    }

    // an archive can set properties on the extraction directory, but it
    // may not replace the cwd with a different kind of thing entirely.
    if (entry.absolute === this.cwd &&
        entry.type !== 'Directory' &&
        entry.type !== 'GNUDumpDir')
      return false

    // only encode : chars that aren't drive letter indicators
    if (this.win32) {
      const { root: aRoot } = path.win32.parse(entry.absolute)
      entry.absolute = aRoot + wc.encode(entry.absolute.substr(aRoot.length))
      const { root: pRoot } = path.win32.parse(entry.path)
      entry.path = pRoot + wc.encode(entry.path.substr(pRoot.length))
    }

    return true
  }

  [ONENTRY] (entry) {
    if (!this[CHECKPATH](entry))
      return entry.resume()

    assert.equal(typeof entry.absolute, 'string')

    switch (entry.type) {
      case 'Directory':
      case 'GNUDumpDir':
        if (entry.mode)
          entry.mode = entry.mode | 0o700

      case 'File':
      case 'OldFile':
      case 'ContiguousFile':
      case 'Link':
      case 'SymbolicLink':
        return this[CHECKFS](entry)

      case 'CharacterDevice':
      case 'BlockDevice':
      case 'FIFO':
      default:
        return this[UNSUPPORTED](entry)
    }
  }

  [ONERROR] (er, entry) {
    // Cwd has to exist, or else nothing works. That's serious.
    // Other errors are warnings, which raise the error in strict
    // mode, but otherwise continue on.
    if (er.name === 'CwdError')
      this.emit('error', er)
    else {
      this.warn('TAR_ENTRY_ERROR', er, {entry})
      this[UNPEND]()
      entry.resume()
    }
  }

  [MKDIR] (dir, mode, cb) {
    mkdir(normPath(dir), {
      uid: this.uid,
      gid: this.gid,
      processUid: this.processUid,
      processGid: this.processGid,
      umask: this.processUmask,
      preserve: this.preservePaths,
      unlink: this.unlink,
      cache: this.dirCache,
      cwd: this.cwd,
      mode: mode,
      noChmod: this.noChmod,
    }, cb)
  }

  [DOCHOWN] (entry) {
    // in preserve owner mode, chown if the entry doesn't match process
    // in set owner mode, chown if setting doesn't match process
    return this.forceChown ||
      this.preserveOwner &&
      (typeof entry.uid === 'number' && entry.uid !== this.processUid ||
        typeof entry.gid === 'number' && entry.gid !== this.processGid)
      ||
      (typeof this.uid === 'number' && this.uid !== this.processUid ||
        typeof this.gid === 'number' && this.gid !== this.processGid)
  }

  [UID] (entry) {
    return uint32(this.uid, entry.uid, this.processUid)
  }

  [GID] (entry) {
    return uint32(this.gid, entry.gid, this.processGid)
  }

  [FILE] (entry, fullyDone) {
    const mode = entry.mode & 0o7777 || this.fmode
    const stream = new fsm.WriteStream(entry.absolute, {
      flags: getFlag(entry.size),
      mode: mode,
      autoClose: false,
    })
    stream.on('error', er => {
      if (stream.fd)
        fs.close(stream.fd, () => {})

      // flush all the data out so that we aren't left hanging
      // if the error wasn't actually fatal.  otherwise the parse
      // is blocked, and we never proceed.
      stream.write = () => true
      this[ONERROR](er, entry)
      fullyDone()
    })

    let actions = 1
    const done = er => {
      if (er) {
        /* istanbul ignore else - we should always have a fd by now */
        if (stream.fd)
          fs.close(stream.fd, () => {})

        this[ONERROR](er, entry)
        fullyDone()
        return
      }

      if (--actions === 0) {
        fs.close(stream.fd, er => {
          if (er)
            this[ONERROR](er, entry)
          else
            this[UNPEND]()
          fullyDone()
        })
      }
    }

    stream.on('finish', _ => {
      // if futimes fails, try utimes
      // if utimes fails, fail with the original error
      // same for fchown/chown
      const abs = entry.absolute
      const fd = stream.fd

      if (entry.mtime && !this.noMtime) {
        actions++
        const atime = entry.atime || new Date()
        const mtime = entry.mtime
        fs.futimes(fd, atime, mtime, er =>
          er ? fs.utimes(abs, atime, mtime, er2 => done(er2 && er))
          : done())
      }

      if (this[DOCHOWN](entry)) {
        actions++
        const uid = this[UID](entry)
        const gid = this[GID](entry)
        fs.fchown(fd, uid, gid, er =>
          er ? fs.chown(abs, uid, gid, er2 => done(er2 && er))
          : done())
      }

      done()
    })

    const tx = this.transform ? this.transform(entry) || entry : entry
    if (tx !== entry) {
      tx.on('error', er => {
        this[ONERROR](er, entry)
        fullyDone()
      })
      entry.pipe(tx)
    }
    tx.pipe(stream)
  }

  [DIRECTORY] (entry, fullyDone) {
    const mode = entry.mode & 0o7777 || this.dmode
    this[MKDIR](entry.absolute, mode, er => {
      if (er) {
        this[ONERROR](er, entry)
        fullyDone()
        return
      }

      let actions = 1
      const done = _ => {
        if (--actions === 0) {
          fullyDone()
          this[UNPEND]()
          entry.resume()
        }
      }

      if (entry.mtime && !this.noMtime) {
        actions++
        fs.utimes(entry.absolute, entry.atime || new Date(), entry.mtime, done)
      }

      if (this[DOCHOWN](entry)) {
        actions++
        fs.chown(entry.absolute, this[UID](entry), this[GID](entry), done)
      }

      done()
    })
  }

  [UNSUPPORTED] (entry) {
    entry.unsupported = true
    this.warn('TAR_ENTRY_UNSUPPORTED',
      `unsupported entry type: ${entry.type}`, {entry})
    entry.resume()
  }

  [SYMLINK] (entry, done) {
    this[LINK](entry, entry.linkpath, 'symlink', done)
  }

  [HARDLINK] (entry, done) {
    const linkpath = normPath(path.resolve(this.cwd, entry.linkpath))
    this[LINK](entry, linkpath, 'link', done)
  }

  [PEND] () {
    this[PENDING]++
  }

  [UNPEND] () {
    this[PENDING]--
    this[MAYBECLOSE]()
  }

  [SKIP] (entry) {
    this[UNPEND]()
    entry.resume()
  }

  // Check if we can reuse an existing filesystem entry safely and
  // overwrite it, rather than unlinking and recreating
  // Windows doesn't report a useful nlink, so we just never reuse entries
  [ISREUSABLE] (entry, st) {
    return entry.type === 'File' &&
      !this.unlink &&
      st.isFile() &&
      st.nlink <= 1 &&
      !isWindows
  }

  // check if a thing is there, and if so, try to clobber it
  [CHECKFS] (entry) {
    this[PEND]()
    const paths = [entry.path]
    if (entry.linkpath)
      paths.push(entry.linkpath)
    this.reservations.reserve(paths, done => this[CHECKFS2](entry, done))
  }

  [PRUNECACHE] (entry) {
    // if we are not creating a directory, and the path is in the dirCache,
    // then that means we are about to delete the directory we created
    // previously, and it is no longer going to be a directory, and neither
    // is any of its children.
    // If a symbolic link is encountered, all bets are off.  There is no
    // reasonable way to sanitize the cache in such a way we will be able to
    // avoid having filesystem collisions.  If this happens with a non-symlink
    // entry, it'll just fail to unpack, but a symlink to a directory, using an
    // 8.3 shortname or certain unicode attacks, can evade detection and lead
    // to arbitrary writes to anywhere on the system.
    if (entry.type === 'SymbolicLink')
      dropCache(this.dirCache)
    else if (entry.type !== 'Directory')
      pruneCache(this.dirCache, entry.absolute)
  }

  [CHECKFS2] (entry, fullyDone) {
    this[PRUNECACHE](entry)

    const done = er => {
      this[PRUNECACHE](entry)
      fullyDone(er)
    }

    const checkCwd = () => {
      this[MKDIR](this.cwd, this.dmode, er => {
        if (er) {
          this[ONERROR](er, entry)
          done()
          return
        }
        this[CHECKED_CWD] = true
        start()
      })
    }

    const start = () => {
      if (entry.absolute !== this.cwd) {
        const parent = normPath(path.dirname(entry.absolute))
        if (parent !== this.cwd) {
          return this[MKDIR](parent, this.dmode, er => {
            if (er) {
              this[ONERROR](er, entry)
              done()
              return
            }
            afterMakeParent()
          })
        }
      }
      afterMakeParent()
    }

    const afterMakeParent = () => {
      fs.lstat(entry.absolute, (lstatEr, st) => {
        if (st && (this.keep || this.newer && st.mtime > entry.mtime)) {
          this[SKIP](entry)
          done()
          return
        }
        if (lstatEr || this[ISREUSABLE](entry, st))
          return this[MAKEFS](null, entry, done)

        if (st.isDirectory()) {
          if (entry.type === 'Directory') {
            const needChmod = !this.noChmod &&
              entry.mode &&
              (st.mode & 0o7777) !== entry.mode
            const afterChmod = er => this[MAKEFS](er, entry, done)
            if (!needChmod)
              return afterChmod()
            return fs.chmod(entry.absolute, entry.mode, afterChmod)
          }
          // Not a dir entry, have to remove it.
          // NB: the only way to end up with an entry that is the cwd
          // itself, in such a way that == does not detect, is a
          // tricky windows absolute path with UNC or 8.3 parts (and
          // preservePaths:true, or else it will have been stripped).
          // In that case, the user has opted out of path protections
          // explicitly, so if they blow away the cwd, c'est la vie.
          if (entry.absolute !== this.cwd) {
            return fs.rmdir(entry.absolute, er =>
              this[MAKEFS](er, entry, done))
          }
        }

        // not a dir, and not reusable
        // don't remove if the cwd, we want that error
        if (entry.absolute === this.cwd)
          return this[MAKEFS](null, entry, done)

        unlinkFile(entry.absolute, er =>
          this[MAKEFS](er, entry, done))
      })
    }

    if (this[CHECKED_CWD])
      start()
    else
      checkCwd()
  }

  [MAKEFS] (er, entry, done) {
    if (er) {
      this[ONERROR](er, entry)
      done()
      return
    }

    switch (entry.type) {
      case 'File':
      case 'OldFile':
      case 'ContiguousFile':
        return this[FILE](entry, done)

      case 'Link':
        return this[HARDLINK](entry, done)

      case 'SymbolicLink':
        return this[SYMLINK](entry, done)

      case 'Directory':
      case 'GNUDumpDir':
        return this[DIRECTORY](entry, done)
    }
  }

  [LINK] (entry, linkpath, link, done) {
    // XXX: get the type ('symlink' or 'junction') for windows
    fs[link](linkpath, entry.absolute, er => {
      if (er)
        this[ONERROR](er, entry)
      else {
        this[UNPEND]()
        entry.resume()
      }
      done()
    })
  }
}

const callSync = fn => {
  try {
    return [null, fn()]
  } catch (er) {
    return [er, null]
  }
}
class UnpackSync extends Unpack {
  [MAKEFS] (er, entry) {
    return super[MAKEFS](er, entry, () => {})
  }

  [CHECKFS] (entry) {
    this[PRUNECACHE](entry)

    if (!this[CHECKED_CWD]) {
      const er = this[MKDIR](this.cwd, this.dmode)
      if (er)
        return this[ONERROR](er, entry)
      this[CHECKED_CWD] = true
    }

    // don't bother to make the parent if the current entry is the cwd,
    // we've already checked it.
    if (entry.absolute !== this.cwd) {
      const parent = normPath(path.dirname(entry.absolute))
      if (parent !== this.cwd) {
        const mkParent = this[MKDIR](parent, this.dmode)
        if (mkParent)
          return this[ONERROR](mkParent, entry)
      }
    }

    const [lstatEr, st] = callSync(() => fs.lstatSync(entry.absolute))
    if (st && (this.keep || this.newer && st.mtime > entry.mtime))
      return this[SKIP](entry)

    if (lstatEr || this[ISREUSABLE](entry, st))
      return this[MAKEFS](null, entry)

    if (st.isDirectory()) {
      if (entry.type === 'Directory') {
        const needChmod = !this.noChmod &&
          entry.mode &&
          (st.mode & 0o7777) !== entry.mode
        const [er] = needChmod ? callSync(() => {
          fs.chmodSync(entry.absolute, entry.mode)
        }) : []
        return this[MAKEFS](er, entry)
      }
      // not a dir entry, have to remove it
      const [er] = callSync(() => fs.rmdirSync(entry.absolute))
      this[MAKEFS](er, entry)
    }

    // not a dir, and not reusable.
    // don't remove if it's the cwd, since we want that error.
    const [er] = entry.absolute === this.cwd ? []
      : callSync(() => unlinkFileSync(entry.absolute))
    this[MAKEFS](er, entry)
  }

  [FILE] (entry, done) {
    const mode = entry.mode & 0o7777 || this.fmode

    const oner = er => {
      let closeError
      try {
        fs.closeSync(fd)
      } catch (e) {
        closeError = e
      }
      if (er || closeError)
        this[ONERROR](er || closeError, entry)
      done()
    }

    let fd
    try {
      fd = fs.openSync(entry.absolute, getFlag(entry.size), mode)
    } catch (er) {
      return oner(er)
    }
    const tx = this.transform ? this.transform(entry) || entry : entry
    if (tx !== entry) {
      tx.on('error', er => this[ONERROR](er, entry))
      entry.pipe(tx)
    }

    tx.on('data', chunk => {
      try {
        fs.writeSync(fd, chunk, 0, chunk.length)
      } catch (er) {
        oner(er)
      }
    })

    tx.on('end', _ => {
      let er = null
      // try both, falling futimes back to utimes
      // if either fails, handle the first error
      if (entry.mtime && !this.noMtime) {
        const atime = entry.atime || new Date()
        const mtime = entry.mtime
        try {
          fs.futimesSync(fd, atime, mtime)
        } catch (futimeser) {
          try {
            fs.utimesSync(entry.absolute, atime, mtime)
          } catch (utimeser) {
            er = futimeser
          }
        }
      }

      if (this[DOCHOWN](entry)) {
        const uid = this[UID](entry)
        const gid = this[GID](entry)

        try {
          fs.fchownSync(fd, uid, gid)
        } catch (fchowner) {
          try {
            fs.chownSync(entry.absolute, uid, gid)
          } catch (chowner) {
            er = er || fchowner
          }
        }
      }

      oner(er)
    })
  }

  [DIRECTORY] (entry, done) {
    const mode = entry.mode & 0o7777 || this.dmode
    const er = this[MKDIR](entry.absolute, mode)
    if (er) {
      this[ONERROR](er, entry)
      done()
      return
    }
    if (entry.mtime && !this.noMtime) {
      try {
        fs.utimesSync(entry.absolute, entry.atime || new Date(), entry.mtime)
      } catch (er) {}
    }
    if (this[DOCHOWN](entry)) {
      try {
        fs.chownSync(entry.absolute, this[UID](entry), this[GID](entry))
      } catch (er) {}
    }
    done()
    entry.resume()
  }

  [MKDIR] (dir, mode) {
    try {
      return mkdir.sync(normPath(dir), {
        uid: this.uid,
        gid: this.gid,
        processUid: this.processUid,
        processGid: this.processGid,
        umask: this.processUmask,
        preserve: this.preservePaths,
        unlink: this.unlink,
        cache: this.dirCache,
        cwd: this.cwd,
        mode: mode,
      })
    } catch (er) {
      return er
    }
  }

  [LINK] (entry, linkpath, link, done) {
    try {
      fs[link + 'Sync'](linkpath, entry.absolute)
      done()
      entry.resume()
    } catch (er) {
      return this[ONERROR](er, entry)
    }
  }
}

Unpack.Sync = UnpackSync
module.exports = Unpack


/***/ }),

/***/ 45997:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";


// tar -u

const hlo = __webpack_require__(32093)
const r = __webpack_require__(71746)
// just call tar.r with the filter and mtimeCache

module.exports = (opt_, files, cb) => {
  const opt = hlo(opt_)

  if (!opt.file)
    throw new TypeError('file is required')

  if (opt.gzip)
    throw new TypeError('cannot append to compressed archives')

  if (!files || !Array.isArray(files) || !files.length)
    throw new TypeError('no files or directories specified')

  files = Array.from(files)

  mtimeFilter(opt)
  return r(opt, files, cb)
}

const mtimeFilter = opt => {
  const filter = opt.filter

  if (!opt.mtimeCache)
    opt.mtimeCache = new Map()

  opt.filter = filter ? (path, stat) =>
    filter(path, stat) && !(opt.mtimeCache.get(path) > stat.mtime)
    : (path, stat) => !(opt.mtimeCache.get(path) > stat.mtime)
}


/***/ }),

/***/ 7902:
/***/ ((module) => {

"use strict";

module.exports = Base => class extends Base {
  warn (code, message, data = {}) {
    if (this.file)
      data.file = this.file
    if (this.cwd)
      data.cwd = this.cwd
    data.code = message instanceof Error && message.code || code
    data.tarCode = code
    if (!this.strict && data.recoverable !== false) {
      if (message instanceof Error) {
        data = Object.assign(message, data)
        message = message.message
      }
      this.emit('warn', data.tarCode, message, data)
    } else if (message instanceof Error)
      this.emit('error', Object.assign(message, data))
    else
      this.emit('error', Object.assign(new Error(`${code}: ${message}`), data))
  }
}


/***/ }),

/***/ 30619:
/***/ ((module) => {

"use strict";


// When writing files on Windows, translate the characters to their
// 0xf000 higher-encoded versions.

const raw = [
  '|',
  '<',
  '>',
  '?',
  ':',
]

const win = raw.map(char =>
  String.fromCharCode(0xf000 + char.charCodeAt(0)))

const toWin = new Map(raw.map((char, i) => [char, win[i]]))
const toRaw = new Map(win.map((char, i) => [char, raw[i]]))

module.exports = {
  encode: s => raw.reduce((s, c) => s.split(c).join(toWin.get(c)), s),
  decode: s => win.reduce((s, c) => s.split(c).join(toRaw.get(c)), s),
}


/***/ }),

/***/ 17620:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

const MiniPass = __webpack_require__(74577)
const Pax = __webpack_require__(64747)
const Header = __webpack_require__(37134)
const fs = __webpack_require__(35747)
const path = __webpack_require__(85622)
const normPath = __webpack_require__(22905)
const stripSlash = __webpack_require__(64922)

const prefixPath = (path, prefix) => {
  if (!prefix)
    return normPath(path)
  path = normPath(path).replace(/^\.(\/|$)/, '')
  return stripSlash(prefix) + '/' + path
}

const maxReadSize = 16 * 1024 * 1024
const PROCESS = Symbol('process')
const FILE = Symbol('file')
const DIRECTORY = Symbol('directory')
const SYMLINK = Symbol('symlink')
const HARDLINK = Symbol('hardlink')
const HEADER = Symbol('header')
const READ = Symbol('read')
const LSTAT = Symbol('lstat')
const ONLSTAT = Symbol('onlstat')
const ONREAD = Symbol('onread')
const ONREADLINK = Symbol('onreadlink')
const OPENFILE = Symbol('openfile')
const ONOPENFILE = Symbol('onopenfile')
const CLOSE = Symbol('close')
const MODE = Symbol('mode')
const AWAITDRAIN = Symbol('awaitDrain')
const ONDRAIN = Symbol('ondrain')
const PREFIX = Symbol('prefix')
const HAD_ERROR = Symbol('hadError')
const warner = __webpack_require__(7902)
const winchars = __webpack_require__(30619)
const stripAbsolutePath = __webpack_require__(2214)

const modeFix = __webpack_require__(27716)

const WriteEntry = warner(class WriteEntry extends MiniPass {
  constructor (p, opt) {
    opt = opt || {}
    super(opt)
    if (typeof p !== 'string')
      throw new TypeError('path is required')
    this.path = normPath(p)
    // suppress atime, ctime, uid, gid, uname, gname
    this.portable = !!opt.portable
    // until node has builtin pwnam functions, this'll have to do
    this.myuid = process.getuid && process.getuid() || 0
    this.myuser = process.env.USER || ''
    this.maxReadSize = opt.maxReadSize || maxReadSize
    this.linkCache = opt.linkCache || new Map()
    this.statCache = opt.statCache || new Map()
    this.preservePaths = !!opt.preservePaths
    this.cwd = normPath(opt.cwd || process.cwd())
    this.strict = !!opt.strict
    this.noPax = !!opt.noPax
    this.noMtime = !!opt.noMtime
    this.mtime = opt.mtime || null
    this.prefix = opt.prefix ? normPath(opt.prefix) : null

    this.fd = null
    this.blockLen = null
    this.blockRemain = null
    this.buf = null
    this.offset = null
    this.length = null
    this.pos = null
    this.remain = null

    if (typeof opt.onwarn === 'function')
      this.on('warn', opt.onwarn)

    let pathWarn = false
    if (!this.preservePaths) {
      const [root, stripped] = stripAbsolutePath(this.path)
      if (root) {
        this.path = stripped
        pathWarn = root
      }
    }

    this.win32 = !!opt.win32 || process.platform === 'win32'
    if (this.win32) {
      // force the \ to / normalization, since we might not *actually*
      // be on windows, but want \ to be considered a path separator.
      this.path = winchars.decode(this.path.replace(/\\/g, '/'))
      p = p.replace(/\\/g, '/')
    }

    this.absolute = normPath(opt.absolute || path.resolve(this.cwd, p))

    if (this.path === '')
      this.path = './'

    if (pathWarn) {
      this.warn('TAR_ENTRY_INFO', `stripping ${pathWarn} from absolute path`, {
        entry: this,
        path: pathWarn + this.path,
      })
    }

    if (this.statCache.has(this.absolute))
      this[ONLSTAT](this.statCache.get(this.absolute))
    else
      this[LSTAT]()
  }

  emit (ev, ...data) {
    if (ev === 'error')
      this[HAD_ERROR] = true
    return super.emit(ev, ...data)
  }

  [LSTAT] () {
    fs.lstat(this.absolute, (er, stat) => {
      if (er)
        return this.emit('error', er)
      this[ONLSTAT](stat)
    })
  }

  [ONLSTAT] (stat) {
    this.statCache.set(this.absolute, stat)
    this.stat = stat
    if (!stat.isFile())
      stat.size = 0
    this.type = getType(stat)
    this.emit('stat', stat)
    this[PROCESS]()
  }

  [PROCESS] () {
    switch (this.type) {
      case 'File': return this[FILE]()
      case 'Directory': return this[DIRECTORY]()
      case 'SymbolicLink': return this[SYMLINK]()
      // unsupported types are ignored.
      default: return this.end()
    }
  }

  [MODE] (mode) {
    return modeFix(mode, this.type === 'Directory', this.portable)
  }

  [PREFIX] (path) {
    return prefixPath(path, this.prefix)
  }

  [HEADER] () {
    if (this.type === 'Directory' && this.portable)
      this.noMtime = true

    this.header = new Header({
      path: this[PREFIX](this.path),
      // only apply the prefix to hard links.
      linkpath: this.type === 'Link' ? this[PREFIX](this.linkpath)
      : this.linkpath,
      // only the permissions and setuid/setgid/sticky bitflags
      // not the higher-order bits that specify file type
      mode: this[MODE](this.stat.mode),
      uid: this.portable ? null : this.stat.uid,
      gid: this.portable ? null : this.stat.gid,
      size: this.stat.size,
      mtime: this.noMtime ? null : this.mtime || this.stat.mtime,
      type: this.type,
      uname: this.portable ? null :
      this.stat.uid === this.myuid ? this.myuser : '',
      atime: this.portable ? null : this.stat.atime,
      ctime: this.portable ? null : this.stat.ctime,
    })

    if (this.header.encode() && !this.noPax) {
      super.write(new Pax({
        atime: this.portable ? null : this.header.atime,
        ctime: this.portable ? null : this.header.ctime,
        gid: this.portable ? null : this.header.gid,
        mtime: this.noMtime ? null : this.mtime || this.header.mtime,
        path: this[PREFIX](this.path),
        linkpath: this.type === 'Link' ? this[PREFIX](this.linkpath)
        : this.linkpath,
        size: this.header.size,
        uid: this.portable ? null : this.header.uid,
        uname: this.portable ? null : this.header.uname,
        dev: this.portable ? null : this.stat.dev,
        ino: this.portable ? null : this.stat.ino,
        nlink: this.portable ? null : this.stat.nlink,
      }).encode())
    }
    super.write(this.header.block)
  }

  [DIRECTORY] () {
    if (this.path.substr(-1) !== '/')
      this.path += '/'
    this.stat.size = 0
    this[HEADER]()
    this.end()
  }

  [SYMLINK] () {
    fs.readlink(this.absolute, (er, linkpath) => {
      if (er)
        return this.emit('error', er)
      this[ONREADLINK](linkpath)
    })
  }

  [ONREADLINK] (linkpath) {
    this.linkpath = normPath(linkpath)
    this[HEADER]()
    this.end()
  }

  [HARDLINK] (linkpath) {
    this.type = 'Link'
    this.linkpath = normPath(path.relative(this.cwd, linkpath))
    this.stat.size = 0
    this[HEADER]()
    this.end()
  }

  [FILE] () {
    if (this.stat.nlink > 1) {
      const linkKey = this.stat.dev + ':' + this.stat.ino
      if (this.linkCache.has(linkKey)) {
        const linkpath = this.linkCache.get(linkKey)
        if (linkpath.indexOf(this.cwd) === 0)
          return this[HARDLINK](linkpath)
      }
      this.linkCache.set(linkKey, this.absolute)
    }

    this[HEADER]()
    if (this.stat.size === 0)
      return this.end()

    this[OPENFILE]()
  }

  [OPENFILE] () {
    fs.open(this.absolute, 'r', (er, fd) => {
      if (er)
        return this.emit('error', er)
      this[ONOPENFILE](fd)
    })
  }

  [ONOPENFILE] (fd) {
    this.fd = fd
    if (this[HAD_ERROR])
      return this[CLOSE]()

    this.blockLen = 512 * Math.ceil(this.stat.size / 512)
    this.blockRemain = this.blockLen
    const bufLen = Math.min(this.blockLen, this.maxReadSize)
    this.buf = Buffer.allocUnsafe(bufLen)
    this.offset = 0
    this.pos = 0
    this.remain = this.stat.size
    this.length = this.buf.length
    this[READ]()
  }

  [READ] () {
    const { fd, buf, offset, length, pos } = this
    fs.read(fd, buf, offset, length, pos, (er, bytesRead) => {
      if (er) {
        // ignoring the error from close(2) is a bad practice, but at
        // this point we already have an error, don't need another one
        return this[CLOSE](() => this.emit('error', er))
      }
      this[ONREAD](bytesRead)
    })
  }

  [CLOSE] (cb) {
    fs.close(this.fd, cb)
  }

  [ONREAD] (bytesRead) {
    if (bytesRead <= 0 && this.remain > 0) {
      const er = new Error('encountered unexpected EOF')
      er.path = this.absolute
      er.syscall = 'read'
      er.code = 'EOF'
      return this[CLOSE](() => this.emit('error', er))
    }

    if (bytesRead > this.remain) {
      const er = new Error('did not encounter expected EOF')
      er.path = this.absolute
      er.syscall = 'read'
      er.code = 'EOF'
      return this[CLOSE](() => this.emit('error', er))
    }

    // null out the rest of the buffer, if we could fit the block padding
    // at the end of this loop, we've incremented bytesRead and this.remain
    // to be incremented up to the blockRemain level, as if we had expected
    // to get a null-padded file, and read it until the end.  then we will
    // decrement both remain and blockRemain by bytesRead, and know that we
    // reached the expected EOF, without any null buffer to append.
    if (bytesRead === this.remain) {
      for (let i = bytesRead; i < this.length && bytesRead < this.blockRemain; i++) {
        this.buf[i + this.offset] = 0
        bytesRead++
        this.remain++
      }
    }

    const writeBuf = this.offset === 0 && bytesRead === this.buf.length ?
      this.buf : this.buf.slice(this.offset, this.offset + bytesRead)

    const flushed = this.write(writeBuf)
    if (!flushed)
      this[AWAITDRAIN](() => this[ONDRAIN]())
    else
      this[ONDRAIN]()
  }

  [AWAITDRAIN] (cb) {
    this.once('drain', cb)
  }

  write (writeBuf) {
    if (this.blockRemain < writeBuf.length) {
      const er = new Error('writing more data than expected')
      er.path = this.absolute
      return this.emit('error', er)
    }
    this.remain -= writeBuf.length
    this.blockRemain -= writeBuf.length
    this.pos += writeBuf.length
    this.offset += writeBuf.length
    return super.write(writeBuf)
  }

  [ONDRAIN] () {
    if (!this.remain) {
      if (this.blockRemain)
        super.write(Buffer.alloc(this.blockRemain))
      return this[CLOSE](er => er ? this.emit('error', er) : this.end())
    }

    if (this.offset >= this.length) {
      // if we only have a smaller bit left to read, alloc a smaller buffer
      // otherwise, keep it the same length it was before.
      this.buf = Buffer.allocUnsafe(Math.min(this.blockRemain, this.buf.length))
      this.offset = 0
    }
    this.length = this.buf.length - this.offset
    this[READ]()
  }
})

class WriteEntrySync extends WriteEntry {
  [LSTAT] () {
    this[ONLSTAT](fs.lstatSync(this.absolute))
  }

  [SYMLINK] () {
    this[ONREADLINK](fs.readlinkSync(this.absolute))
  }

  [OPENFILE] () {
    this[ONOPENFILE](fs.openSync(this.absolute, 'r'))
  }

  [READ] () {
    let threw = true
    try {
      const { fd, buf, offset, length, pos } = this
      const bytesRead = fs.readSync(fd, buf, offset, length, pos)
      this[ONREAD](bytesRead)
      threw = false
    } finally {
      // ignoring the error from close(2) is a bad practice, but at
      // this point we already have an error, don't need another one
      if (threw) {
        try {
          this[CLOSE](() => {})
        } catch (er) {}
      }
    }
  }

  [AWAITDRAIN] (cb) {
    cb()
  }

  [CLOSE] (cb) {
    fs.closeSync(this.fd)
    cb()
  }
}

const WriteEntryTar = warner(class WriteEntryTar extends MiniPass {
  constructor (readEntry, opt) {
    opt = opt || {}
    super(opt)
    this.preservePaths = !!opt.preservePaths
    this.portable = !!opt.portable
    this.strict = !!opt.strict
    this.noPax = !!opt.noPax
    this.noMtime = !!opt.noMtime

    this.readEntry = readEntry
    this.type = readEntry.type
    if (this.type === 'Directory' && this.portable)
      this.noMtime = true

    this.prefix = opt.prefix || null

    this.path = normPath(readEntry.path)
    this.mode = this[MODE](readEntry.mode)
    this.uid = this.portable ? null : readEntry.uid
    this.gid = this.portable ? null : readEntry.gid
    this.uname = this.portable ? null : readEntry.uname
    this.gname = this.portable ? null : readEntry.gname
    this.size = readEntry.size
    this.mtime = this.noMtime ? null : opt.mtime || readEntry.mtime
    this.atime = this.portable ? null : readEntry.atime
    this.ctime = this.portable ? null : readEntry.ctime
    this.linkpath = normPath(readEntry.linkpath)

    if (typeof opt.onwarn === 'function')
      this.on('warn', opt.onwarn)

    let pathWarn = false
    if (!this.preservePaths) {
      const [root, stripped] = stripAbsolutePath(this.path)
      if (root) {
        this.path = stripped
        pathWarn = root
      }
    }

    this.remain = readEntry.size
    this.blockRemain = readEntry.startBlockSize

    this.header = new Header({
      path: this[PREFIX](this.path),
      linkpath: this.type === 'Link' ? this[PREFIX](this.linkpath)
      : this.linkpath,
      // only the permissions and setuid/setgid/sticky bitflags
      // not the higher-order bits that specify file type
      mode: this.mode,
      uid: this.portable ? null : this.uid,
      gid: this.portable ? null : this.gid,
      size: this.size,
      mtime: this.noMtime ? null : this.mtime,
      type: this.type,
      uname: this.portable ? null : this.uname,
      atime: this.portable ? null : this.atime,
      ctime: this.portable ? null : this.ctime,
    })

    if (pathWarn) {
      this.warn('TAR_ENTRY_INFO', `stripping ${pathWarn} from absolute path`, {
        entry: this,
        path: pathWarn + this.path,
      })
    }

    if (this.header.encode() && !this.noPax) {
      super.write(new Pax({
        atime: this.portable ? null : this.atime,
        ctime: this.portable ? null : this.ctime,
        gid: this.portable ? null : this.gid,
        mtime: this.noMtime ? null : this.mtime,
        path: this[PREFIX](this.path),
        linkpath: this.type === 'Link' ? this[PREFIX](this.linkpath)
        : this.linkpath,
        size: this.size,
        uid: this.portable ? null : this.uid,
        uname: this.portable ? null : this.uname,
        dev: this.portable ? null : this.readEntry.dev,
        ino: this.portable ? null : this.readEntry.ino,
        nlink: this.portable ? null : this.readEntry.nlink,
      }).encode())
    }

    super.write(this.header.block)
    readEntry.pipe(this)
  }

  [PREFIX] (path) {
    return prefixPath(path, this.prefix)
  }

  [MODE] (mode) {
    return modeFix(mode, this.type === 'Directory', this.portable)
  }

  write (data) {
    const writeLen = data.length
    if (writeLen > this.blockRemain)
      throw new Error('writing more to entry than is appropriate')
    this.blockRemain -= writeLen
    return super.write(data)
  }

  end () {
    if (this.blockRemain)
      super.write(Buffer.alloc(this.blockRemain))
    return super.end()
  }
})

WriteEntry.Sync = WriteEntrySync
WriteEntry.Tar = WriteEntryTar

const getType = stat =>
  stat.isFile() ? 'File'
  : stat.isDirectory() ? 'Directory'
  : stat.isSymbolicLink() ? 'SymbolicLink'
  : 'Unsupported'

module.exports = WriteEntry


/***/ }),

/***/ 85608:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

const fs = __webpack_require__(35747)
const path = __webpack_require__(85622)

/* istanbul ignore next */
const LCHOWN = fs.lchown ? 'lchown' : 'chown'
/* istanbul ignore next */
const LCHOWNSYNC = fs.lchownSync ? 'lchownSync' : 'chownSync'

/* istanbul ignore next */
const needEISDIRHandled = fs.lchown &&
  !process.version.match(/v1[1-9]+\./) &&
  !process.version.match(/v10\.[6-9]/)

const lchownSync = (path, uid, gid) => {
  try {
    return fs[LCHOWNSYNC](path, uid, gid)
  } catch (er) {
    if (er.code !== 'ENOENT')
      throw er
  }
}

/* istanbul ignore next */
const chownSync = (path, uid, gid) => {
  try {
    return fs.chownSync(path, uid, gid)
  } catch (er) {
    if (er.code !== 'ENOENT')
      throw er
  }
}

/* istanbul ignore next */
const handleEISDIR =
  needEISDIRHandled ? (path, uid, gid, cb) => er => {
    // Node prior to v10 had a very questionable implementation of
    // fs.lchown, which would always try to call fs.open on a directory
    // Fall back to fs.chown in those cases.
    if (!er || er.code !== 'EISDIR')
      cb(er)
    else
      fs.chown(path, uid, gid, cb)
  }
  : (_, __, ___, cb) => cb

/* istanbul ignore next */
const handleEISDirSync =
  needEISDIRHandled ? (path, uid, gid) => {
    try {
      return lchownSync(path, uid, gid)
    } catch (er) {
      if (er.code !== 'EISDIR')
        throw er
      chownSync(path, uid, gid)
    }
  }
  : (path, uid, gid) => lchownSync(path, uid, gid)

// fs.readdir could only accept an options object as of node v6
const nodeVersion = process.version
let readdir = (path, options, cb) => fs.readdir(path, options, cb)
let readdirSync = (path, options) => fs.readdirSync(path, options)
/* istanbul ignore next */
if (/^v4\./.test(nodeVersion))
  readdir = (path, options, cb) => fs.readdir(path, cb)

const chown = (cpath, uid, gid, cb) => {
  fs[LCHOWN](cpath, uid, gid, handleEISDIR(cpath, uid, gid, er => {
    // Skip ENOENT error
    cb(er && er.code !== 'ENOENT' ? er : null)
  }))
}

const chownrKid = (p, child, uid, gid, cb) => {
  if (typeof child === 'string')
    return fs.lstat(path.resolve(p, child), (er, stats) => {
      // Skip ENOENT error
      if (er)
        return cb(er.code !== 'ENOENT' ? er : null)
      stats.name = child
      chownrKid(p, stats, uid, gid, cb)
    })

  if (child.isDirectory()) {
    chownr(path.resolve(p, child.name), uid, gid, er => {
      if (er)
        return cb(er)
      const cpath = path.resolve(p, child.name)
      chown(cpath, uid, gid, cb)
    })
  } else {
    const cpath = path.resolve(p, child.name)
    chown(cpath, uid, gid, cb)
  }
}


const chownr = (p, uid, gid, cb) => {
  readdir(p, { withFileTypes: true }, (er, children) => {
    // any error other than ENOTDIR or ENOTSUP means it's not readable,
    // or doesn't exist.  give up.
    if (er) {
      if (er.code === 'ENOENT')
        return cb()
      else if (er.code !== 'ENOTDIR' && er.code !== 'ENOTSUP')
        return cb(er)
    }
    if (er || !children.length)
      return chown(p, uid, gid, cb)

    let len = children.length
    let errState = null
    const then = er => {
      if (errState)
        return
      if (er)
        return cb(errState = er)
      if (-- len === 0)
        return chown(p, uid, gid, cb)
    }

    children.forEach(child => chownrKid(p, child, uid, gid, then))
  })
}

const chownrKidSync = (p, child, uid, gid) => {
  if (typeof child === 'string') {
    try {
      const stats = fs.lstatSync(path.resolve(p, child))
      stats.name = child
      child = stats
    } catch (er) {
      if (er.code === 'ENOENT')
        return
      else
        throw er
    }
  }

  if (child.isDirectory())
    chownrSync(path.resolve(p, child.name), uid, gid)

  handleEISDirSync(path.resolve(p, child.name), uid, gid)
}

const chownrSync = (p, uid, gid) => {
  let children
  try {
    children = readdirSync(p, { withFileTypes: true })
  } catch (er) {
    if (er.code === 'ENOENT')
      return
    else if (er.code === 'ENOTDIR' || er.code === 'ENOTSUP')
      return handleEISDirSync(p, uid, gid)
    else
      throw er
  }

  if (children && children.length)
    children.forEach(child => chownrKidSync(p, child, uid, gid))

  return handleEISDirSync(p, uid, gid)
}

module.exports = chownr
chownr.sync = chownrSync


/***/ }),

/***/ 74577:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

const EE = __webpack_require__(28614)
const Stream = __webpack_require__(92413)
const Yallist = __webpack_require__(51234)
const SD = __webpack_require__(24304).StringDecoder

const EOF = Symbol('EOF')
const MAYBE_EMIT_END = Symbol('maybeEmitEnd')
const EMITTED_END = Symbol('emittedEnd')
const EMITTING_END = Symbol('emittingEnd')
const CLOSED = Symbol('closed')
const READ = Symbol('read')
const FLUSH = Symbol('flush')
const FLUSHCHUNK = Symbol('flushChunk')
const ENCODING = Symbol('encoding')
const DECODER = Symbol('decoder')
const FLOWING = Symbol('flowing')
const PAUSED = Symbol('paused')
const RESUME = Symbol('resume')
const BUFFERLENGTH = Symbol('bufferLength')
const BUFFERPUSH = Symbol('bufferPush')
const BUFFERSHIFT = Symbol('bufferShift')
const OBJECTMODE = Symbol('objectMode')
const DESTROYED = Symbol('destroyed')

// TODO remove when Node v8 support drops
const doIter = global._MP_NO_ITERATOR_SYMBOLS_  !== '1'
const ASYNCITERATOR = doIter && Symbol.asyncIterator
  || Symbol('asyncIterator not implemented')
const ITERATOR = doIter && Symbol.iterator
  || Symbol('iterator not implemented')

// events that mean 'the stream is over'
// these are treated specially, and re-emitted
// if they are listened for after emitting.
const isEndish = ev =>
  ev === 'end' ||
  ev === 'finish' ||
  ev === 'prefinish'

const isArrayBuffer = b => b instanceof ArrayBuffer ||
  typeof b === 'object' &&
  b.constructor &&
  b.constructor.name === 'ArrayBuffer' &&
  b.byteLength >= 0

const isArrayBufferView = b => !Buffer.isBuffer(b) && ArrayBuffer.isView(b)

module.exports = class Minipass extends Stream {
  constructor (options) {
    super()
    this[FLOWING] = false
    // whether we're explicitly paused
    this[PAUSED] = false
    this.pipes = new Yallist()
    this.buffer = new Yallist()
    this[OBJECTMODE] = options && options.objectMode || false
    if (this[OBJECTMODE])
      this[ENCODING] = null
    else
      this[ENCODING] = options && options.encoding || null
    if (this[ENCODING] === 'buffer')
      this[ENCODING] = null
    this[DECODER] = this[ENCODING] ? new SD(this[ENCODING]) : null
    this[EOF] = false
    this[EMITTED_END] = false
    this[EMITTING_END] = false
    this[CLOSED] = false
    this.writable = true
    this.readable = true
    this[BUFFERLENGTH] = 0
    this[DESTROYED] = false
  }

  get bufferLength () { return this[BUFFERLENGTH] }

  get encoding () { return this[ENCODING] }
  set encoding (enc) {
    if (this[OBJECTMODE])
      throw new Error('cannot set encoding in objectMode')

    if (this[ENCODING] && enc !== this[ENCODING] &&
        (this[DECODER] && this[DECODER].lastNeed || this[BUFFERLENGTH]))
      throw new Error('cannot change encoding')

    if (this[ENCODING] !== enc) {
      this[DECODER] = enc ? new SD(enc) : null
      if (this.buffer.length)
        this.buffer = this.buffer.map(chunk => this[DECODER].write(chunk))
    }

    this[ENCODING] = enc
  }

  setEncoding (enc) {
    this.encoding = enc
  }

  get objectMode () { return this[OBJECTMODE] }
  set objectMode (om) { this[OBJECTMODE] = this[OBJECTMODE] || !!om }

  write (chunk, encoding, cb) {
    if (this[EOF])
      throw new Error('write after end')

    if (this[DESTROYED]) {
      this.emit('error', Object.assign(
        new Error('Cannot call write after a stream was destroyed'),
        { code: 'ERR_STREAM_DESTROYED' }
      ))
      return true
    }

    if (typeof encoding === 'function')
      cb = encoding, encoding = 'utf8'

    if (!encoding)
      encoding = 'utf8'

    // convert array buffers and typed array views into buffers
    // at some point in the future, we may want to do the opposite!
    // leave strings and buffers as-is
    // anything else switches us into object mode
    if (!this[OBJECTMODE] && !Buffer.isBuffer(chunk)) {
      if (isArrayBufferView(chunk))
        chunk = Buffer.from(chunk.buffer, chunk.byteOffset, chunk.byteLength)
      else if (isArrayBuffer(chunk))
        chunk = Buffer.from(chunk)
      else if (typeof chunk !== 'string')
        // use the setter so we throw if we have encoding set
        this.objectMode = true
    }

    // this ensures at this point that the chunk is a buffer or string
    // don't buffer it up or send it to the decoder
    if (!this.objectMode && !chunk.length) {
      if (this[BUFFERLENGTH] !== 0)
        this.emit('readable')
      if (cb)
        cb()
      return this.flowing
    }

    // fast-path writing strings of same encoding to a stream with
    // an empty buffer, skipping the buffer/decoder dance
    if (typeof chunk === 'string' && !this[OBJECTMODE] &&
        // unless it is a string already ready for us to use
        !(encoding === this[ENCODING] && !this[DECODER].lastNeed)) {
      chunk = Buffer.from(chunk, encoding)
    }

    if (Buffer.isBuffer(chunk) && this[ENCODING])
      chunk = this[DECODER].write(chunk)

    if (this.flowing) {
      // if we somehow have something in the buffer, but we think we're
      // flowing, then we need to flush all that out first, or we get
      // chunks coming in out of order.  Can't emit 'drain' here though,
      // because we're mid-write, so that'd be bad.
      if (this[BUFFERLENGTH] !== 0)
        this[FLUSH](true)
      this.emit('data', chunk)
    } else
      this[BUFFERPUSH](chunk)

    if (this[BUFFERLENGTH] !== 0)
      this.emit('readable')

    if (cb)
      cb()

    return this.flowing
  }

  read (n) {
    if (this[DESTROYED])
      return null

    try {
      if (this[BUFFERLENGTH] === 0 || n === 0 || n > this[BUFFERLENGTH])
        return null

      if (this[OBJECTMODE])
        n = null

      if (this.buffer.length > 1 && !this[OBJECTMODE]) {
        if (this.encoding)
          this.buffer = new Yallist([
            Array.from(this.buffer).join('')
          ])
        else
          this.buffer = new Yallist([
            Buffer.concat(Array.from(this.buffer), this[BUFFERLENGTH])
          ])
      }

      return this[READ](n || null, this.buffer.head.value)
    } finally {
      this[MAYBE_EMIT_END]()
    }
  }

  [READ] (n, chunk) {
    if (n === chunk.length || n === null)
      this[BUFFERSHIFT]()
    else {
      this.buffer.head.value = chunk.slice(n)
      chunk = chunk.slice(0, n)
      this[BUFFERLENGTH] -= n
    }

    this.emit('data', chunk)

    if (!this.buffer.length && !this[EOF])
      this.emit('drain')

    return chunk
  }

  end (chunk, encoding, cb) {
    if (typeof chunk === 'function')
      cb = chunk, chunk = null
    if (typeof encoding === 'function')
      cb = encoding, encoding = 'utf8'
    if (chunk)
      this.write(chunk, encoding)
    if (cb)
      this.once('end', cb)
    this[EOF] = true
    this.writable = false

    // if we haven't written anything, then go ahead and emit,
    // even if we're not reading.
    // we'll re-emit if a new 'end' listener is added anyway.
    // This makes MP more suitable to write-only use cases.
    if (this.flowing || !this[PAUSED])
      this[MAYBE_EMIT_END]()
    return this
  }

  // don't let the internal resume be overwritten
  [RESUME] () {
    if (this[DESTROYED])
      return

    this[PAUSED] = false
    this[FLOWING] = true
    this.emit('resume')
    if (this.buffer.length)
      this[FLUSH]()
    else if (this[EOF])
      this[MAYBE_EMIT_END]()
    else
      this.emit('drain')
  }

  resume () {
    return this[RESUME]()
  }

  pause () {
    this[FLOWING] = false
    this[PAUSED] = true
  }

  get destroyed () {
    return this[DESTROYED]
  }

  get flowing () {
    return this[FLOWING]
  }

  get paused () {
    return this[PAUSED]
  }

  [BUFFERPUSH] (chunk) {
    if (this[OBJECTMODE])
      this[BUFFERLENGTH] += 1
    else
      this[BUFFERLENGTH] += chunk.length
    return this.buffer.push(chunk)
  }

  [BUFFERSHIFT] () {
    if (this.buffer.length) {
      if (this[OBJECTMODE])
        this[BUFFERLENGTH] -= 1
      else
        this[BUFFERLENGTH] -= this.buffer.head.value.length
    }
    return this.buffer.shift()
  }

  [FLUSH] (noDrain) {
    do {} while (this[FLUSHCHUNK](this[BUFFERSHIFT]()))

    if (!noDrain && !this.buffer.length && !this[EOF])
      this.emit('drain')
  }

  [FLUSHCHUNK] (chunk) {
    return chunk ? (this.emit('data', chunk), this.flowing) : false
  }

  pipe (dest, opts) {
    if (this[DESTROYED])
      return

    const ended = this[EMITTED_END]
    opts = opts || {}
    if (dest === process.stdout || dest === process.stderr)
      opts.end = false
    else
      opts.end = opts.end !== false

    const p = { dest: dest, opts: opts, ondrain: _ => this[RESUME]() }
    this.pipes.push(p)

    dest.on('drain', p.ondrain)
    this[RESUME]()
    // piping an ended stream ends immediately
    if (ended && p.opts.end)
      p.dest.end()
    return dest
  }

  addListener (ev, fn) {
    return this.on(ev, fn)
  }

  on (ev, fn) {
    try {
      return super.on(ev, fn)
    } finally {
      if (ev === 'data' && !this.pipes.length && !this.flowing)
        this[RESUME]()
      else if (isEndish(ev) && this[EMITTED_END]) {
        super.emit(ev)
        this.removeAllListeners(ev)
      }
    }
  }

  get emittedEnd () {
    return this[EMITTED_END]
  }

  [MAYBE_EMIT_END] () {
    if (!this[EMITTING_END] &&
        !this[EMITTED_END] &&
        !this[DESTROYED] &&
        this.buffer.length === 0 &&
        this[EOF]) {
      this[EMITTING_END] = true
      this.emit('end')
      this.emit('prefinish')
      this.emit('finish')
      if (this[CLOSED])
        this.emit('close')
      this[EMITTING_END] = false
    }
  }

  emit (ev, data) {
    // error and close are only events allowed after calling destroy()
    if (ev !== 'error' && ev !== 'close' && ev !== DESTROYED && this[DESTROYED])
      return
    else if (ev === 'data') {
      if (!data)
        return

      if (this.pipes.length)
        this.pipes.forEach(p =>
          p.dest.write(data) === false && this.pause())
    } else if (ev === 'end') {
      // only actual end gets this treatment
      if (this[EMITTED_END] === true)
        return

      this[EMITTED_END] = true
      this.readable = false

      if (this[DECODER]) {
        data = this[DECODER].end()
        if (data) {
          this.pipes.forEach(p => p.dest.write(data))
          super.emit('data', data)
        }
      }

      this.pipes.forEach(p => {
        p.dest.removeListener('drain', p.ondrain)
        if (p.opts.end)
          p.dest.end()
      })
    } else if (ev === 'close') {
      this[CLOSED] = true
      // don't emit close before 'end' and 'finish'
      if (!this[EMITTED_END] && !this[DESTROYED])
        return
    }

    // TODO: replace with a spread operator when Node v4 support drops
    const args = new Array(arguments.length)
    args[0] = ev
    args[1] = data
    if (arguments.length > 2) {
      for (let i = 2; i < arguments.length; i++) {
        args[i] = arguments[i]
      }
    }

    try {
      return super.emit.apply(this, args)
    } finally {
      if (!isEndish(ev))
        this[MAYBE_EMIT_END]()
      else
        this.removeAllListeners(ev)
    }
  }

  // const all = await stream.collect()
  collect () {
    const buf = []
    if (!this[OBJECTMODE])
      buf.dataLength = 0
    // set the promise first, in case an error is raised
    // by triggering the flow here.
    const p = this.promise()
    this.on('data', c => {
      buf.push(c)
      if (!this[OBJECTMODE])
        buf.dataLength += c.length
    })
    return p.then(() => buf)
  }

  // const data = await stream.concat()
  concat () {
    return this[OBJECTMODE]
      ? Promise.reject(new Error('cannot concat in objectMode'))
      : this.collect().then(buf =>
          this[OBJECTMODE]
            ? Promise.reject(new Error('cannot concat in objectMode'))
            : this[ENCODING] ? buf.join('') : Buffer.concat(buf, buf.dataLength))
  }

  // stream.promise().then(() => done, er => emitted error)
  promise () {
    return new Promise((resolve, reject) => {
      this.on(DESTROYED, () => reject(new Error('stream destroyed')))
      this.on('end', () => resolve())
      this.on('error', er => reject(er))
    })
  }

  // for await (let chunk of stream)
  [ASYNCITERATOR] () {
    const next = () => {
      const res = this.read()
      if (res !== null)
        return Promise.resolve({ done: false, value: res })

      if (this[EOF])
        return Promise.resolve({ done: true })

      let resolve = null
      let reject = null
      const onerr = er => {
        this.removeListener('data', ondata)
        this.removeListener('end', onend)
        reject(er)
      }
      const ondata = value => {
        this.removeListener('error', onerr)
        this.removeListener('end', onend)
        this.pause()
        resolve({ value: value, done: !!this[EOF] })
      }
      const onend = () => {
        this.removeListener('error', onerr)
        this.removeListener('data', ondata)
        resolve({ done: true })
      }
      const ondestroy = () => onerr(new Error('stream destroyed'))
      return new Promise((res, rej) => {
        reject = rej
        resolve = res
        this.once(DESTROYED, ondestroy)
        this.once('error', onerr)
        this.once('end', onend)
        this.once('data', ondata)
      })
    }

    return { next }
  }

  // for (let chunk of stream)
  [ITERATOR] () {
    const next = () => {
      const value = this.read()
      const done = value === null
      return { value, done }
    }
    return { next }
  }

  destroy (er) {
    if (this[DESTROYED]) {
      if (er)
        this.emit('error', er)
      else
        this.emit(DESTROYED)
      return this
    }

    this[DESTROYED] = true

    // throw away all buffered data, it's never coming out
    this.buffer = new Yallist()
    this[BUFFERLENGTH] = 0

    if (typeof this.close === 'function' && !this[CLOSED])
      this.close()

    if (er)
      this.emit('error', er)
    else // if no error to emit, still reject pending promises
      this.emit(DESTROYED)

    return this
  }

  static isStream (s) {
    return !!s && (s instanceof Minipass || s instanceof Stream ||
      s instanceof EE && (
        typeof s.pipe === 'function' || // readable
        (typeof s.write === 'function' && typeof s.end === 'function') // writable
      ))
  }
}


/***/ }),

/***/ 76318:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

const optsArg = __webpack_require__(2736)
const pathArg = __webpack_require__(7543)

const {mkdirpNative, mkdirpNativeSync} = __webpack_require__(15612)
const {mkdirpManual, mkdirpManualSync} = __webpack_require__(1175)
const {useNative, useNativeSync} = __webpack_require__(52589)


const mkdirp = (path, opts) => {
  path = pathArg(path)
  opts = optsArg(opts)
  return useNative(opts)
    ? mkdirpNative(path, opts)
    : mkdirpManual(path, opts)
}

const mkdirpSync = (path, opts) => {
  path = pathArg(path)
  opts = optsArg(opts)
  return useNativeSync(opts)
    ? mkdirpNativeSync(path, opts)
    : mkdirpManualSync(path, opts)
}

mkdirp.sync = mkdirpSync
mkdirp.native = (path, opts) => mkdirpNative(pathArg(path), optsArg(opts))
mkdirp.manual = (path, opts) => mkdirpManual(pathArg(path), optsArg(opts))
mkdirp.nativeSync = (path, opts) => mkdirpNativeSync(pathArg(path), optsArg(opts))
mkdirp.manualSync = (path, opts) => mkdirpManualSync(pathArg(path), optsArg(opts))

module.exports = mkdirp


/***/ }),

/***/ 31139:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

const {dirname} = __webpack_require__(85622)

const findMade = (opts, parent, path = undefined) => {
  // we never want the 'made' return value to be a root directory
  if (path === parent)
    return Promise.resolve()

  return opts.statAsync(parent).then(
    st => st.isDirectory() ? path : undefined, // will fail later
    er => er.code === 'ENOENT'
      ? findMade(opts, dirname(parent), parent)
      : undefined
  )
}

const findMadeSync = (opts, parent, path = undefined) => {
  if (path === parent)
    return undefined

  try {
    return opts.statSync(parent).isDirectory() ? path : undefined
  } catch (er) {
    return er.code === 'ENOENT'
      ? findMadeSync(opts, dirname(parent), parent)
      : undefined
  }
}

module.exports = {findMade, findMadeSync}


/***/ }),

/***/ 1175:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

const {dirname} = __webpack_require__(85622)

const mkdirpManual = (path, opts, made) => {
  opts.recursive = false
  const parent = dirname(path)
  if (parent === path) {
    return opts.mkdirAsync(path, opts).catch(er => {
      // swallowed by recursive implementation on posix systems
      // any other error is a failure
      if (er.code !== 'EISDIR')
        throw er
    })
  }

  return opts.mkdirAsync(path, opts).then(() => made || path, er => {
    if (er.code === 'ENOENT')
      return mkdirpManual(parent, opts)
        .then(made => mkdirpManual(path, opts, made))
    if (er.code !== 'EEXIST' && er.code !== 'EROFS')
      throw er
    return opts.statAsync(path).then(st => {
      if (st.isDirectory())
        return made
      else
        throw er
    }, () => { throw er })
  })
}

const mkdirpManualSync = (path, opts, made) => {
  const parent = dirname(path)
  opts.recursive = false

  if (parent === path) {
    try {
      return opts.mkdirSync(path, opts)
    } catch (er) {
      // swallowed by recursive implementation on posix systems
      // any other error is a failure
      if (er.code !== 'EISDIR')
        throw er
      else
        return
    }
  }

  try {
    opts.mkdirSync(path, opts)
    return made || path
  } catch (er) {
    if (er.code === 'ENOENT')
      return mkdirpManualSync(path, opts, mkdirpManualSync(parent, opts, made))
    if (er.code !== 'EEXIST' && er.code !== 'EROFS')
      throw er
    try {
      if (!opts.statSync(path).isDirectory())
        throw er
    } catch (_) {
      throw er
    }
  }
}

module.exports = {mkdirpManual, mkdirpManualSync}


/***/ }),

/***/ 15612:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

const {dirname} = __webpack_require__(85622)
const {findMade, findMadeSync} = __webpack_require__(31139)
const {mkdirpManual, mkdirpManualSync} = __webpack_require__(1175)

const mkdirpNative = (path, opts) => {
  opts.recursive = true
  const parent = dirname(path)
  if (parent === path)
    return opts.mkdirAsync(path, opts)

  return findMade(opts, path).then(made =>
    opts.mkdirAsync(path, opts).then(() => made)
    .catch(er => {
      if (er.code === 'ENOENT')
        return mkdirpManual(path, opts)
      else
        throw er
    }))
}

const mkdirpNativeSync = (path, opts) => {
  opts.recursive = true
  const parent = dirname(path)
  if (parent === path)
    return opts.mkdirSync(path, opts)

  const made = findMadeSync(opts, path)
  try {
    opts.mkdirSync(path, opts)
    return made
  } catch (er) {
    if (er.code === 'ENOENT')
      return mkdirpManualSync(path, opts)
    else
      throw er
  }
}

module.exports = {mkdirpNative, mkdirpNativeSync}


/***/ }),

/***/ 2736:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

const { promisify } = __webpack_require__(31669)
const fs = __webpack_require__(35747)
const optsArg = opts => {
  if (!opts)
    opts = { mode: 0o777, fs }
  else if (typeof opts === 'object')
    opts = { mode: 0o777, fs, ...opts }
  else if (typeof opts === 'number')
    opts = { mode: opts, fs }
  else if (typeof opts === 'string')
    opts = { mode: parseInt(opts, 8), fs }
  else
    throw new TypeError('invalid options argument')

  opts.mkdir = opts.mkdir || opts.fs.mkdir || fs.mkdir
  opts.mkdirAsync = promisify(opts.mkdir)
  opts.stat = opts.stat || opts.fs.stat || fs.stat
  opts.statAsync = promisify(opts.stat)
  opts.statSync = opts.statSync || opts.fs.statSync || fs.statSync
  opts.mkdirSync = opts.mkdirSync || opts.fs.mkdirSync || fs.mkdirSync
  return opts
}
module.exports = optsArg


/***/ }),

/***/ 7543:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

const platform = process.env.__TESTING_MKDIRP_PLATFORM__ || process.platform
const { resolve, parse } = __webpack_require__(85622)
const pathArg = path => {
  if (/\0/.test(path)) {
    // simulate same failure that node raises
    throw Object.assign(
      new TypeError('path must be a string without null bytes'),
      {
        path,
        code: 'ERR_INVALID_ARG_VALUE',
      }
    )
  }

  path = resolve(path)
  if (platform === 'win32') {
    const badWinChars = /[*|"<>?:]/
    const {root} = parse(path)
    if (badWinChars.test(path.substr(root.length))) {
      throw Object.assign(new Error('Illegal characters in path.'), {
        path,
        code: 'EINVAL',
      })
    }
  }

  return path
}
module.exports = pathArg


/***/ }),

/***/ 52589:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

const fs = __webpack_require__(35747)

const version = process.env.__TESTING_MKDIRP_NODE_VERSION__ || process.version
const versArr = version.replace(/^v/, '').split('.')
const hasNative = +versArr[0] > 10 || +versArr[0] === 10 && +versArr[1] >= 12

const useNative = !hasNative ? () => false : opts => opts.mkdir === fs.mkdir
const useNativeSync = !hasNative ? () => false : opts => opts.mkdirSync === fs.mkdirSync

module.exports = {useNative, useNativeSync}


/***/ }),

/***/ 36307:
/***/ ((module) => {

"use strict";

module.exports = function (Yallist) {
  Yallist.prototype[Symbol.iterator] = function* () {
    for (let walker = this.head; walker; walker = walker.next) {
      yield walker.value
    }
  }
}


/***/ }),

/***/ 51234:
/***/ ((module, __unused_webpack_exports, __webpack_require__) => {

"use strict";

module.exports = Yallist

Yallist.Node = Node
Yallist.create = Yallist

function Yallist (list) {
  var self = this
  if (!(self instanceof Yallist)) {
    self = new Yallist()
  }

  self.tail = null
  self.head = null
  self.length = 0

  if (list && typeof list.forEach === 'function') {
    list.forEach(function (item) {
      self.push(item)
    })
  } else if (arguments.length > 0) {
    for (var i = 0, l = arguments.length; i < l; i++) {
      self.push(arguments[i])
    }
  }

  return self
}

Yallist.prototype.removeNode = function (node) {
  if (node.list !== this) {
    throw new Error('removing node which does not belong to this list')
  }

  var next = node.next
  var prev = node.prev

  if (next) {
    next.prev = prev
  }

  if (prev) {
    prev.next = next
  }

  if (node === this.head) {
    this.head = next
  }
  if (node === this.tail) {
    this.tail = prev
  }

  node.list.length--
  node.next = null
  node.prev = null
  node.list = null

  return next
}

Yallist.prototype.unshiftNode = function (node) {
  if (node === this.head) {
    return
  }

  if (node.list) {
    node.list.removeNode(node)
  }

  var head = this.head
  node.list = this
  node.next = head
  if (head) {
    head.prev = node
  }

  this.head = node
  if (!this.tail) {
    this.tail = node
  }
  this.length++
}

Yallist.prototype.pushNode = function (node) {
  if (node === this.tail) {
    return
  }

  if (node.list) {
    node.list.removeNode(node)
  }

  var tail = this.tail
  node.list = this
  node.prev = tail
  if (tail) {
    tail.next = node
  }

  this.tail = node
  if (!this.head) {
    this.head = node
  }
  this.length++
}

Yallist.prototype.push = function () {
  for (var i = 0, l = arguments.length; i < l; i++) {
    push(this, arguments[i])
  }
  return this.length
}

Yallist.prototype.unshift = function () {
  for (var i = 0, l = arguments.length; i < l; i++) {
    unshift(this, arguments[i])
  }
  return this.length
}

Yallist.prototype.pop = function () {
  if (!this.tail) {
    return undefined
  }

  var res = this.tail.value
  this.tail = this.tail.prev
  if (this.tail) {
    this.tail.next = null
  } else {
    this.head = null
  }
  this.length--
  return res
}

Yallist.prototype.shift = function () {
  if (!this.head) {
    return undefined
  }

  var res = this.head.value
  this.head = this.head.next
  if (this.head) {
    this.head.prev = null
  } else {
    this.tail = null
  }
  this.length--
  return res
}

Yallist.prototype.forEach = function (fn, thisp) {
  thisp = thisp || this
  for (var walker = this.head, i = 0; walker !== null; i++) {
    fn.call(thisp, walker.value, i, this)
    walker = walker.next
  }
}

Yallist.prototype.forEachReverse = function (fn, thisp) {
  thisp = thisp || this
  for (var walker = this.tail, i = this.length - 1; walker !== null; i--) {
    fn.call(thisp, walker.value, i, this)
    walker = walker.prev
  }
}

Yallist.prototype.get = function (n) {
  for (var i = 0, walker = this.head; walker !== null && i < n; i++) {
    // abort out of the list early if we hit a cycle
    walker = walker.next
  }
  if (i === n && walker !== null) {
    return walker.value
  }
}

Yallist.prototype.getReverse = function (n) {
  for (var i = 0, walker = this.tail; walker !== null && i < n; i++) {
    // abort out of the list early if we hit a cycle
    walker = walker.prev
  }
  if (i === n && walker !== null) {
    return walker.value
  }
}

Yallist.prototype.map = function (fn, thisp) {
  thisp = thisp || this
  var res = new Yallist()
  for (var walker = this.head; walker !== null;) {
    res.push(fn.call(thisp, walker.value, this))
    walker = walker.next
  }
  return res
}

Yallist.prototype.mapReverse = function (fn, thisp) {
  thisp = thisp || this
  var res = new Yallist()
  for (var walker = this.tail; walker !== null;) {
    res.push(fn.call(thisp, walker.value, this))
    walker = walker.prev
  }
  return res
}

Yallist.prototype.reduce = function (fn, initial) {
  var acc
  var walker = this.head
  if (arguments.length > 1) {
    acc = initial
  } else if (this.head) {
    walker = this.head.next
    acc = this.head.value
  } else {
    throw new TypeError('Reduce of empty list with no initial value')
  }

  for (var i = 0; walker !== null; i++) {
    acc = fn(acc, walker.value, i)
    walker = walker.next
  }

  return acc
}

Yallist.prototype.reduceReverse = function (fn, initial) {
  var acc
  var walker = this.tail
  if (arguments.length > 1) {
    acc = initial
  } else if (this.tail) {
    walker = this.tail.prev
    acc = this.tail.value
  } else {
    throw new TypeError('Reduce of empty list with no initial value')
  }

  for (var i = this.length - 1; walker !== null; i--) {
    acc = fn(acc, walker.value, i)
    walker = walker.prev
  }

  return acc
}

Yallist.prototype.toArray = function () {
  var arr = new Array(this.length)
  for (var i = 0, walker = this.head; walker !== null; i++) {
    arr[i] = walker.value
    walker = walker.next
  }
  return arr
}

Yallist.prototype.toArrayReverse = function () {
  var arr = new Array(this.length)
  for (var i = 0, walker = this.tail; walker !== null; i++) {
    arr[i] = walker.value
    walker = walker.prev
  }
  return arr
}

Yallist.prototype.slice = function (from, to) {
  to = to || this.length
  if (to < 0) {
    to += this.length
  }
  from = from || 0
  if (from < 0) {
    from += this.length
  }
  var ret = new Yallist()
  if (to < from || to < 0) {
    return ret
  }
  if (from < 0) {
    from = 0
  }
  if (to > this.length) {
    to = this.length
  }
  for (var i = 0, walker = this.head; walker !== null && i < from; i++) {
    walker = walker.next
  }
  for (; walker !== null && i < to; i++, walker = walker.next) {
    ret.push(walker.value)
  }
  return ret
}

Yallist.prototype.sliceReverse = function (from, to) {
  to = to || this.length
  if (to < 0) {
    to += this.length
  }
  from = from || 0
  if (from < 0) {
    from += this.length
  }
  var ret = new Yallist()
  if (to < from || to < 0) {
    return ret
  }
  if (from < 0) {
    from = 0
  }
  if (to > this.length) {
    to = this.length
  }
  for (var i = this.length, walker = this.tail; walker !== null && i > to; i--) {
    walker = walker.prev
  }
  for (; walker !== null && i > from; i--, walker = walker.prev) {
    ret.push(walker.value)
  }
  return ret
}

Yallist.prototype.splice = function (start, deleteCount, ...nodes) {
  if (start > this.length) {
    start = this.length - 1
  }
  if (start < 0) {
    start = this.length + start;
  }

  for (var i = 0, walker = this.head; walker !== null && i < start; i++) {
    walker = walker.next
  }

  var ret = []
  for (var i = 0; walker && i < deleteCount; i++) {
    ret.push(walker.value)
    walker = this.removeNode(walker)
  }
  if (walker === null) {
    walker = this.tail
  }

  if (walker !== this.head && walker !== this.tail) {
    walker = walker.prev
  }

  for (var i = 0; i < nodes.length; i++) {
    walker = insert(this, walker, nodes[i])
  }
  return ret;
}

Yallist.prototype.reverse = function () {
  var head = this.head
  var tail = this.tail
  for (var walker = head; walker !== null; walker = walker.prev) {
    var p = walker.prev
    walker.prev = walker.next
    walker.next = p
  }
  this.head = tail
  this.tail = head
  return this
}

function insert (self, node, value) {
  var inserted = node === self.head ?
    new Node(value, null, node, self) :
    new Node(value, node, node.next, self)

  if (inserted.next === null) {
    self.tail = inserted
  }
  if (inserted.prev === null) {
    self.head = inserted
  }

  self.length++

  return inserted
}

function push (self, item) {
  self.tail = new Node(item, self.tail, null, self)
  if (!self.head) {
    self.head = self.tail
  }
  self.length++
}

function unshift (self, item) {
  self.head = new Node(item, null, self.head, self)
  if (!self.tail) {
    self.tail = self.head
  }
  self.length++
}

function Node (value, prev, next, list) {
  if (!(this instanceof Node)) {
    return new Node(value, prev, next, list)
  }

  this.list = list
  this.value = value

  if (prev) {
    prev.next = this
    this.prev = prev
  } else {
    this.prev = null
  }

  if (next) {
    next.prev = this
    this.next = next
  } else {
    this.next = null
  }
}

try {
  // add if support for Symbol.iterator is present
  __webpack_require__(36307)(Yallist)
} catch (er) {}


/***/ })

};
;
//# sourceMappingURL=790.index.js.map