// https://github.com/microsoft/MSR-JavaScript-Crypto
// version "1.6.5"
//*******************************************************************************
//
//    Copyright 2020 Microsoft
//
//    Licensed under the Apache License, Version 2.0 (the "License");
//    you may not use this file except in compliance with the License.
//    You may obtain a copy of the License at
//
//        http://www.apache.org/licenses/LICENSE-2.0
//
//    Unless required by applicable law or agreed to in writing, software
//    distributed under the License is distributed on an "AS IS" BASIS,
//    WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
//    See the License for the specific language governing permissions and
//    limitations under the License.
//
//*******************************************************************************
'use strict'

var msrCryptoVersion = '1.6.5'

;(function (root, factory) {
  if (typeof define === 'function' && define.amd) {
    define([], function () {
      return (root.msrCrypto = factory(root))
    })
  } else if (typeof exports === 'object') {
    module.exports = factory(root)
  } else {
    root.msrCrypto = factory(root)
  }
})(this, function (global) {
  global = global || {}

  var msrCrypto = function () {
    var operations = {}

    operations.register = function (
      operationType,
      algorithmName,
      functionToCall,
    ) {
      if (!operations[operationType]) {
        operations[operationType] = {}
      }

      var op = operations[operationType]

      if (!op[algorithmName]) {
        op[algorithmName] = functionToCall
      }
    }

    operations.exists = function (operationType, algorithmName) {
      if (!operations[operationType]) {
        return false
      }

      return operations[operationType][algorithmName] ? true : false
    }

    var scriptUrl = (function () {
      if (typeof document !== 'undefined') {
        try {
          throw new Error()
        } catch (e) {
          if (e.stack) {
            var match = /\w+:\/\/(.+?\/)*.+\.js/.exec(e.stack)
            return match && match.length > 0 ? match[0] : null
          }
        }
      } else if (
        typeof self !== 'undefined' &&
        typeof self.location !== 'undefined'
      ) {
        return self.location.href
      }

      return null
    })()

    var fprngEntropyProvided = false

    var webWorkerSupport = typeof Worker !== 'undefined'

    var runningInWorkerInstance =
      typeof importScripts === 'function' && self instanceof WorkerGlobalScope

    var workerInitialized = false

    var typedArraySupport = typeof ArrayBuffer !== 'undefined'

    var setterSupport = (function () {
      try {
        Object.defineProperty({}, 'oncomplete', {})
        return true
      } catch (ex) {
        return false
      }
    })()

    var asyncMode = false

    var createProperty = function (
      parentObject,
      propertyName,
      initialValue,
      getterFunction,
      setterFunction,
    ) {
      if (!setterSupport) {
        parentObject[propertyName] = initialValue
        return
      }

      var setGet = {}

      getterFunction && (setGet.get = getterFunction)
      setterFunction && (setGet.set = setterFunction)

      Object.defineProperty(parentObject, propertyName, setGet)
    }

    var msrcryptoHashFunctions = {}

    var msrcryptoUtilities = (function () {
      var encodingChars =
        'ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefghijklmnopqrstuvwxyz0123456789+/='

      function consoleLog(text) {
        if ('console' in self && 'log' in console) {
          console.log(text)
        }
      }

      function toBase64(data, base64Url) {
        var dataType = getObjectType(data)

        if (
          dataType !== 'Array' &&
          dataType !== 'Uint8Array' &&
          dataType !== 'ArrayBuffer'
        ) {
          throw new Error('invalid input')
        }

        var output = ''
        var input = toArray(data)

        if (!base64Url) {
          base64Url = false
        }

        var char1, char2, char3, enc1, enc2, enc3, enc4
        var i

        for (i = 0; i < input.length; i += 3) {
          char1 = input[i]
          char2 = input[i + 1]
          char3 = input[i + 2]

          enc1 = char1 >> 2
          enc2 = ((char1 & 0x3) << 4) | (char2 >> 4)
          enc3 = ((char2 & 0xf) << 2) | (char3 >> 6)
          enc4 = char3 & 0x3f

          if (isNaN(char2)) {
            enc3 = enc4 = 64
          } else if (isNaN(char3)) {
            enc4 = 64
          }

          output =
            output +
            encodingChars.charAt(enc1) +
            encodingChars.charAt(enc2) +
            encodingChars.charAt(enc3) +
            encodingChars.charAt(enc4)
        }

        if (base64Url) {
          return output
            .replace(/\+/g, '-')
            .replace(/\//g, '_')
            .replace(/\=/g, '')
        }

        return output
      }

      function base64ToBytes(encodedString) {
        encodedString = encodedString.replace(/-/g, '+').replace(/_/g, '/')

        while (encodedString.length % 4 !== 0) {
          encodedString += '='
        }

        var output = []
        var char1, char2, char3
        var enc1, enc2, enc3, enc4
        var i

        encodedString = encodedString.replace(/[^A-Za-z0-9\+\/\=]/g, '')

        for (i = 0; i < encodedString.length; i += 4) {
          enc1 = encodingChars.indexOf(encodedString.charAt(i))
          enc2 = encodingChars.indexOf(encodedString.charAt(i + 1))
          enc3 = encodingChars.indexOf(encodedString.charAt(i + 2))
          enc4 = encodingChars.indexOf(encodedString.charAt(i + 3))

          char1 = (enc1 << 2) | (enc2 >> 4)
          char2 = ((enc2 & 15) << 4) | (enc3 >> 2)
          char3 = ((enc3 & 3) << 6) | enc4

          output.push(char1)

          if (enc3 !== 64) {
            output.push(char2)
          }

          if (enc4 !== 64) {
            output.push(char3)
          }
        }

        return output
      }

      function getObjectType(object) {
        return Object.prototype.toString.call(object).slice(8, -1)
      }

      function bytesToHexString(bytes, separate) {
        var result = ''
        if (typeof separate === 'undefined') {
          separate = false
        }

        for (var i = 0; i < bytes.length; i++) {
          if (separate && i % 4 === 0 && i !== 0) {
            result += '-'
          }

          var hexval = bytes[i].toString(16).toUpperCase()
          if (hexval.length === 1) {
            result += '0'
          }

          result += hexval
        }

        return result
      }

      function bytesToInt32(bytes, index) {
        index = index || 0

        return (
          (bytes[index] << 24) |
          (bytes[index + 1] << 16) |
          (bytes[index + 2] << 8) |
          bytes[index + 3]
        )
      }

      function hexToBytesArray(hexString) {
        hexString = hexString.replace(/\-/g, '')

        var result = []
        while (hexString.length >= 2) {
          result.push(parseInt(hexString.substring(0, 2), 16))
          hexString = hexString.substring(2, hexString.length)
        }

        return result
      }

      function clone(object) {
        var newObject = {}
        for (var propertyName in object) {
          if (object.hasOwnProperty(propertyName)) {
            newObject[propertyName] = object[propertyName]
          }
        }
        return newObject
      }

      function unpackData(base64String, arraySize, toUint32s) {
        var bytes = base64ToBytes(base64String),
          data = [],
          i

        if (isNaN(arraySize)) {
          return bytes
        } else {
          for (i = 0; i < bytes.length; i += arraySize) {
            data.push(bytes.slice(i, i + arraySize))
          }
        }

        if (toUint32s) {
          for (i = 0; i < data.length; i++) {
            data[i] =
              (data[i][0] << 24) +
              (data[i][1] << 16) +
              (data[i][2] << 8) +
              data[i][3]
          }
        }

        return data
      }

      function int32ToBytes(int32) {
        return [
          (int32 >>> 24) & 255,
          (int32 >>> 16) & 255,
          (int32 >>> 8) & 255,
          int32 & 255,
        ]
      }

      function int32ArrayToBytes(int32Array) {
        var result = []
        for (var i = 0; i < int32Array.length; i++) {
          result = result.concat(int32ToBytes(int32Array[i]))
        }
        return result
      }

      function xorVectors(a, b, res) {
        var length = Math.min(a.length, b.length),
          res = res || new Array(length)
        for (var i = 0; i < length; i += 1) {
          res[i] = a[i] ^ b[i]
        }
        return res
      }

      function getVector(length, fillValue) {
        if (isNaN(fillValue)) {
          fillValue = 0
        }

        var res = new Array(length)
        for (var i = 0; i < length; i += 1) {
          res[i] = fillValue
        }
        return res
      }

      function toArray(typedArray) {
        if (!typedArray) {
          return []
        }

        if (typedArray.pop) {
          return typedArray
        }

        if (getObjectType(typedArray) === 'ArrayBuffer') {
          typedArray = new Uint8Array(typedArray)
        } else if (typedArray.BYTES_PER_ELEMENT > 1) {
          typedArray = new Uint8Array(typedArray.buffer)
        }

        if (typedArray.length === 1) {
          return [typedArray[0]]
        }

        if (typedArray.length < 65536) {
          return Array.apply(null, typedArray)
        }

        var returnArray = new Array(typedArray.length)
        for (var i = 0; i < typedArray.length; i++) {
          returnArray[i] = typedArray[i]
        }

        return returnArray
      }

      function padEnd(array, value, finalLength) {
        while (array.length < finalLength) {
          array.push(value)
        }

        return array
      }

      function padFront(array, value, finalLength) {
        while (array.length < finalLength) {
          array.unshift(value)
        }

        return array
      }

      function arraysEqual(array1, array2) {
        var result = true

        if (array1.length !== array2.length) {
          result = false
        }

        for (var i = 0; i < array1.length; i++) {
          if (array1[i] !== array2[i]) {
            result = false
          }
        }

        return result
      }

      function verifyByteArray(array) {
        if (getObjectType(array) !== 'Array') {
          return false
        }

        var element

        for (var i = 0; i < array.length; i++) {
          element = array[i]

          if (isNaN(element) || element < 0 || element > 255) {
            return false
          }
        }

        return true
      }

      function checkParam(param, type, errorMessage) {
        if (!param) {
          throw new Error(errorMessage)
        }

        if (type && getObjectType(param) !== type) {
          throw new Error(errorMessage)
        }

        return true
      }

      function stringToBytes(text) {
        var encodedBytes = []

        for (var i = 0, j = 0; i < text.length; i++) {
          var charCode = text.charCodeAt(i)

          if (charCode < 128) {
            encodedBytes[j++] = charCode
          } else if (charCode < 2048) {
            encodedBytes[j++] = (charCode >>> 6) | 192
            encodedBytes[j++] = (charCode & 63) | 128
          } else if (charCode < 0xd800 || charCode > 0xdfff) {
            encodedBytes[j++] = (charCode >>> 12) | 224
            encodedBytes[j++] = ((charCode >>> 6) & 63) | 128
            encodedBytes[j++] = (charCode & 63) | 128
          } else {
            charCode =
              (charCode - 0xd800) * 0x400 +
              (text.charCodeAt(++i) - 0xdc00) +
              0x10000
            encodedBytes[j++] = (charCode >>> 18) | 240
            encodedBytes[j++] = ((charCode >>> 12) & 63) | 128
            encodedBytes[j++] = ((charCode >>> 6) & 63) | 128
            encodedBytes[j++] = (charCode & 63) | 128
          }
        }

        return encodedBytes
      }

      function bytesToString(textBytes) {
        var result = '',
          charCode

        textBytes = toArray(textBytes)

        for (var i = 0; i < textBytes.length; ) {
          var encodedChar = textBytes[i++]

          if (encodedChar < 128) {
            charCode = encodedChar
          } else if (encodedChar < 224) {
            charCode = (encodedChar << 6) + textBytes[i++] - 0x3080
          } else if (encodedChar < 240) {
            charCode =
              (encodedChar << 12) +
              (textBytes[i++] << 6) +
              textBytes[i++] -
              0xe2080
          } else {
            charCode =
              (encodedChar << 18) +
              (textBytes[i++] << 12) +
              (textBytes[i++] << 6) +
              textBytes[i++] -
              0x3c82080
          }

          if (charCode > 0xffff) {
            var surrogateHigh =
              Math.floor((charCode - 0x10000) / 0x400) + 0xd800
            var surrogateLow = ((charCode - 0x10000) % 0x400) + 0xdc00
            result += String.fromCharCode(surrogateHigh, surrogateLow)
            continue
          }

          result += String.fromCharCode(charCode)
        }

        return result
      }

      return {
        consoleLog: consoleLog,
        toBase64: toBase64,
        fromBase64: base64ToBytes,
        checkParam: checkParam,
        getObjectType: getObjectType,
        bytesToHexString: bytesToHexString,
        bytesToInt32: bytesToInt32,
        stringToBytes: stringToBytes,
        bytesToString: bytesToString,
        unpackData: unpackData,
        hexToBytesArray: hexToBytesArray,
        int32ToBytes: int32ToBytes,
        int32ArrayToBytes: int32ArrayToBytes,
        toArray: toArray,
        arraysEqual: arraysEqual,
        clone: clone,
        xorVectors: xorVectors,
        padEnd: padEnd,
        padFront: padFront,
        getVector: getVector,
        verifyByteArray: verifyByteArray,
      }
    })()

    var asn1 = (function () {
      var asn1Types = {
        0x00: 'CUSTOM',
        0x01: 'BOOLEAN',
        0x02: 'INTEGER',
        0x03: 'BIT STRING',
        0x04: 'OCTET STRING',
        0x05: 'NULL',
        0x06: 'OBJECT IDENTIFIER',
        0x10: 'SEQUENCE',
        0x11: 'SET',
        0x13: 'PRINTABLE STRING',
        0x17: 'UTCTime',
      }

      var asn1Classes = {
        0x00: 'UNIVERSAL',
        0x01: 'APPLICATION',
        0x02: 'Context-Defined',
        0x03: 'PRIVATE',
      }

      function parse(bytes, force) {
        force = !!force

        var type = asn1Types[bytes[0] & 0x1f],
          dataLen = bytes[1],
          i = 0,
          constructed = !!(bytes[0] & 0x20),
          remainder,
          child,
          header

        if (dataLen & 0x80) {
          for (i = 0, dataLen = 0; i < (bytes[1] & 127); i++) {
            dataLen = (dataLen << 8) + bytes[2 + i]
          }
        }

        header = 2 + i

        if (type === undefined || dataLen > bytes.length) {
          return null
        }

        var obj = constructed ? [] : {}

        obj.type = type
        obj.header = header
        obj.data = bytes.slice(0, dataLen + header)
        if (constructed || force) {
          if (obj.type === 'BIT STRING' && bytes[header] === 0) {
            i++
          }
          remainder = bytes.slice(header, obj.data.length)
          while (remainder.length > 0) {
            child = parse(remainder)
            if (child === null) {
              break
            }
            obj.push(child)
            remainder = remainder.slice(child.data.length)
          }
        }
        return obj
      }

      function encode(asn1tree) {
        throw new Error('not implemented')
      }

      function toString(objTree, indent) {
        var output =
          new Array(indent + 1).join(' ') +
          objTree.type +
          ' (' +
          objTree.length +
          ') ' +
          bytesToHexString(objTree.data).substring(0, 16) +
          '\n'

        if (!objTree.children) {
          return output
        }

        for (var i = 0; i < objTree.children.length; i++) {
          output += toString(objTree.children[i], indent + 4) + ''
        }

        return output
      }

      return {
        parse: parse,
        encode: encode,
        toString: function (objTree) {
          return toString(objTree, 0)
        },
      }
    })()

    var msrcryptoWorker = (function () {
      function returnResult(result) {
        if (workerInitialized && runningInWorkerInstance) {
          self.postMessage(result)
        }
        return result
      }

      var workerId, operationType, operationSubType

      return {
        jsCryptoRunner: function (e) {
          workerId = e.data.workerid
          operationType = e.data.operationType
          operationSubType = e.data.operationSubType

          var operation = e.data.operationType,
            result,
            func = operations[operation][e.data.algorithm.name],
            p = e.data

          if (!operations.exists(operation, e.data.algorithm.name)) {
            throw new Error('unregistered algorithm.')
          }

          if (p.operationSubType) {
            result = returnResult({
              type: p.operationSubType,
              result: func(p),
            })
          } else {
            result = returnResult(func(p))
          }

          return result
        },

        returnResult: returnResult,
      }
    })()

    if (runningInWorkerInstance) {
      self.onmessage = function (e) {
        if (!workerInitialized && e.data.prngSeed) {
          var entropy = e.data.prngSeed
          msrcryptoPseudoRandom.init(entropy)
          workerInitialized = true
          return msrcryptoWorker.returnResult({
            initialized: true,
          })
        }

        if (workerInitialized === true) {
          msrcryptoWorker.jsCryptoRunner(e)
        }
      }
    }

    var msrcryptoJwk = (function () {
      var utils = msrcryptoUtilities

      function stringToArray(stringData) {
        var result = []

        for (var i = 0; i < stringData.length; i++) {
          result[i] = stringData.charCodeAt(i)
        }

        if (result[result.length - 1] === 0) {
          result.pop()
        }

        return result
      }

      function getKeyType(keyHandle) {
        var algType = keyHandle.algorithm.name.slice(0, 3).toUpperCase()

        if (algType === 'RSA') {
          return 'RSA'
        }

        if (algType === 'ECD') {
          return 'EC'
        }

        return 'oct'
      }

      function hashSize(algorithm) {
        return algorithm.hash.name.substring(
          algorithm.hash.name.indexOf('-') + 1,
        )
      }

      var algorithmMap = {
        HMAC: function (algorithm) {
          return 'HS' + hashSize(algorithm)
        },

        'AES-CBC': function (algorithm) {
          return 'A' + algorithm.length.toString() + 'CBC'
        },

        'AES-GCM': function (algorithm) {
          return 'A' + algorithm.length.toString() + 'GCM'
        },

        'RSAES-PKCS1-V1_5': function (algorithm) {
          return 'RSA1_5'
        },

        'RSASSA-PKCS1-V1_5': function (algorithm) {
          return 'RS' + hashSize(algorithm)
        },

        'RSA-OAEP': function (algorithm) {
          if (algorithm.hash.name.toUpperCase() === 'SHA-1') {
            return 'RSA-OAEP'
          }
          return 'RSA-OAEP-' + hashSize(algorithm)
        },

        'RSA-PSS': function (algorithm) {
          return 'PS' + hashSize(algorithm)
        },

        ECDSA: function (algorithm) {
          return (
            'EC-' +
            algorithm.namedCurve.substring(
              algorithm.namedCurve.indexOf('-') + 1,
            )
          )
        },
      }

      function keyToJwk(keyHandle, keyData) {
        var key = {}

        key.kty = getKeyType(keyHandle)
        key.ext = keyHandle.extractable
        if (algorithmMap[keyHandle.algorithm.name.toUpperCase()]) {
          key.alg = algorithmMap[keyHandle.algorithm.name.toUpperCase()](
            keyHandle.algorithm,
          )
        }
        key.key_ops = keyHandle.usages
        if (keyData.pop) {
          key.k = utils.toBase64(keyData, true)
        } else {
          for (var property in keyData) {
            if (keyData[property].pop && property !== 'key_ops') {
              key[property] = utils.toBase64(keyData[property], true)
            }
          }
        }

        if (keyHandle.algorithm.namedCurve) {
          key.crv = keyHandle.algorithm.namedCurve
        }

        return key
      }

      function findUsage(usage, usages) {
        for (var i = 0; i < usages.length; i++) {
          if (usage.toUpperCase() === usages[i].toUpperCase()) {
            return true
          }
        }
        return false
      }

      function keyToJwkOld(keyHandle, keyData) {
        var key = {}

        key.kty = getKeyType(keyHandle)
        key.extractable = keyHandle.extractable

        if (keyData.pop) {
          key.k = utils.toBase64(keyData, true)
        } else {
          for (var property in keyData) {
            if (keyData[property].pop) {
              key[property] = utils.toBase64(keyData[property], true)
            }
          }
        }

        if (keyHandle.algorithm.namedCurve) {
          key.crv = keyHandle.algorithm.namedCurve
        }

        var stringData = JSON.stringify(key, null, '\t')

        return stringToArray(stringData)
      }

      function jwkToKey(keyData, algorithm, propsToArray) {
        var jsonKeyObject = JSON.parse(JSON.stringify(keyData))

        for (var i = 0; i < propsToArray.length; i += 1) {
          var propValue = jsonKeyObject[propsToArray[i]]
          if (propValue) {
            jsonKeyObject[propsToArray[i]] = utils.fromBase64(propValue)
          }
        }

        return jsonKeyObject
      }

      return {
        keyToJwkOld: keyToJwkOld,
        keyToJwk: keyToJwk,
        jwkToKey: jwkToKey,
      }
    })()

    function msrcryptoMath() {
      var DIGIT_BITS = 24
      var DIGIT_NUM_BYTES = Math.floor(DIGIT_BITS / 8)
      var DIGIT_MASK = (1 << DIGIT_BITS) - 1
      var DIGIT_BASE = 1 << DIGIT_BITS
      var DIGIT_MAX = DIGIT_MASK
      var DIG_INV = 1 / DIGIT_BASE
      var DIGIT_MAX_ADDS = 31

      var DIGIT_SCALER = [1, 256]
      for (var ds = 2; ds <= DIGIT_NUM_BYTES; ds++) {
        DIGIT_SCALER[ds] = DIGIT_SCALER[ds - 1] * 256
      }

      var Zero = [0]
      var One = [1]

      function createArray(parameter) {
        var i,
          array = null
        if (!arguments.length || typeof arguments[0] === 'number') {
          array = new Array(parameter)
          for (i = 0; i < parameter; i += 1) {
            array[i] = 0
          }
        } else if (typeof arguments[0] === 'object') {
          array = new Array(parameter.length)
          for (i = 0; i < parameter.length; i += 1) {
            array[i] = parameter[i]
          }
        }
        return array
      }

      function stringToDigits(numberStr, radix) {
        numberStr = numberStr.replace(/^\s+|\s+$/g, '')
        var num = [0]
        var buffer = [0]
        radix = radix || 10
        for (var i = 0; i < numberStr.length; i += 1) {
          var char = parseInt(numberStr[i], radix)
          if (isNaN(char)) {
            throw new Error(
              'Failed to convert string to integer in radix ' +
                radix.toString(),
            )
          }

          multiply(num, radix, buffer)

          add(buffer, [char], num)
          normalizeDigitArray(num)
        }

        return num
      }

      function digitsToString(digits, radix) {
        radix = radix || 10
        if (DIGIT_BASE <= radix) {
          throw new Error('DIGIT_BASE is smaller than RADIX; cannot convert.')
        }

        var wordLength = digits.length
        var quotient = []
        var remainder = []
        var temp1 = []
        var temp2 = []
        var divisor = []
        var a = []
        var i

        var sb = ''
        var pad = '0'
        divisor[0] = radix
        while (Math.floor(DIGIT_BASE / divisor[0]) >= radix) {
          divisor[0] = divisor[0] * radix
          pad = pad.concat('0')
        }

        for (i = 0; i < wordLength; i += 1) {
          a[i] = digits[i]
        }

        do {
          var allZeros = true
          for (i = 0; i < a.length; i += 1) {
            if (a[i] !== 0) {
              allZeros = false
              break
            }
          }

          if (allZeros) {
            break
          }

          divRem(a, divisor, quotient, remainder, temp1, temp2)
          normalizeDigitArray(quotient, a.length, true)

          var newDigits = remainder[0].toString(radix)
          sb = pad.substring(0, pad.length - newDigits.length) + newDigits + sb

          var swap = a
          a = quotient
          quotient = swap
        } while (true)

        while (sb.length !== 0 && sb[0] === '0') {
          sb = sb.substring(1, sb.length)
        }

        if (sb.length === 0) {
          sb = '0'
        }

        return sb
      }

      function computeBitArray(bytes) {
        var out = createArray(bytes.length * 8)
        var bitLength = 0
        var i = bytes.length - 1
        while (i >= 0) {
          var j = 0
          while (j < 8) {
            var mask = 1 << j
            var bit = (bytes[i] & mask) === mask ? 1 : 0
            var thisBitIndex = 8 * (bytes.length - i - 1) + j

            if (bit === 1) {
              bitLength = thisBitIndex + 1
            }

            out[thisBitIndex] = bit
            j += 1
          }

          i--
        }

        return out.slice(0, bitLength)
      }

      function bitScanForward(digit) {
        var index = 0

        for (var i = 0; i < DIGIT_BITS; i++) {
          index = Math.max(index, -((digit >>> i) & 1) & i)
        }

        return index
      }

      function highestSetBit(bytes) {
        var i = 0
        var bitLength = 0

        while (i < bytes.length) {
          if (bitLength === 0) {
            var j = 7
            while (j >= 0 && bitLength === 0) {
              var mask = 1 << j
              if ((bytes[i] & mask) === mask) {
                bitLength = j + 1
              }

              j--
            }
          } else {
            bitLength += 8
          }

          i += 1
        }

        return bitLength
      }

      function fixedWindowRecode(digits, windowSize, t) {
        digits = digits.slice()

        var recodedDigits = [],
          windowSizeBits = Math.pow(2, windowSize),
          windowSizeMinus1Bits = Math.pow(2, windowSize - 1)

        for (var i = 0; i < t; i++) {
          recodedDigits[i] = (digits[0] % windowSizeBits) - windowSizeMinus1Bits

          digits[0] = digits[0] - recodedDigits[i]

          cryptoMath.shiftRight(digits, digits, windowSize - 1)
        }

        recodedDigits[i] = digits[0]

        return recodedDigits
      }

      function fixedWindowRecode2(digits, windowSize) {
        var digLen = digits.length,
          bits = new Array(digLen * DIGIT_BITS),
          i = 0,
          j = 0,
          k = 0,
          r = 0,
          dig,
          result = new Array(Math.ceil((digLen * DIGIT_BITS) / windowSize))

        for (k = 0, result[0] = 0; i < digLen; i++) {
          for (j = 0, dig = digits[i]; j < DIGIT_BITS; j++, dig >>>= 1) {
            if (k === windowSize) {
              result[++r] = 0
              k = 0
            }
            result[r] += (dig & 1) << k++
          }
        }

        return result
      }

      function fetchBits(digits, startBit, count) {
        var startDigit = Math.floor(startBit / cryptoMath.DIGIT_BITS)
        var endDigit = startDigit + 1

        var shiftRight = startBit % cryptoMath.DIGIT_BITS
        var shiftLeft = cryptoMath.DIGIT_BITS - shiftRight

        var bits =
          (digits[startDigit] >>> shiftRight) | (digits[endDigit] << shiftLeft)

        return (
          bits & (cryptoMath.DIGIT_MASK >>> (cryptoMath.DIGIT_BITS - count))
        )
      }

      function fetchBits2(digits, startBit, count) {
        var startDigit = Math.floor(startBit / DIGIT_BITS),
          shiftRight = startBit % DIGIT_BITS

        return (
          (digits[startDigit] >>> shiftRight) |
          ((digits[startDigit + 1] << (DIGIT_BITS - shiftRight)) &
            (DIGIT_MASK >>> (DIGIT_BITS - count)))
        )
      }

      function copyArray(source, sourceIndex, destination, destIndex, length) {
        while (length-- > 0) {
          destination[destIndex + length] = source[sourceIndex + length]
        }
      }

      function isZero(array) {
        var i,
          result = 0

        for (i = 0; i < array.length; i += 1) {
          result = result | array[i]
        }
        return !result
      }

      function isEven(array) {
        return (array[0] & 0x1) === 0x0
      }

      function sequenceEqual(left, right) {
        var equal = left.length === right.length

        for (var i = 0; i < Math.min(left.length, right.length); i += 1) {
          if (left[i] !== right[i]) {
            equal = false
          }
        }

        return equal
      }

      function bytesToDigits(bytes) {
        var arrayLength = Math.floor(
          (bytes.length + DIGIT_NUM_BYTES - 1) / DIGIT_NUM_BYTES,
        )
        var array = new Array(arrayLength)
        array[0] = 0
        var digit = 0,
          index = 0,
          scIndex = 0
        for (var i = bytes.length - 1; i >= 0; i--) {
          digit = digit + DIGIT_SCALER[scIndex++] * (bytes[i] & 0x0ff)
          if (DIGIT_SCALER[scIndex] === DIGIT_BASE) {
            scIndex = 0
            array[index++] = digit
            digit = 0
          }
        }

        if (digit !== 0) {
          array[index] = digit
        }

        while (array[--arrayLength] == null) {
          array[arrayLength] = 0
        }

        return array
      }

      function digitsToBytes(digits, trim, minTrimLength) {
        var i, j, byte1
        var bytes = [0]

        if (typeof trim === 'undefined') {
          trim = true
        }

        for (i = 0; i < digits.length; i += 1) {
          byte1 = digits[i]
          for (j = 0; j < DIGIT_NUM_BYTES; j += 1) {
            bytes[i * DIGIT_NUM_BYTES + j] = byte1 & 0x0ff
            byte1 = Math.floor(byte1 / 256)
          }
        }

        bytes.reverse()

        if (minTrimLength === undefined) {
          minTrimLength = 1
        }
        if (trim) {
          while (bytes.length > minTrimLength && bytes[0] === 0) {
            bytes.shift()
          }
        }

        return bytes
      }

      function intToDigits(value, numDigits) {
        if (typeof numDigits === 'undefined') {
          if (value <= 1) {
            numDigits = 1
          } else {
            var numBits = Math.log(value) / Math.LN2
            numDigits = Math.ceil(numBits / DIGIT_BITS)
          }
        }

        var digitRepresentation = []
        while (value > 0) {
          digitRepresentation.push(value % DIGIT_BASE)
          value = Math.floor(value / DIGIT_BASE)
        }

        while (digitRepresentation.length < numDigits) {
          digitRepresentation.push(0)
        }

        return digitRepresentation
      }

      function mswIndex(digits) {
        for (var i = digits.length - 1; i >= 0; i--) {
          if (digits[i] !== undefined && digits[i] !== 0) {
            return i
          }
        }

        return digits[0] === 0 ? -1 : 0
      }

      function compareDigits(left, right) {
        var result = 0,
          val,
          i

        for (i = 0; i < Math.max(left.length, right.length); i++) {
          val = ~~left[i] - ~~right[i]
          result = val + (result & -!val)
        }

        return result
      }

      function normalizeDigitArray(digits, length, pad) {
        var i = mswIndex(digits)

        digits.length = length || i + 1

        if (pad) {
          while (++i < digits.length) {
            digits[i] = 0
          }
        }

        if (digits.length <= 0) {
          digits[0] = 0
          digits.length = 1
        }

        return digits
      }

      function shiftRight(source, destination, bits, length) {
        if (bits === undefined) {
          bits = 1
        } else if (bits >= DIGIT_BITS || bits < 0) {
          throw new Error('Invalid bit count for shiftRight')
        }
        if (length === undefined) {
          length = source.length
        }

        var n = length - 1
        var leftShiftBitCount = DIGIT_BITS - bits
        for (var i = 0; i < n; i++) {
          destination[i] =
            ((source[i + 1] << leftShiftBitCount) | (source[i] >>> bits)) &
            DIGIT_MASK
        }

        destination[n] = source[n] >>> bits
      }

      function shiftLeft(source, destination, bits, length) {
        if (bits === undefined) {
          bits = 1
        } else if (bits >= DIGIT_BITS || bits < 0) {
          throw new Error(
            'bit count must be smaller than DIGIT_BITS and positive in shiftLeft',
          )
        }
        if (length === undefined) {
          length = source.length
        }

        var rightShiftBitCount = DIGIT_BITS - bits
        destination[length] =
          source[length - 1] >>> (DIGIT_BITS - bits) || destination[length]
        for (var i = length - 1; i > 0; i--) {
          destination[i] =
            ((source[i] << bits) | (source[i - 1] >>> rightShiftBitCount)) &
            DIGIT_MASK
        }

        destination[0] = (source[0] << bits) & DIGIT_MASK
      }

      function add(addend1, addend2, sum) {
        var shortArray = addend1
        var longArray = addend2
        if (addend2.length < addend1.length) {
          shortArray = addend2
          longArray = addend1
        }

        var s = shortArray.length
        var carry = 0
        var i

        for (i = 0; i < s; i += 1) {
          carry += shortArray[i] + longArray[i]
          sum[i] = carry & DIGIT_MASK
          carry = carry >> DIGIT_BITS
        }

        for (i = s; i < longArray.length; i += 1) {
          carry += longArray[i]
          sum[i] = carry & DIGIT_MASK
          carry = carry >> DIGIT_BITS
        }

        sum.length = longArray.length

        if (carry !== 0) {
          sum[i] = carry & DIGIT_MASK
        }

        return carry
      }

      function subtract(minuend, subtrahend, difference) {
        var s = subtrahend.length
        if (minuend.length < subtrahend.length) {
          s = mswIndex(subtrahend) + 1
          if (minuend.length < s) {
            throw new Error('Subtrahend is longer than minuend, not supported.')
          }
        }
        var i,
          carry = 0
        for (i = 0; i < s; i += 1) {
          carry += minuend[i] - subtrahend[i]
          difference[i] = carry & DIGIT_MASK
          carry = carry >> DIGIT_BITS
        }

        while (i < minuend.length) {
          carry += minuend[i]
          difference[i++] = carry & DIGIT_MASK
          carry = carry >> DIGIT_BITS
        }

        return carry
      }

      function multiply(a, b, p) {
        b = typeof b === 'number' ? [b] : b

        var i,
          j,
          k,
          l,
          c,
          t1,
          t2,
          alen = a.length,
          blen = b.length,
          bi

        for (i = 0; i < alen + blen; i += 1) {
          p[i] = 0
        }

        i = 0
        l = 0

        var maxRounds = 31
        var ks = 0

        while (i < blen) {
          l = Math.min(l + maxRounds, blen)

          for (; i < l; i++) {
            bi = b[i]
            for (j = 0; j < alen; j++) {
              p[i + j] += a[j] * bi
            }
          }

          c = 0
          for (k = ks; k < i + alen; k++) {
            t1 = p[k] + c
            t2 = t1 & DIGIT_MASK
            p[k] = t2
            c = (t1 - t2) * DIG_INV
          }
          p[k] = c

          ks += maxRounds
        }

        p.length = alen + blen

        return p
      }

      function divRem(dividend, divisor, quotient, remainder, temp1, temp2) {
        var m = mswIndex(dividend) + 1
        var n = mswIndex(divisor) + 1
        var qhat, rhat, carry, p, t, i, j

        if (m < n) {
          copyArray(dividend, 0, remainder, 0, dividend.length)
          remainder.length = dividend.length
          normalizeDigitArray(remainder)
          quotient[0] = 0
          quotient.length = 1
          return
        } else if (n === 0 || (n === 1 && divisor[n - 1] === 0)) {
          throw new Error('Division by zero.')
        } else if (n === 1) {
          t = divisor[0]
          rhat = 0
          for (j = m - 1; j >= 0; j--) {
            p = rhat * DIGIT_BASE + dividend[j]
            quotient[j] = (p / t) & DIGIT_MASK
            rhat = (p - quotient[j] * t) & DIGIT_MASK
          }
          quotient.length = m
          normalizeDigitArray(quotient)
          remainder[0] = rhat
          remainder.length = 1
          return
        }

        var s = DIGIT_BITS - 1 - bitScanForward(divisor[n - 1])
        var vn = temp1 || []
        vn.length = n
        shiftLeft(divisor, vn, s, n)

        var un = temp2 || []
        un.length = m
        shiftLeft(dividend, un, s, m)
        un[m] = un[m] || 0

        quotient.length = m - n + 1
        remainder.length = n
        for (j = m - n; j >= 0; j--) {
          qhat = Math.floor(
            (un[j + n] * DIGIT_BASE + un[j + n - 1]) / vn[n - 1],
          )
          rhat = un[j + n] * DIGIT_BASE + un[j + n - 1] - qhat * vn[n - 1]

          while (true) {
            if (
              qhat >= DIGIT_BASE ||
              qhat * vn[n - 2] > rhat * DIGIT_BASE + un[j + n - 2]
            ) {
              qhat = qhat - 1
              rhat = rhat + vn[n - 1]
              if (rhat < DIGIT_BASE) {
                continue
              }
            }

            break
          }

          carry = 0
          for (i = 0; i < n; i++) {
            p = qhat * vn[i]
            t = un[i + j] - carry - (p & DIGIT_MASK)
            un[i + j] = t & DIGIT_MASK
            carry = Math.floor(p / DIGIT_BASE) - Math.floor(t / DIGIT_BASE)
          }

          t = un[j + n] - carry
          un[j + n] = t & DIGIT_MASK

          quotient[j] = qhat & DIGIT_MASK

          if (t < 0) {
            quotient[j] = quotient[j] - 1

            carry = 0
            for (i = 0; i < n; i++) {
              t = un[i + j] + vn[i] + carry
              un[i + j] = t & DIGIT_MASK
              carry = t >> DIGIT_BITS
            }
            un[j + n] = (un[j + n] + carry) & DIGIT_MASK
          }
        }

        for (i = 0; i < n; i++) {
          remainder[i] =
            ((un[i] >>> s) | (un[i + 1] << (DIGIT_BITS - s))) & DIGIT_MASK
        }

        normalizeDigitArray(quotient)
        normalizeDigitArray(remainder)
      }

      function reduce(number, modulus, remainder, temp1, temp2) {
        var quotient = []
        divRem(number, modulus, quotient, remainder, temp1, temp2)

        return remainder
      }

      function modMul(
        multiplicand,
        multiplier,
        modulus,
        product,
        temp1,
        temp2,
      ) {
        var quotient = []
        multiply(multiplicand, multiplier, quotient)
        divRem(quotient, modulus, quotient, product, temp1, temp2)

        return product
      }

      function eea(a, b, upp, vpp, rpp) {
        var rp
        if (isZero(a)) {
          copyArray(b, 0, rpp, 0, b.length)
          rpp.length = b.length
          return 0
        } else if (isZero(b)) {
          copyArray(a, 0, rpp, 0, a.length)
          rpp.length = a.length
          return 0
        } else if (compareDigits(a, b) < 0) {
          rp = a.slice(0)
          copyArray(b, 0, rpp, 0, b.length)
          rpp.length = b.length
        } else {
          rp = b.slice(0)
          copyArray(a, 0, rpp, 0, a.length)
          rpp.length = a.length
        }

        normalizeDigitArray(rpp)
        normalizeDigitArray(rp)
        var q = new Array(rpp.length)
        var r = new Array(rpp.length)

        var v = new Array(rpp.length)
        var vppPresent = vpp !== undefined
        var vp
        if (vppPresent) {
          vp = new Array(rpp.length)
          vp[0] = 1
          vp.length = 1
          vpp[0] = 0
          vpp.length = 1
        }

        var up
        var u = new Array(rpp.length)
        var uppPresent = upp !== undefined
        if (uppPresent) {
          up = new Array(rpp.length)
          up[0] = 0
          up.length = 1
          upp[0] = 1
          upp.length = 1
        }

        var k = -1

        var upp_out = upp
        var vpp_out = vpp
        var rpp_out = rpp
        var save

        while (!isZero(rp)) {
          divRem(rpp, rp, q, r, u, v)

          if (uppPresent) {
            multiply(q, up, u)
            add(u, upp, u)
            normalizeDigitArray(u)
            save = upp
            upp = up
            up = u
            u = save
          }

          if (vppPresent) {
            multiply(q, vp, v)
            add(v, vpp, v)
            normalizeDigitArray(v)
            save = vpp
            vpp = vp
            vp = v
            v = save
          }

          save = rpp
          rpp = rp
          rp = r
          r = save

          k++
        }

        if (uppPresent) {
          copyArray(upp, 0, upp_out, 0, upp.length)
          upp_out.length = upp.length
        }
        if (vppPresent) {
          copyArray(vpp, 0, vpp_out, 0, vpp.length)
          vpp_out.length = vpp.length
        }
        copyArray(rpp, 0, rpp_out, 0, rpp.length)
        rpp_out.length = rpp.length

        return k
      }

      function gcd(a, b, output) {
        var aa = a
        var bb = b
        if (compareDigits(a, b) > 0) {
          aa = b
          bb = a
        }

        eea(aa, bb, undefined, undefined, output)
        return normalizeDigitArray(output)
      }

      function modInv(a, n, aInv, pad) {
        var upp = new Array(n.length)
        var vpp = new Array(n.length)
        var rpp = new Array(n.length)
        var k = eea(a, n, vpp, upp, rpp)

        aInv = aInv || []
        if (compareDigits(rpp, One) !== 0) {
          aInv[0] = NaN
          aInv.length = 1
        } else {
          if ((k & 1) === 1) {
            subtract(n, upp, aInv)
          } else {
            copyArray(upp, 0, aInv, 0, upp.length)
            aInv.length = upp.length
          }
          if (pad) {
            normalizeDigitArray(aInv, n.length, true)
          } else {
            normalizeDigitArray(aInv)
          }
        }

        return aInv
      }

      function modInvCT(a, n, aInv, pad) {
        var nMinus2 = []
        aInv = aInv || []
        subtract(n, [2], nMinus2)
        modExp(a, nMinus2, n, aInv)
        normalizeDigitArray(aInv)
        return aInv
      }

      function modExp(base, exponent, modulus, result) {
        result = result || []

        if (compareDigits(exponent, Zero) === 0) {
          result[0] = 1
        } else if (compareDigits(exponent, One) === 0) {
          copyArray(base, 0, result, 0, base.length)
          result.length = base.length
        } else {
          var montmul = new MontgomeryMultiplier(modulus)
          normalizeDigitArray(base, montmul.s, true)
          montmul.modExp(base, exponent, result)
          result.length = modulus.length
        }

        return result
      }

      function MontgomeryMultiplier(modulus, context) {
        function computeM0Prime(m0) {
          var m0Pr = 1
          var a = 2
          var b = 3
          var c = b & m0

          for (var i = 2; i <= DIGIT_BITS; i += 1) {
            if (a < c) {
              m0Pr += a
            }

            a = a << 1
            b = (b << 1) | 1
            c = (m0 * m0Pr) & b
          }

          var result = (~m0Pr & DIGIT_MASK) + 1
          return result
        }

        function montgomeryReduction(t, m, result) {
          var m0 = m[0]
          var mPrime = computeM0Prime(m0)
          var n = m.length
          var A = t.slice(0)
          var ui = []
          var uimbi = []
          var uim = []
          var bi = [1]

          for (var i = 0; i < n; i++) {
            ui = (A[i] * mPrime) % DIGIT_BASE

            multiply(m, [ui], uim)
            multiply(uim, bi, uimbi)

            add(A, uimbi, A)

            bi.unshift(0)
          }

          A = A.slice(n)
          for (i = 0; i < A.length; i++) {
            result[i] = A[i]
          }
        }

        function montgomeryMultiply(multiplicand, multiplier, result, ctx) {
          ctx = ctx || this

          var m = ctx.m,
            s = m.length,
            mPrime = ctx.mPrime,
            m0 = ctx.m0,
            rightI,
            r0,
            q,
            i = 0,
            j,
            jm1,
            t1,
            t2,
            carry,
            rounds = 0

          var temp = createArray(s + 2)

          while (i < s) {
            rounds = Math.min(s, rounds + 16)

            for (; i < rounds; ) {
              rightI = ~~multiplier[i]

              r0 = temp[0] + multiplicand[0] * rightI

              q = ((r0 & DIGIT_MASK) * mPrime) & DIGIT_MASK

              temp[1] += ((m0 * q + r0) * DIG_INV) | 0

              for (j = 1, jm1 = 0; j < s; jm1 = j, j += 1) {
                temp[jm1] = temp[j] + m[j] * q + multiplicand[j] * rightI
              }
              temp[jm1] = temp[j]
              temp[j] = 0

              i++
            }

            carry = 0
            for (j = 0; j < s; j++) {
              t1 = temp[j] + carry
              t2 = t1 & DIGIT_MASK
              temp[j] = t2
              carry = (t1 - t2) * DIG_INV
            }
            temp[j] = carry
          }

          for (i = 0; i < s; i += 1) {
            result[i] = temp[i]
          }
          result.length = s

          var needSubtract = +(cryptoMath.compareDigits(temp, m) > 0)
          cryptoMath.subtract(result, m, ctx.temp2)

          ctSetArray(needSubtract, result, ctx.temp2)

          return
        }

        function convertToMontgomeryForm(digits) {
          if (digits.length < this.s) {
            digits.length = this.s
            for (var i = 0; i < this.s; i++) {
              digits[i] = isNaN(digits[i]) ? 0 : digits[i]
            }
          }

          var result = createArray(digits.length)

          this.montgomeryMultiply(digits, this.rSquaredModm, result)
          for (i = 0; i < this.s; i += 1) {
            digits[i] = result[i]
          }
        }

        function convertToStandardForm(digits) {
          this.montgomeryMultiply(digits, this.one, this.temp1)
          for (var i = 0; i < this.s; i += 1) {
            digits[i] = this.temp1[i]
          }
        }

        function optimalWindowSize(length) {
          var i = 2,
            t1,
            t0,
            bits = length * DIGIT_BITS

          t0 = 4 + Math.ceil(bits / 2) * 3 + 1
          do {
            i++
            t1 = t0
            t0 = Math.pow(2, i) + Math.ceil(bits / i) * (i + 1) + 1
          } while (t0 < t1)

          return i - 1
        }

        function modExp(base, exponent, result, skipSideChannel) {
          skipSideChannel = !!skipSideChannel

          var windowBits = optimalWindowSize(exponent.length)

          var i,
            j,
            expBits = fixedWindowRecode2(exponent, windowBits).reverse(),
            partialResult = this.rModM.slice(0),
            baseTableLen = Math.pow(2, windowBits),
            bt = baseTable

          bt.length = baseTableLen
          bt[0] = this.rModM
          for (i = 1; i < baseTableLen; i++) {
            bt[i] = []
            multiply(bt[i - 1], base, bt[i])
            this.reduce(bt[i])
          }

          var tableVal = []
          var exp

          for (i = 0; i < expBits.length; i++) {
            for (j = 0; j < windowBits; j++) {
              this.montgomeryMultiply(
                partialResult,
                partialResult,
                partialResult,
              )
            }

            exp = expBits[i]

            skipSideChannel
              ? (tableVal = bt[exp])
              : getTableEntry(bt, exp, tableVal)

            this.montgomeryMultiply(partialResult, tableVal, partialResult)
          }

          this.montgomeryMultiply(partialResult, this.one, result)

          return result
        }

        function getTableEntry(bt, exp, tableVal) {
          var z, t, mask, tableEntry, k
          for (z = 0; z < bt[0].length; z++) {
            tableVal[z] = 0
          }
          for (t = 0; t < bt.length; t++) {
            tableEntry = bt[t]
            mask = -(exp === t)
            for (k = 0; k < tableEntry.length; k++) {
              tableVal[k] = tableVal[k] | (tableEntry[k] & mask)
            }
          }
        }

        function ctSetArray(condition, a, b) {
          var bMask = -condition
          var aMask = ~bMask

          for (var i = 0; i < a.length; i++) {
            a[i] = (a[i] & aMask) | (b[i] & bMask)
          }
        }

        function reduce(x, result) {
          var k = this.m.length,
            q1,
            q2,
            q3,
            r1,
            r2,
            i,
            needSubtract,
            temp = []

          result = result || x

          q1 = x.slice(k - 1)
          q2 = []
          multiply(q1, this.mu, q2)
          q3 = q2.slice(k + 1)

          r1 = x.slice(0, k + 1)
          r2 = []
          multiply(q3, m, r2)
          r2 = r2.slice(0, k + 1)

          r1[k + 1] = compareDigits(r1, r2) >>> 31

          for (i = 0; i < result.length; i++) {
            result[i] = 0
          }
          subtract(r1, r2, result)

          needSubtract = +(compareDigits(result, m) > 0)
          cryptoMath.subtract(result, m, temp)
          ctSetArray(needSubtract, result, temp)

          normalizeDigitArray(result)

          return
        }

        function computeContext(modulus) {
          var s = modulus.length

          var m0 = modulus[0]

          var ctx = {
            m: modulus,
            mPrime: computeM0Prime(m0),
            m0: m0,
            temp1: createArray(2 * s + 1),
            temp2: createArray(2 * s + 1),
          }

          var R = createArray(modulus.length * 2)
          R[R.length] = 1
          ctx.mu = []
          divRem(R, modulus, ctx.mu, [])

          var quotient = createArray(2 * s + 1)
          var rRemainder = createArray(s + 1)
          var temp1 = createArray(2 * s + 1)
          var temp2 = createArray(2 * s + 1)
          var rDigits = rRemainder
          rDigits[s] = 1
          divRem(rDigits, modulus, quotient, rRemainder, temp1, temp2)
          ctx.rModM = normalizeDigitArray(rRemainder, s, true)

          var rSquaredModm = createArray(2 * s + 1)
          var rSquaredDigits = rSquaredModm
          rSquaredDigits[s * 2] = 1
          divRem(rSquaredDigits, modulus, quotient, rSquaredModm, temp1, temp2)
          ctx.rSquaredModm = normalizeDigitArray(rSquaredModm, s, true)

          ctx.rCubedModm = createArray(s)
          montgomeryMultiply(rSquaredModm, rSquaredModm, ctx.rCubedModm, ctx)

          return ctx
        }

        context = context || computeContext(modulus)

        var m = context.m

        var mu = context.mu

        var m0 = context.m0

        var s = m.length

        var zeros = createArray(s + 1)

        var one = zeros.slice(0, s)
        one[0] = 1

        var mPrime = context.mPrime

        var rModM = context.rModM

        var rSquaredModm = context.rSquaredModm

        var rCubedModm = context.rCubedModm

        var temp1 = createArray(2 * s + 1)
        var temp2 = createArray(2 * s + 1)

        var baseTable = new Array(4)
        baseTable[0] = rModM
        baseTable[1] = new Array(s)
        baseTable[2] = new Array(s)
        baseTable[3] = new Array(s)

        return {
          m: m,

          m0: m0,

          mPrime: mPrime,
          mu: mu,

          rSquaredModm: rSquaredModm,
          s: s,
          rModM: rModM,
          rCubedModm: rCubedModm,
          one: one,
          temp1: temp1,
          temp2: temp2,

          convertToMontgomeryForm: convertToMontgomeryForm,
          convertToStandardForm: convertToStandardForm,
          montgomeryMultiply: montgomeryMultiply,
          modExp: modExp,
          reduce: reduce,

          ctx: context,
        }
      }

      function IntegerGroup(modulusBytes) {
        var m_modulus = bytesToDigits(modulusBytes)

        var m_digitWidth = m_modulus.length

        var m_zero = intToDigits(0, m_digitWidth)
        var m_one = intToDigits(1, m_digitWidth)

        var temp0 = createArray(m_digitWidth)
        var temp1 = createArray(m_digitWidth)

        var montmul = new MontgomeryMultiplier(m_modulus)

        function createElementFromBytes(bytes) {
          var digits = bytesToDigits(bytes)

          if (cryptoMath.compareDigits(digits, this.m_modulus) >= 0) {
            throw new Error(
              'The number provided is not an element of this group',
            )
          }

          normalizeDigitArray(digits, this.m_digitWidth, true)
          return integerGroupElement(digits, this)
        }

        function createElementFromInteger(integer) {
          var digits = intToDigits(integer, this.m_digitWidth)
          return integerGroupElement(digits, this)
        }

        function createElementFromDigits(digits) {
          cryptoMath.normalizeDigitArray(digits, this.m_digitWidth, true)
          return integerGroupElement(digits, this)
        }

        function equals(otherGroup) {
          return compareDigits(this.m_modulus, otherGroup.m_modulus) === 0
        }

        function add(addend1, addend2, sum) {
          var i
          var s = this.m_digitWidth
          var result = sum.m_digits
          cryptoMath.add(addend1.m_digits, addend2.m_digits, result)
          var mask =
            ((compareDigits(result, this.m_modulus) >>> 31) - 1) & DIGIT_MASK

          var carry = 0
          for (i = 0; i < s; i += 1) {
            carry = result[i] - (this.m_modulus[i] & mask) + carry
            result[i] = carry & DIGIT_MASK
            carry = carry >> DIGIT_BITS
          }

          result.length = s
        }

        function subtract(leftElement, rightElement, outputElement) {
          var i,
            s = this.m_digitWidth
          var result = outputElement.m_digits
          var carry = cryptoMath.subtract(
            leftElement.m_digits,
            rightElement.m_digits,
            outputElement.m_digits,
          )

          if (carry === -1) {
            carry = 0
            for (i = 0; i < s; i += 1) {
              carry += result[i] + this.m_modulus[i]
              result[i] = carry & DIGIT_MASK
              carry = carry >> DIGIT_BITS
            }
          }
        }

        function inverse(element, outputElement) {
          cryptoMath.modInv(
            element.m_digits,
            this.m_modulus,
            outputElement.m_digits,
          )
        }

        function multiply(multiplicand, multiplier, product) {
          return cryptoMath.modMul(
            multiplicand.m_digits,
            multiplier.m_digits,
            this.m_modulus,
            product.m_digits,
            temp0,
            temp1,
          )
        }

        function modexp(valueElement, exponent, outputElement) {
          outputElement = outputElement || integerGroupElement([], this)

          if (compareDigits(exponent, m_zero) === 0) {
            outputElement.m_digits = intToDigits(1, this.m_digitWidth)
          } else if (compareDigits(exponent, m_one) === 0) {
            for (var i = 0; i < valueElement.m_digits.length; i++) {
              outputElement.m_digits[i] = valueElement.m_digits[i]
            }
            outputElement.m_digits.length = valueElement.m_digits.length
          } else {
            this.montmul.modExp(
              valueElement.m_digits,
              exponent,
              outputElement.m_digits,
            )
            outputElement.m_digits.length = this.montmul.s
          }

          return outputElement
        }

        function integerGroupElement(digits, group) {
          return {
            m_digits: digits,
            m_group: group,

            equals: function (element) {
              return (
                compareDigits(this.m_digits, element.m_digits) === 0 &&
                this.m_group.equals(this.m_group, element.m_group)
              )
            },
          }
        }

        return {
          m_modulus: m_modulus,
          m_digitWidth: m_digitWidth,
          montmul: montmul,

          createElementFromInteger: createElementFromInteger,
          createElementFromBytes: createElementFromBytes,
          createElementFromDigits: createElementFromDigits,
          equals: equals,
          add: add,
          subtract: subtract,
          multiply: multiply,
          inverse: inverse,
          modexp: modexp,
        }
      }

      return {
        DIGIT_BITS: DIGIT_BITS,
        DIGIT_NUM_BYTES: DIGIT_NUM_BYTES,
        DIGIT_MASK: DIGIT_MASK,
        DIGIT_BASE: DIGIT_BASE,
        DIGIT_MAX: DIGIT_MAX,
        Zero: Zero,
        One: One,

        normalizeDigitArray: normalizeDigitArray,
        bytesToDigits: bytesToDigits,
        stringToDigits: stringToDigits,
        digitsToString: digitsToString,
        intToDigits: intToDigits,
        digitsToBytes: digitsToBytes,
        isZero: isZero,
        isEven: isEven,

        shiftRight: shiftRight,
        shiftLeft: shiftLeft,
        compareDigits: compareDigits,
        bitLength: highestSetBit,

        fixedWindowRecode: fixedWindowRecode,
        IntegerGroup: IntegerGroup,

        add: add,
        subtract: subtract,
        multiply: multiply,
        divRem: divRem,
        reduce: reduce,
        modInv: modInv,
        modInvCT: modInvCT,
        modExp: modExp,
        modMul: modMul,
        MontgomeryMultiplier: MontgomeryMultiplier,
        gcd: gcd,
        sequenceEqual: sequenceEqual,
        swapEndianness: function (bytes) {
          return bytes.reverse()
        },
        computeBitArray: computeBitArray,
      }
    }

    var cryptoMath = cryptoMath || msrcryptoMath()

    function MsrcryptoECC() {
      var btd = cryptoMath.bytesToDigits

      function createArray(parameter) {
        var i,
          array = null
        if (!arguments.length || typeof arguments[0] === 'number') {
          array = []
          for (i = 0; i < parameter; i += 1) {
            array[i] = 0
          }
        } else if (typeof arguments[0] === 'object') {
          array = []
          for (i = 0; i < parameter.length; i += 1) {
            array[i] = parameter[i]
          }
        }
        return array
      }

      var EllipticCurveFp = function (p1, a1, b1, order, gx, gy) {
        var fieldStorageBitLength = p1.length

        var generator = EllipticCurvePointFp(this, false, gx, gy, null, false)

        return {
          p: p1,
          a: a1,
          b: b1,
          order: order,
          generator: generator,
          allocatePointStorage: function () {
            return EllipticCurvePointFp(
              this,
              false,
              cryptoMath.intToDigits(0, fieldStorageBitLength),
              cryptoMath.intToDigits(0, fieldStorageBitLength),
            )
          },
          createPointAtInfinity: function () {
            return EllipticCurvePointFp(
              this,
              true,
              cryptoMath.intToDigits(0, fieldStorageBitLength),
              cryptoMath.intToDigits(0, fieldStorageBitLength),
            )
          },
        }
      }

      var createWeierstrassCurve = function (curveData) {
        var newCurve = new EllipticCurveFp(
          btd(curveData.p),
          btd(curveData.a),
          btd(curveData.b),
          btd(curveData.order),
          btd(curveData.gx),
          btd(curveData.gy),
        )

        newCurve.type = curveData.type
        newCurve.name = curveData.name
        newCurve.generator.curve = newCurve

        return newCurve
      }

      var createTedCurve = function (curveData) {
        var newCurve = new EllipticCurveFp(
          btd(curveData.p),
          btd(curveData.a),
          btd(curveData.d),
          btd(curveData.order),
          btd(curveData.gx),
          btd(curveData.gy),
        )

        newCurve.type = curveData.type

        if (newCurve.type === 1) {
          newCurve.d = newCurve.b.slice()
          delete newCurve.b
        }

        newCurve.rbits = curveData.info[2]
        newCurve.name = curveData.name
        newCurve.generator.curve = newCurve

        return newCurve
      }

      var EllipticCurvePointFp = function (
        curve,
        isInfinity,
        x,
        y,
        z,
        isInMontgomeryForm,
      ) {
        var returnObj

        if (typeof z === 'undefined') {
          z = null
        }

        if (typeof isInMontgomeryForm === 'undefined') {
          isInMontgomeryForm = false
        }

        function equals(ellipticCurvePointFp) {
          if (!ellipticCurvePointFp) {
            return false
          }

          if (returnObj.isInfinity && ellipticCurvePointFp.isInfinity) {
            return true
          }

          if (returnObj.z === null && ellipticCurvePointFp.z !== null) {
            return false
          }

          if (returnObj.z !== null && ellipticCurvePointFp.z === null) {
            return false
          }

          if (returnObj.z === null) {
            return (
              cryptoMath.compareDigits(returnObj.x, ellipticCurvePointFp.x) ===
                0 &&
              cryptoMath.compareDigits(returnObj.y, ellipticCurvePointFp.y) ===
                0 &&
              returnObj.isInMontgomeryForm ===
                ellipticCurvePointFp.isInMontgomeryForm
            )
          }

          return (
            cryptoMath.compareDigits(returnObj.x, ellipticCurvePointFp.x) ===
              0 &&
            cryptoMath.compareDigits(returnObj.y, ellipticCurvePointFp.y) ===
              0 &&
            cryptoMath.compareDigits(returnObj.z, ellipticCurvePointFp.z) ===
              0 &&
            returnObj.isInMontgomeryForm ===
              ellipticCurvePointFp.isInMontgomeryForm
          )
        }

        function copyTo(source, destination) {
          destination.curve = source.curve
          destination.x = source.x.slice()
          destination.y = source.y.slice()

          if (source.z !== null) {
            destination.z = source.z.slice()
          } else {
            destination.z = null
          }

          setterSupport || (destination.isAffine = source.isAffine)
          destination.isInMontgomeryForm = source.isInMontgomeryForm
          destination.isInfinity = source.isInfinity

          if (!destination.equals(source)) {
            throw new Error('Instances should be equal.')
          }
        }

        function clone() {
          var clonePoint = EllipticCurvePointFp(
            returnObj.curve,
            returnObj.isInfinity,
            createArray(returnObj.x),
            createArray(returnObj.y),
            returnObj.z ? createArray(returnObj.z) : null,
            returnObj.isInMontgomeryForm,
          )

          returnObj.ta && (clonePoint.ta = createArray(returnObj.ta))
          returnObj.tb && (clonePoint.tb = createArray(returnObj.tb))

          return clonePoint
        }

        returnObj = {
          equals: function (ellipticCurvePointFp) {
            return equals(ellipticCurvePointFp)
          },
          copy: function (destination) {
            copyTo(this, destination)
            return
          },
          clone: function () {
            return clone()
          },
        }

        createProperty(
          returnObj,
          'curve',
          curve,
          function () {
            return curve
          },
          function (val) {
            curve = val
          },
        )

        createProperty(
          returnObj,
          'x',
          x,
          function () {
            return x
          },
          function (val) {
            x = val
          },
        )
        createProperty(
          returnObj,
          'y',
          y,
          function () {
            return y
          },
          function (val) {
            y = val
          },
        )
        createProperty(
          returnObj,
          'z',
          z,
          function () {
            return z
          },
          function (val) {
            z = val
          },
        )

        createProperty(
          returnObj,
          'isInMontgomeryForm',
          isInMontgomeryForm,
          function () {
            return isInMontgomeryForm
          },
          function (val) {
            isInMontgomeryForm = val
          },
        )
        createProperty(
          returnObj,
          'isInfinity',
          isInfinity,
          function () {
            return isInfinity
          },
          function (val) {
            isInfinity = val
          },
        )
        createProperty(returnObj, 'isAffine', z === null, function () {
          return z === null
        })

        return returnObj
      }

      var EllipticCurveOperatorFp = function (curve) {
        var m_curve = curve

        var tedCurve = curve.type === 1

        var fieldElementWidth = curve.p.length

        var montgomeryMultiplier = cryptoMath.MontgomeryMultiplier(curve.p)

        var montgomerizedA = curve.a.slice()
        montgomeryMultiplier.convertToMontgomeryForm(montgomerizedA)

        var aequalsZero = cryptoMath.isZero(curve.a)

        var one = cryptoMath.One

        var onemontgomery = createArray(fieldElementWidth)
        onemontgomery[0] = 1
        montgomeryMultiplier.convertToMontgomeryForm(onemontgomery)

        var group = cryptoMath.IntegerGroup(
          cryptoMath.digitsToBytes(montgomeryMultiplier.m),
          true,
        )

        var temp0 = createArray(fieldElementWidth)
        var temp1 = createArray(fieldElementWidth)
        var temp2 = createArray(fieldElementWidth)
        var temp3 = createArray(fieldElementWidth)
        var temp4 = createArray(fieldElementWidth)
        var temp5 = createArray(fieldElementWidth)
        var temp6 = createArray(fieldElementWidth)
        var temp7 = createArray(fieldElementWidth)
        var swap0 = createArray(fieldElementWidth)

        var conversionTemp0 = createArray(fieldElementWidth)
        var conversionTemp1 = createArray(fieldElementWidth)
        var conversionTemp2 = createArray(fieldElementWidth)

        function modSub(left, right, result) {
          var resultElement = group.createElementFromInteger(0)
          resultElement.m_digits = result
          group.subtract(
            group.createElementFromDigits(left),
            group.createElementFromDigits(right),
            resultElement,
          )
        }

        function modAdd(left, right, result) {
          var resultElement = group.createElementFromInteger(0)
          resultElement.m_digits = result
          group.add(
            group.createElementFromDigits(left),
            group.createElementFromDigits(right),
            resultElement,
          )
        }

        function modInv(number, result) {
          cryptoMath.modInv(number, m_curve.p, result)
        }

        function modDivByTwo(dividend, result) {
          var s = dividend.length

          var modulus = curve.p

          if ((dividend[0] & 0x1) === 0x1) {
            var carry = 0

            for (var i = 0; i < s; i += 1) {
              carry += dividend[i] + modulus[i]
              result[i] = carry & cryptoMath.DIGIT_MASK
              carry = carry >>> cryptoMath.DIGIT_BITS
            }

            carry = carry << (cryptoMath.DIGIT_BITS - 1)

            cryptoMath.shiftRight(result, result)

            result[s - 1] |= carry
          } else {
            cryptoMath.shiftRight(dividend, result)
          }
        }

        function montgomeryMultiply(left, right, result) {
          montgomeryMultiplier.montgomeryMultiply(left, right, result)
        }

        function montgomerySquare(left, result) {
          montgomeryMultiplier.montgomeryMultiply(left, left, result)
        }

        function correctInversion(digits) {
          var results = createArray(digits.length)
          montgomeryMultiply(digits, montgomeryMultiplier.rCubedModm, results)
          for (var i = 0; i < results.length; i += 1) {
            digits[i] = results[i]
          }
        }

        function doubleAequalsNeg3(point, outputPoint) {
          if (point.isInfinity) {
            outputPoint.isInfinity = true
            return
          }

          montgomerySquare(point.z, temp1)

          montgomeryMultiply(point.z, point.y, temp4)

          modAdd(point.x, temp1, temp2)

          modSub(point.x, temp1, temp1)

          outputPoint.z = temp4.slice()

          montgomeryMultiply(temp1, temp2, temp3)

          modDivByTwo(temp3, temp2)

          modAdd(temp3, temp2, temp1)

          montgomerySquare(point.y, temp2)

          montgomerySquare(temp1, temp4)

          montgomeryMultiply(point.x, temp2, temp3)

          modSub(temp4, temp3, temp4)

          modSub(temp4, temp3, outputPoint.x)

          modSub(temp3, outputPoint.x, temp4)

          montgomerySquare(temp2, temp3)

          montgomeryMultiply(temp1, temp4, temp2)

          modSub(temp2, temp3, outputPoint.y)

          outputPoint.isInfinity = false
          outputPoint.isInMontgomeryForm = true
        }

        function doubleAequals0(point, outputPoint) {
          if (point.isInfinity) {
            outputPoint.isInfinity = true
            return
          }

          montgomerySquare(point.y, temp3)

          montgomerySquare(point.x, temp4)

          modAdd(temp4, temp4, temp0)
          modAdd(temp0, temp4, temp4)

          montgomeryMultiply(point.x, temp3, temp5)

          montgomerySquare(temp3, temp0)

          modDivByTwo(temp4, temp1)

          montgomerySquare(temp1, temp3)

          montgomeryMultiply(point.y, point.z, swap0)
          for (var i = 0; i < swap0.length; i += 1) {
            outputPoint.z[i] = swap0[i]
          }

          modSub(temp3, temp5, outputPoint.x)
          modSub(outputPoint.x, temp5, outputPoint.x)

          modSub(temp5, outputPoint.x, temp4)

          montgomeryMultiply(temp1, temp4, temp2)

          modSub(temp2, temp0, outputPoint.y)

          outputPoint.isInfinity = false
          outputPoint.isInMontgomeryForm = true
        }

        function generatePrecomputationTable(w, generatorPoint) {
          var validationPoint = generatorPoint.clone()
          convertToStandardForm(validationPoint)
          if (!validatePoint(validationPoint)) {
            throw new Error('Invalid Parameter')
          }

          var pointJac = generatorPoint.clone()
          convertToJacobianForm(pointJac)

          var tablePos = [generatorPoint.clone()]

          var qJac = pointJac.clone()

          var px2 = pointJac.clone()
          double(pointJac, px2)
          convertToAffineForm(px2)

          var qAff

          for (var i = 1; i < Math.pow(2, w - 2); i++) {
            mixedAdd(qJac, px2, qJac)

            qAff = qJac.clone()
            convertToAffineForm(qAff)

            tablePos[i] = qAff
          }

          return tablePos
        }

        function double(point, outputPoint) {
          if (typeof point === 'undefined') {
            throw new Error('point undefined')
          }
          if (typeof outputPoint === 'undefined') {
            throw new Error('outputPoint undefined')
          }

          if (point.isAffine) {
            throw new Error(
              'Given point was in Affine form. Use convertToJacobian() first.',
            )
          }

          if (!point.isInMontgomeryForm) {
            throw new Error(
              'Given point must be in Montgomery form. Use montgomeryize() first.',
            )
          }
          if (aequalsZero) {
            doubleAequals0(point, outputPoint)
          } else {
            doubleAequalsNeg3(point, outputPoint)
          }
        }

        function mixedDoubleAdd(jacobianPoint, affinePoint, outputPoint) {
          if (jacobianPoint.isInfinity) {
            affinePoint.copy(outputPoint)
            this.convertToJacobianForm(outputPoint)
            return
          }

          if (affinePoint.isInfinity) {
            jacobianPoint.copy(outputPoint)
            return
          }

          montgomerySquare(jacobianPoint.z, temp5)

          montgomeryMultiply(jacobianPoint.z, temp5, temp6)

          montgomeryMultiply(affinePoint.x, temp5, temp4)

          montgomeryMultiply(affinePoint.y, temp6, temp5)

          modSub(temp4, jacobianPoint.x, temp1)

          modSub(temp5, jacobianPoint.y, temp2)

          if (cryptoMath.isZero(temp1)) {
            if (cryptoMath.isZero(temp2)) {
              double(jacobianPoint, outputPoint)
              mixedAdd(outputPoint, affinePoint, outputPoint)
              return
            } else {
              outputPoint.x = jacobianPoint.x.slice(0)
              outputPoint.y = jacobianPoint.y.slice(0)
              outputPoint.z = jacobianPoint.z.slice(0)
              return
            }
          }

          montgomerySquare(temp2, temp4)

          montgomerySquare(temp1, temp6)

          montgomeryMultiply(temp6, jacobianPoint.x, temp5)

          montgomeryMultiply(temp1, temp6, temp0)

          modSub(temp4, temp5, temp3)
          modSub(temp3, temp5, temp3)

          montgomeryMultiply(jacobianPoint.z, temp1, temp4)

          modSub(temp3, temp5, temp3)

          montgomeryMultiply(temp0, jacobianPoint.y, temp6)

          modSub(temp3, temp0, temp3)

          if (cryptoMath.isZero(temp3)) {
            for (i = 0; i < outputPoint.x.length; i++) {
              outputPoint.x[i] = 0
              outputPoint.y[i] = 0
              outputPoint.z[i] = 0
            }
            outputPoint.y[0] = 1
            return
          }

          modAdd(temp6, temp6, temp1)

          montgomeryMultiply(temp4, temp3, outputPoint.z)

          montgomeryMultiply(temp2, temp3, temp4)

          montgomerySquare(temp3, temp0)

          modAdd(temp1, temp4, temp1)

          montgomeryMultiply(temp0, temp5, temp4)

          montgomerySquare(temp1, temp7)

          montgomeryMultiply(temp0, temp3, temp5)

          modSub(temp7, temp4, outputPoint.x)
          modSub(outputPoint.x, temp4, outputPoint.x)

          modSub(outputPoint.x, temp5, outputPoint.x)

          modSub(outputPoint.x, temp4, temp3)

          montgomeryMultiply(temp5, temp6, temp0)

          montgomeryMultiply(temp1, temp3, temp4)

          modSub(temp4, temp0, outputPoint.y)

          outputPoint.isInfinity = false
          outputPoint.isInMontgomeryForm = true
        }

        function mixedAdd(jacobianPoint, affinePoint, outputPoint) {
          if (jacobianPoint === null) {
            throw new Error('jacobianPoint')
          }

          if (affinePoint === null) {
            throw new Error('affinePoint')
          }

          if (outputPoint === null) {
            throw new Error('outputPoint')
          }

          if (
            jacobianPoint.curve !== affinePoint.curve ||
            jacobianPoint.curve !== outputPoint.curve
          ) {
            throw new Error('All points must be from the same curve object.')
          }

          if (jacobianPoint.isAffine) {
            throw new Error(
              'Given jacobianPoint was in Affine form. Use ConvertToJacobian()\
                     before calling DoubleJacobianAddAffinePoints().',
            )
          }

          if (!affinePoint.isAffine) {
            throw new Error(
              'Given affinePoint was in Jacobian form. Use ConvertToAffine() before \
                     calling DoubleJacobianAddAffinePoints().',
            )
          }

          if (outputPoint.isAffine) {
            throw new Error(
              'Given jacobianPoint was in Jacobian form. Use ConvertToJacobian() before \
                     calling DoubleJacobianAddAffinePoints().',
            )
          }

          if (!jacobianPoint.isInMontgomeryForm) {
            throw new Error('Jacobian point must be in Montgomery form')
          }

          if (!affinePoint.isInMontgomeryForm) {
            throw new Error('Affine point must be in Montgomery form')
          }

          if (jacobianPoint.isInfinity) {
            affinePoint.copy(outputPoint)
            this.convertToJacobianForm(outputPoint)
            return
          }

          if (affinePoint.isInfinity) {
            jacobianPoint.copy(outputPoint)
            return
          }

          montgomerySquare(jacobianPoint.z, temp1)

          montgomeryMultiply(temp1, jacobianPoint.z, temp2)

          montgomeryMultiply(temp1, affinePoint.x, temp3)

          montgomeryMultiply(temp2, affinePoint.y, temp4)

          modSub(temp3, jacobianPoint.x, temp1)

          modSub(temp4, jacobianPoint.y, temp2)

          var i
          for (i = 0; i < temp1.length; i += 1) {
            if (temp1[i] !== 0) {
              montgomeryMultiply(jacobianPoint.z, temp1, temp0)
              for (var j = 0; j < fieldElementWidth; j += 1) {
                outputPoint.z[j] = temp0[j]
              }

              montgomerySquare(temp1, temp3)

              montgomeryMultiply(temp3, temp1, temp4)

              montgomeryMultiply(temp3, jacobianPoint.x, temp5)

              modAdd(temp5, temp5, temp1)

              montgomerySquare(temp2, outputPoint.x)

              modSub(outputPoint.x, temp1, outputPoint.x)

              modSub(outputPoint.x, temp4, outputPoint.x)

              modSub(temp5, outputPoint.x, temp3)

              montgomeryMultiply(temp2, temp3, temp5)

              montgomeryMultiply(jacobianPoint.y, temp4, temp6)

              modSub(temp5, temp6, outputPoint.y)

              outputPoint.isInfinity = false
              outputPoint.isInMontgomeryForm = true

              return
            }
          }

          for (i = 0; i < temp2.length; i += 1) {
            if (temp2[i] !== 0) {
              outputPoint.isInfinity = true
              outputPoint.isInMontgomeryForm = true
              return
            }
          }
          affinePoint.copy(outputPoint)
          this.convertToJacobianForm(outputPoint)
          this.double(outputPoint, outputPoint)
          outputPoint.isInMontgomeryForm = true
        }

        function scalarMultiply(k, point, outputPoint, multiplyBy4) {
          if (point.isInfinity || cryptoMath.isZero(k)) {
            outputPoint.isInfinity = true
            return
          }

          if (cryptoMath.compareDigits(k, curve.order) >= 0) {
            throw new Error('The scalar k must be in the range 1 <= k < order.')
          }

          k = k.slice()

          if (point.curve.type === 1) {
            var pointIsEP = typeof point.ta !== 'undefined'

            if (!pointIsEP) {
              convertToExtendedProjective(point)
            }

            scalarMultiplyTed(k, point, outputPoint, multiplyBy4)

            if (!pointIsEP) {
              normalizeTed(point)
            }
          } else {
            var pointIsMF = point.isInMontgomeryForm,
              outputIsMF = outputPoint.isInMontgomeryForm,
              outputIsAffine = outputPoint.isAffine

            if (!pointIsMF) {
              convertToMontgomeryForm(point)
            }

            if (!outputIsMF) {
              convertToMontgomeryForm(outputPoint)
            }

            scalarMultiplyW(k, point, outputPoint)

            if (outputIsAffine) {
              convertToAffineForm(outputPoint)
            }

            if (!pointIsMF) {
              convertToStandardForm(point)
            }

            if (!outputIsMF) {
              convertToStandardForm(outputPoint)
            }
          }

          return
        }

        function scalarMultiplyW(k, point, outputPoint) {
          var validationPoint = point.clone()
          convertToStandardForm(validationPoint)

          if (!validatePoint(validationPoint)) {
            throw new Error('Invalid Parameters.')
          }

          var odd = k[0] & 1,
            tempk = []

          modSub(point.curve.order, k, tempk)
          for (i = 0; i < k.length; i++) {
            k[i] = ((odd - 1) & (k[i] ^ tempk[i])) ^ k[i]
          }

          var w = fieldElementWidth <= 8 ? 5 : 6
          var m = point.curve.p.length * cryptoMath.DIGIT_BITS
          var t = Math.ceil(m / (w - 1))

          var kDigits = cryptoMath.fixedWindowRecode(k, w, t)

          var Tm = generatePrecomputationTable(w, point)

          var position = Math.floor(Math.abs(kDigits[t]) - 1) / 2

          var Q = Tm[position].clone()
          convertToJacobianForm(Q)

          for (var i = t - 1; i >= 0; i--) {
            for (var j = 0; j < w - 2; j++) {
              double(Q, Q)
            }

            position = Math.floor((Math.abs(kDigits[i]) - 1) / 2)

            var L = tableLookupW(Tm, position)

            modSub(L.curve.p, L.y, tempk)
            var mask = -(kDigits[i] >>> 31)
            for (var n = 0; n < L.y.length; n++) {
              L.y[n] = (L.y[n] & ~mask) | (tempk[n] & mask)
            }

            mixedDoubleAdd(Q, L, Q)
          }

          modSub(point.curve.p, Q.y, tempk)
          for (i = 0; i < Q.y.length; i++) {
            Q.y[i] = ((odd - 1) & (Q.y[i] ^ tempk[i])) ^ Q.y[i]
          }

          Q.copy(outputPoint)

          return
        }

        function tableLookupW(table, index) {
          var mask, L

          for (var i = 0; i < table.length; i++) {
            mask = +(i === index)
            L = [L, table[i].clone()][mask]
          }

          return L
        }

        function tableLookupW0(table, index) {
          var pos = (index + 1) % table.length

          for (var i = 0; i < table.length; i++) {
            var L = table[pos].clone()
            pos = (pos + 1) % table.length
          }

          return L
        }

        function negate(point, outputPoint) {
          if (point !== outputPoint) {
            point.copy(outputPoint)
          }
          modSub(point.curve.p, point.y, outputPoint.y)
        }

        function convertToMontgomeryForm(point) {
          if (point.isInMontgomeryForm) {
            throw new Error('The given point is already in Montgomery form.')
          }

          if (!point.isInfinity) {
            montgomeryMultiplier.convertToMontgomeryForm(point.x)
            montgomeryMultiplier.convertToMontgomeryForm(point.y)

            if (point.z !== null) {
              montgomeryMultiplier.convertToMontgomeryForm(point.z)
            }

            if (typeof point.ta !== 'undefined') {
              montgomeryMultiplier.convertToMontgomeryForm(point.ta)
              montgomeryMultiplier.convertToMontgomeryForm(point.tb)
            }
          }

          point.isInMontgomeryForm = true
        }

        function convertToStandardForm(point) {
          if (!point.isInMontgomeryForm) {
            throw new Error('The given point is not in montgomery form.')
          }

          if (!point.isInfinity) {
            montgomeryMultiplier.convertToStandardForm(point.x)
            montgomeryMultiplier.convertToStandardForm(point.y)
            if (point.z !== null) {
              montgomeryMultiplier.convertToStandardForm(point.z)
            }
            if (typeof point.ta !== 'undefined') {
              montgomeryMultiplier.convertToStandardForm(point.ta)
              montgomeryMultiplier.convertToStandardForm(point.tb)
            }
          }

          point.isInMontgomeryForm = false
        }

        function convertToAffineForm(point) {
          if (point.isInfinity) {
            point.z = null
            setterSupport || (point.isAffine = true)
            return
          }

          cryptoMath.modInv(point.z, curve.p, conversionTemp2, true)

          if (point.isInMontgomeryForm) {
            montgomeryMultiply(
              conversionTemp2,
              montgomeryMultiplier.rCubedModm,
              conversionTemp1,
            )
            var swap = conversionTemp2
            conversionTemp2 = conversionTemp1
            conversionTemp1 = swap
          }

          montgomerySquare(conversionTemp2, conversionTemp0)

          montgomeryMultiply(point.x, conversionTemp0, conversionTemp1)
          for (var i = 0; i < fieldElementWidth; i += 1) {
            point.x[i] = conversionTemp1[i]
          }

          montgomeryMultiply(point.y, conversionTemp0, conversionTemp1)
          montgomeryMultiply(conversionTemp1, conversionTemp2, point.y)

          point.z = null

          delete point.ta
          delete point.tb

          setterSupport || (point.isAffine = true)
        }

        function convertToJacobianForm(point) {
          if (!point.isAffine) {
            throw new Error('The given point is not in Affine form.')
          }

          setterSupport || (point.isAffine = false)

          var clonedDigits,
            i,
            zOne = point.isInMontgomeryForm ? onemontgomery : one

          clonedDigits = createArray(zOne.length)
          for (i = 0; i < zOne.length; i += 1) {
            clonedDigits[i] = zOne[i]
          }

          point.z = clonedDigits

          return
        }

        function validatePoint(point) {
          if (point.isInfinity) {
            return false
          }

          cryptoMath.modMul(point.y, point.y, point.curve.p, temp1)

          cryptoMath.modMul(point.x, point.x, point.curve.p, temp2)
          cryptoMath.modMul(point.x, temp2, point.curve.p, temp3)
          modAdd(temp3, point.curve.b, temp2)
          cryptoMath.modMul(point.x, point.curve.a, point.curve.p, temp3)
          modAdd(temp2, temp3, temp2)
          modSub(temp1, temp2, temp1)

          if (cryptoMath.isZero(temp1) === false) {
            return false
          }

          return true
        }

        function validatePointTed(point) {
          if (point.ta) {
            point = point.clone()
            normalizeTed(point)
          }

          cryptoMath.modMul(point.y, point.y, point.curve.p, temp3)
          cryptoMath.modMul(point.x, point.x, point.curve.p, temp2)

          cryptoMath.add(temp2, temp3, temp1)
          cryptoMath.reduce(temp4, point.curve.p, temp4)

          cryptoMath.modMul(temp2, temp3, point.curve.p, temp4)
          cryptoMath.modMul(point.curve.d, temp4, point.curve.p, temp3)

          cryptoMath.add(temp3, [1], temp2)
          cryptoMath.reduce(temp2, point.curve.p, temp2)

          cryptoMath.subtract(temp1, temp2, temp1)

          if (cryptoMath.isZero(temp1) === false) {
            cryptoMath.reduce(temp1, point.curve.p, temp1)
            if (cryptoMath.isZero(temp1) === false) {
              return false
            }
          }

          return true
        }

        function generatePrecomputationTableTed(npoints, point) {
          var Q = point.clone(),
            P2 = Q.clone(),
            T = []

          T[0] = convert_R1_to_R2(point)
          doubleTed(Q, Q)
          P2 = convert_R1_to_R2(Q)
          Q = point.clone()

          for (var i = 1; i < npoints; i++) {
            addTedExtended(P2, Q, Q)
            T[i] = convert_R1_to_R2(Q)
          }

          return T
        }

        function convertToExtendedProjective(affinePoint) {
          affinePoint.ta = affinePoint.x.slice()
          affinePoint.tb = affinePoint.y.slice()
          affinePoint.z = [1]
        }

        function scalarMultiplyTed(k, point, outputPoint, multiplyBy4) {
          if (!validatePointTed(point)) {
            throw new Error('Invalid Parameter')
          }

          var rbits = point.curve.rbits
          multiplyBy4 = typeof multiplyBy4 === 'undefined' ? true : multiplyBy4

          var w = fieldElementWidth <= 8 ? 5 : 6

          var t = Math.floor((rbits + (w - 2)) / (w - 1))
          var i, j

          k = k.slice()

          var T = point.clone()

          convertToExtendedProjective(T)

          if (multiplyBy4) {
            doubleTed(T, T)
            doubleTed(T, T)
          }

          var precomputationTable = generatePrecomputationTableTed(
            1 << (w - 2),
            T,
          )

          var odd = k[0] & 1,
            tempk = [],
            kisNeg

          modSub(point.curve.order, k, tempk)
          for (i = 0; i < k.length; i++) {
            k[i] = ((odd - 1) & (k[i] ^ tempk[i])) ^ k[i]
          }

          var kDigits = cryptoMath.fixedWindowRecode(k, w, t)

          var position = Math.floor(Math.abs(kDigits[t]) - 1) / 2

          var R = precomputationTable[position]

          T.x = R.x.slice()
          T.y = R.y.slice()
          T.z = R.z.slice()

          for (i = t - 1; i >= 0; i--) {
            for (j = 0; j < w - 1; j++) {
              doubleTed(T, T)
            }

            position = Math.floor((Math.abs(kDigits[i]) - 1) / 2)

            var L = tableLookupTed(precomputationTable, position)

            var mask = -(kDigits[i] >>> 31)

            modSub(point.curve.p, L.x, tempk)
            for (var m = 0; m < L.x.length; m++) {
              L.x[m] = (L.x[m] & ~mask) | (tempk[m] & mask)
            }

            modSub(point.curve.p, L.td, tempk)
            for (m = 0; m < L.td.length; m++) {
              L.td[m] = (L.td[m] & ~mask) | (tempk[m] & mask)
            }

            addTedExtended(L, T, T)
          }

          modSub(point.curve.p, T.x, tempk)
          for (i = 0; i < T.x.length; i++) {
            T.x[i] = ((odd - 1) & (T.x[i] ^ tempk[i])) ^ T.x[i]
          }

          normalizeTed(T)

          outputPoint.x = T.x.slice()
          outputPoint.y = T.y.slice()

          return
        }

        function tableLookupTed(table, index) {
          var pos = (index + 1) % table.length

          for (var i = 0; i < table.length; i++) {
            var L = {
              x: table[pos].x.slice(),
              y: table[pos].y.slice(),
              z: table[pos].z.slice(),
              td: table[pos].td.slice(),
            }
            pos = (pos + 1) % table.length
          }

          return L
        }

        function normalizeTed(point) {
          cryptoMath.modInv(point.z, curve.p, conversionTemp2, true)

          cryptoMath.modMul(point.x, conversionTemp2, curve.p, point.x)

          cryptoMath.modMul(point.y, conversionTemp2, curve.p, point.y)

          delete point.ta
          delete point.tb

          point.z = null

          return
        }

        function doubleTed(point, outputPoint) {
          if (typeof point.ta === 'undefined') {
            throw new Error('Point should be in Extended Projective form.')
          }

          cryptoMath.modMul(point.x, point.x, point.curve.p, temp0)

          cryptoMath.modMul(point.y, point.y, point.curve.p, temp1)

          cryptoMath.modMul(point.z, point.z, point.curve.p, point.ta)
          modSub(temp1, temp0, outputPoint.tb)
          modAdd(temp0, temp1, temp0)

          modAdd(point.ta, point.ta, point.ta)

          modAdd(point.y, point.y, point.y)

          modSub(point.ta, temp0, temp1)

          cryptoMath.modMul(point.x, point.y, point.curve.p, outputPoint.ta)

          cryptoMath.modMul(temp0, outputPoint.tb, point.curve.p, outputPoint.y)

          cryptoMath.modMul(temp1, outputPoint.ta, point.curve.p, outputPoint.x)

          cryptoMath.modMul(temp0, temp1, point.curve.p, outputPoint.z)

          return
        }

        function addTed(point1, point2, outputPoint) {
          var cm = cryptoMath

          if (typeof point1.ta === 'undefined') {
            throw new Error('Point1 should be in Extended Projective form.')
          }

          if (typeof point2.ta === 'undefined') {
            throw new Error('Point2 should be in Extended Projective form.')
          }
          var qq = convert_R1_to_R2(point1)

          addTedExtended(qq, point2, outputPoint)

          return
        }

        function convert_R1_to_R2(point) {
          var curve = point.curve,
            modulus = curve.p,
            qq = {
              x: point.x.slice(),
              y: point.y.slice(),
              z: point.z.slice(),
              td: [],
              curve: point.curve,
            }

          cryptoMath.modMul(point.ta, point.tb, modulus, conversionTemp0)

          cryptoMath.modMul(conversionTemp0, curve.d, modulus, qq.td)

          return qq
        }

        function addTedExtended(qq, point2, outputPoint) {
          var cm = cryptoMath
          var modulus = point2.curve.p

          temp1 = []
          temp2 = []
          temp3 = []

          cm.modMul(point2.z, qq.z, modulus, temp3)

          cm.modMul(point2.ta, point2.tb, modulus, temp1)

          modAdd(point2.x, point2.y, point2.ta)

          cm.modMul(temp1, qq.td, modulus, temp2)

          modAdd(qq.x, qq.y, point2.tb)

          modSub(temp3, temp2, temp1)

          modAdd(temp3, temp2, temp3)

          cm.modMul(point2.ta, point2.tb, modulus, temp2)

          cm.modMul(point2.x, qq.x, modulus, point2.z)

          cm.modMul(point2.y, qq.y, modulus, point2.x)

          modSub(temp2, point2.z, temp2)

          modSub(point2.x, point2.z, outputPoint.ta)

          modSub(temp2, point2.x, outputPoint.tb)

          cm.modMul(outputPoint.ta, temp3, modulus, outputPoint.y)

          cm.modMul(outputPoint.tb, temp1, modulus, outputPoint.x)

          cm.modMul(temp3, temp1, modulus, outputPoint.z)

          return
        }

        function convertTedToWeierstrass(tedPoint, wPoint) {
          var a = tedPoint.curve.a.slice(),
            d = tedPoint.curve.d.slice(),
            p = tedPoint.curve.p,
            modMul = cryptoMath.modMul,
            modInv = cryptoMath.modInv

          temp1 = [5]

          modMul(a, temp1, p, temp2)

          modSub(temp2, d, temp2)

          modMul(d, temp1, p, temp3)

          modSub(a, temp3, temp1)

          modMul(tedPoint.y, temp1, p, temp3)

          modAdd(temp3, temp2, temp2)

          temp1 = [1]

          modSub(temp1, tedPoint.y, temp3)

          temp1 = [12]

          modMul(temp1, temp3, p, temp4)

          modInv(temp4, p, temp4, true)

          modMul(tedPoint.x, temp3, p, temp1)

          modAdd(temp1, temp1, temp3)

          modAdd(temp3, temp3, temp3)

          modInv(temp3, p, temp3, true)

          modMul(temp4, temp2, p, wPoint.x)

          temp1 = [1]

          modAdd(tedPoint.y, temp1, temp1)

          modSub(a, d, temp2)

          modMul(temp1, temp2, p, temp4)

          modMul(temp4, temp3, p, wPoint.y)

          return
        }

        function convertWeierstrassToTed(wPoint, tedPoint) {
          var a = tedPoint.curve.a.slice(),
            d = tedPoint.curve.d.slice(),
            p = tedPoint.curve.p,
            modMul = cryptoMath.modMul,
            modInv = cryptoMath.modInv

          modAdd(wPoint.x, wPoint.x, temp1)

          modAdd(wPoint.x, temp1, temp1)

          modAdd(temp1, temp1, temp1)

          modSub(temp1, a, temp2)

          modSub(temp2, d, temp2)

          modAdd(wPoint.y, wPoint.y, temp3)

          modAdd(wPoint.y, temp3, temp3)

          modAdd(temp3, temp3, temp3)

          modInv(temp3, p, temp3, true)

          modMul(temp2, temp3, p, tedPoint.x)

          modAdd(temp1, temp1, temp1)

          modAdd(temp1, d, temp2)

          modAdd(temp1, a, temp1)

          modAdd(a, a, temp3)

          modSub(temp2, temp3, temp2)

          modSub(temp2, temp3, temp2)

          modSub(temp2, a, temp2)

          modAdd(d, d, temp3)

          modSub(temp1, temp3, temp1)

          modSub(temp1, temp3, temp1)

          modSub(temp1, d, temp1)

          modInv(temp1, p, temp1, true)

          modMul(temp1, temp2, p, tedPoint.y)

          return
        }

        var methods = {
          convertToMontgomeryForm: convertToMontgomeryForm,

          convertToStandardForm: convertToStandardForm,

          convertToAffineForm: convertToAffineForm,

          convertToJacobianForm: convertToJacobianForm,

          generatePrecomputationTable: function (w, generatorPoint) {
            return generatePrecomputationTable(w, generatorPoint)
          },
        }

        if (tedCurve) {
          methods.double = doubleTed
          methods.add = addTed
          methods.scalarMultiply = scalarMultiply
          methods.normalize = normalizeTed
          methods.convertToExtendedProjective = convertToExtendedProjective
          methods.convertTedToWeierstrass = convertTedToWeierstrass
          methods.convertWeierstrassToTed = convertWeierstrassToTed
          methods.validatePoint = validatePointTed
          methods.generatePrecomputationTable = function (w, generatorPoint) {
            return generatePrecomputationTableTed(w, generatorPoint)
          }
        } else {
          methods.double = double
          methods.mixedDoubleAdd = mixedDoubleAdd
          methods.mixedAdd = mixedAdd
          methods.scalarMultiply = scalarMultiply
          methods.negate = negate
          methods.validatePoint = validatePoint
        }

        return methods
      }

      var sec1EncodingFp = function () {
        return {
          encodePoint: function (point) {
            if (!point) {
              throw new Error('point')
            }

            if (!point.isAffine) {
              throw new Error('Point must be in affine form.')
            }

            if (point.isInMontgomeryForm) {
              throw new Error('Point must not be in Montgomery form.')
            }

            if (point.isInfinity) {
              return createArray(1)
            } else {
              var xOctetString = cryptoMath.digitsToBytes(point.x)
              var yOctetString = cryptoMath.digitsToBytes(point.y)
              var pOctetString = cryptoMath.digitsToBytes(point.curve.p)
              var mlen = pOctetString.length
              if (mlen < xOctetString.length || mlen < yOctetString.length) {
                throw new Error(
                  'Point coordinate(s) are bigger than the field order.',
                )
              }
              var output = createArray(2 * mlen + 1)

              output[0] = 0x04
              var offset = mlen - xOctetString.length
              for (var i = 0; i < xOctetString.length; i++) {
                output[i + 1 + offset] = xOctetString[i]
              }
              offset = mlen - yOctetString.length
              for (i = 0; i < yOctetString.length; i++) {
                output[mlen + i + 1 + offset] = yOctetString[i]
              }

              return output
            }
          },
          decodePoint: function (encoded, curve) {
            if (encoded.length < 1) {
              throw new Error('Byte array must have non-zero length')
            }

            var pOctetString = cryptoMath.digitsToBytes(curve.p)
            var mlen = pOctetString.length

            if (encoded[0] === 0x0 && encoded.length === 1) {
              return curve.createPointAtInfinity()
            } else if (encoded[0] === 0x04 && encoded.length === 1 + 2 * mlen) {
              var xbytes = createArray(mlen)
              var ybytes = createArray(mlen)

              for (var i = 0; i < mlen; i++) {
                xbytes[i] = encoded[i + 1]
                ybytes[i] = encoded[mlen + i + 1]
              }

              var x = cryptoMath.bytesToDigits(xbytes)
              var y = cryptoMath.bytesToDigits(ybytes)

              return EllipticCurvePointFp(curve, false, x, y)
            } else {
              throw new Error('Unsupported encoding format')
            }
          },
        }
      }

      var ModularSquareRootSolver = function (modulus) {
        var p = modulus

        var specialK = []

        if (typeof modulus === 'undefined') {
          throw new Error('modulus')
        }

        if (cryptoMath.isEven(modulus)) {
          throw new Error('Only odd moduli are supported')
        }

        var mul = cryptoMath.MontgomeryMultiplier(p)

        if (p[0] % 4 === 3) {
          cryptoMath.add(p, cryptoMath.One, specialK)
          cryptoMath.shiftRight(specialK, specialK, 2)
        } else {
          specialK = null
        }

        var temp0 = new Array(p.length)
        var temp1 = new Array(p.length)

        function squareRootNistCurves(a) {
          var beta = cryptoMath.intToDigits(0, 16)
          mul.modExp(a, specialK, beta)

          var aPrime = [0]
          cryptoMath.modMul(beta, beta, mul.m, aPrime)

          if (cryptoMath.compareDigits(a, aPrime) !== 0) {
            return null
          }

          return beta
        }

        var publicMethods = {
          squareRoot: function (a) {
            if (specialK !== null) {
              return squareRootNistCurves(a)
            } else {
              throw new Error('GeneralCase not supported.')
            }
          },

          jacobiSymbol: function (a) {
            var modEightMask = 0x7,
              modFourMask = 0x3,
              aPrime,
              pPrime

            aPrime = a.slice()
            pPrime = p.slice()

            cryptoMath.reduce(aPrime, pPrime, aPrime, temp0, temp1)

            var t = 1

            while (!cryptoMath.isZero(aPrime)) {
              while (cryptoMath.isEven(aPrime)) {
                cryptoMath.shiftRight(aPrime, aPrime)

                var pMod8 = pPrime[0] & modEightMask
                if (pMod8 === 3 || pMod8 === 5) {
                  t = -t
                }
              }

              var tmp = aPrime
              aPrime = pPrime
              pPrime = tmp

              var aMod4 = aPrime[0] & modFourMask
              var pMod4 = pPrime[0] & modFourMask
              if (aMod4 === 3 && pMod4 === 3) {
                t = -t
              }

              cryptoMath.reduce(aPrime, pPrime, aPrime, temp0, temp1)
            }

            if (cryptoMath.compareDigits(pPrime, cryptoMath.One) === 0) {
              return t
            } else {
              return 0
            }
          },
        }

        return publicMethods
      }

      var curvesInternal = {}

      var createCurve = function (curveName) {
        var curveData = curvesInternal[curveName.toUpperCase()]

        if (!curveData) {
          throw new Error(curveName + ' Unsupported curve.')
        }

        if (curveData.type === 0) {
          return createWeierstrassCurve(curveData)
        }

        if (curveData.type === 1) {
          return createTedCurve(curveData)
        }

        throw new Error(curveName + ' Unsupported curve type.')
      }

      var validateEccPoint = function (curveName, x, y, z) {
        var curve = createCurve(curveName)
        var point = new EllipticCurvePointFp(
          curve,
          false,
          btd(x),
          btd(y),
          z && btd(z),
          false,
        )
        var opp = new EllipticCurveOperatorFp(curve)
        return opp.validatePoint(point)
      }

      return {
        createCurve: createCurve,
        curves: curvesInternal,
        sec1EncodingFp: sec1EncodingFp,
        validatePoint: validateEccPoint,
        EllipticCurvePointFp: EllipticCurvePointFp,
        EllipticCurveOperatorFp: EllipticCurveOperatorFp,
        ModularSquareRootSolver: ModularSquareRootSolver,
      }
    }

    var cryptoECC = cryptoECC || MsrcryptoECC()

    var curve_P256 = {
      name: 'P-256',
      type: 0,
      p: [
        0xff, 0xff, 0xff, 0xff, 0x00, 0x00, 0x00, 0x01, 0x00, 0x00, 0x00, 0x00,
        0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ],
      a: [
        0xff, 0xff, 0xff, 0xff, 0x00, 0x00, 0x00, 0x01, 0x00, 0x00, 0x00, 0x00,
        0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xfc,
      ],
      b: [
        0x5a, 0xc6, 0x35, 0xd8, 0xaa, 0x3a, 0x93, 0xe7, 0xb3, 0xeb, 0xbd, 0x55,
        0x76, 0x98, 0x86, 0xbc, 0x65, 0x1d, 0x06, 0xb0, 0xcc, 0x53, 0xb0, 0xf6,
        0x3b, 0xce, 0x3c, 0x3e, 0x27, 0xd2, 0x60, 0x4b,
      ],
      order: [
        0xff, 0xff, 0xff, 0xff, 0x00, 0x00, 0x00, 0x00, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xbc, 0xe6, 0xfa, 0xad, 0xa7, 0x17, 0x9e, 0x84,
        0xf3, 0xb9, 0xca, 0xc2, 0xfc, 0x63, 0x25, 0x51,
      ],
      gx: [
        0x6b, 0x17, 0xd1, 0xf2, 0xe1, 0x2c, 0x42, 0x47, 0xf8, 0xbc, 0xe6, 0xe5,
        0x63, 0xa4, 0x40, 0xf2, 0x77, 0x03, 0x7d, 0x81, 0x2d, 0xeb, 0x33, 0xa0,
        0xf4, 0xa1, 0x39, 0x45, 0xd8, 0x98, 0xc2, 0x96,
      ],
      gy: [
        0x4f, 0xe3, 0x42, 0xe2, 0xfe, 0x1a, 0x7f, 0x9b, 0x8e, 0xe7, 0xeb, 0x4a,
        0x7c, 0x0f, 0x9e, 0x16, 0x2b, 0xce, 0x33, 0x57, 0x6b, 0x31, 0x5e, 0xce,
        0xcb, 0xb6, 0x40, 0x68, 0x37, 0xbf, 0x51, 0xf5,
      ],
      cf: 1,
    }

    var curve_P384 = {
      name: 'P-384',
      type: 0,
      p: [
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xfe, 0xff, 0xff, 0xff, 0xff,
        0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0xff, 0xff, 0xff, 0xff,
      ],
      a: [
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xfe, 0xff, 0xff, 0xff, 0xff,
        0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0xff, 0xff, 0xff, 0xfc,
      ],
      b: [
        0xb3, 0x31, 0x2f, 0xa7, 0xe2, 0x3e, 0xe7, 0xe4, 0x98, 0x8e, 0x05, 0x6b,
        0xe3, 0xf8, 0x2d, 0x19, 0x18, 0x1d, 0x9c, 0x6e, 0xfe, 0x81, 0x41, 0x12,
        0x03, 0x14, 0x08, 0x8f, 0x50, 0x13, 0x87, 0x5a, 0xc6, 0x56, 0x39, 0x8d,
        0x8a, 0x2e, 0xd1, 0x9d, 0x2a, 0x85, 0xc8, 0xed, 0xd3, 0xec, 0x2a, 0xef,
      ],
      order: [
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xc7, 0x63, 0x4d, 0x81, 0xf4, 0x37, 0x2d, 0xdf, 0x58, 0x1a, 0x0d, 0xb2,
        0x48, 0xb0, 0xa7, 0x7a, 0xec, 0xec, 0x19, 0x6a, 0xcc, 0xc5, 0x29, 0x73,
      ],
      gx: [
        0xaa, 0x87, 0xca, 0x22, 0xbe, 0x8b, 0x05, 0x37, 0x8e, 0xb1, 0xc7, 0x1e,
        0xf3, 0x20, 0xad, 0x74, 0x6e, 0x1d, 0x3b, 0x62, 0x8b, 0xa7, 0x9b, 0x98,
        0x59, 0xf7, 0x41, 0xe0, 0x82, 0x54, 0x2a, 0x38, 0x55, 0x02, 0xf2, 0x5d,
        0xbf, 0x55, 0x29, 0x6c, 0x3a, 0x54, 0x5e, 0x38, 0x72, 0x76, 0x0a, 0xb7,
      ],
      gy: [
        0x36, 0x17, 0xde, 0x4a, 0x96, 0x26, 0x2c, 0x6f, 0x5d, 0x9e, 0x98, 0xbf,
        0x92, 0x92, 0xdc, 0x29, 0xf8, 0xf4, 0x1d, 0xbd, 0x28, 0x9a, 0x14, 0x7c,
        0xe9, 0xda, 0x31, 0x13, 0xb5, 0xf0, 0xb8, 0xc0, 0x0a, 0x60, 0xb1, 0xce,
        0x1d, 0x7e, 0x81, 0x9d, 0x7a, 0x43, 0x1d, 0x7c, 0x90, 0xea, 0x0e, 0x5f,
      ],
      cf: 1,
    }

    var curve_P521 = {
      name: 'P-521',
      type: 0,
      p: [
        0x01, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ],
      a: [
        0x01, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xfc,
      ],
      b: [
        0x00, 0x51, 0x95, 0x3e, 0xb9, 0x61, 0x8e, 0x1c, 0x9a, 0x1f, 0x92, 0x9a,
        0x21, 0xa0, 0xb6, 0x85, 0x40, 0xee, 0xa2, 0xda, 0x72, 0x5b, 0x99, 0xb3,
        0x15, 0xf3, 0xb8, 0xb4, 0x89, 0x91, 0x8e, 0xf1, 0x09, 0xe1, 0x56, 0x19,
        0x39, 0x51, 0xec, 0x7e, 0x93, 0x7b, 0x16, 0x52, 0xc0, 0xbd, 0x3b, 0xb1,
        0xbf, 0x07, 0x35, 0x73, 0xdf, 0x88, 0x3d, 0x2c, 0x34, 0xf1, 0xef, 0x45,
        0x1f, 0xd4, 0x6b, 0x50, 0x3f, 0x00,
      ],
      order: [
        0x01, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xfa, 0x51, 0x86,
        0x87, 0x83, 0xbf, 0x2f, 0x96, 0x6b, 0x7f, 0xcc, 0x01, 0x48, 0xf7, 0x09,
        0xa5, 0xd0, 0x3b, 0xb5, 0xc9, 0xb8, 0x89, 0x9c, 0x47, 0xae, 0xbb, 0x6f,
        0xb7, 0x1e, 0x91, 0x38, 0x64, 0x09,
      ],
      gx: [
        0x00, 0xc6, 0x85, 0x8e, 0x06, 0xb7, 0x04, 0x04, 0xe9, 0xcd, 0x9e, 0x3e,
        0xcb, 0x66, 0x23, 0x95, 0xb4, 0x42, 0x9c, 0x64, 0x81, 0x39, 0x05, 0x3f,
        0xb5, 0x21, 0xf8, 0x28, 0xaf, 0x60, 0x6b, 0x4d, 0x3d, 0xba, 0xa1, 0x4b,
        0x5e, 0x77, 0xef, 0xe7, 0x59, 0x28, 0xfe, 0x1d, 0xc1, 0x27, 0xa2, 0xff,
        0xa8, 0xde, 0x33, 0x48, 0xb3, 0xc1, 0x85, 0x6a, 0x42, 0x9b, 0xf9, 0x7e,
        0x7e, 0x31, 0xc2, 0xe5, 0xbd, 0x66,
      ],
      gy: [
        0x01, 0x18, 0x39, 0x29, 0x6a, 0x78, 0x9a, 0x3b, 0xc0, 0x04, 0x5c, 0x8a,
        0x5f, 0xb4, 0x2c, 0x7d, 0x1b, 0xd9, 0x98, 0xf5, 0x44, 0x49, 0x57, 0x9b,
        0x44, 0x68, 0x17, 0xaf, 0xbd, 0x17, 0x27, 0x3e, 0x66, 0x2c, 0x97, 0xee,
        0x72, 0x99, 0x5e, 0xf4, 0x26, 0x40, 0xc5, 0x50, 0xb9, 0x01, 0x3f, 0xad,
        0x07, 0x61, 0x35, 0x3c, 0x70, 0x86, 0xa2, 0x72, 0xc2, 0x40, 0x88, 0xbe,
        0x94, 0x76, 0x9f, 0xd1, 0x66, 0x50,
      ],
      cf: 1,
    }

    if (typeof cryptoECC !== 'undefined') {
      cryptoECC.curves['P-256'] = curve_P256
      cryptoECC.curves['P-384'] = curve_P384
      cryptoECC.curves['P-521'] = curve_P521
    }

    var curve_BN254 = {
      name: 'BN-254',
      type: 0,
      p: [
        0x25, 0x23, 0x64, 0x82, 0x40, 0x00, 0x00, 0x01, 0xba, 0x34, 0x4d, 0x80,
        0x00, 0x00, 0x00, 0x08, 0x61, 0x21, 0x00, 0x00, 0x00, 0x00, 0x00, 0x13,
        0xa7, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x13,
      ],
      a: [0x00],
      b: [0x02],
      order: [
        0x25, 0x23, 0x64, 0x82, 0x40, 0x00, 0x00, 0x01, 0xba, 0x34, 0x4d, 0x80,
        0x00, 0x00, 0x00, 0x07, 0xff, 0x9f, 0x80, 0x00, 0x00, 0x00, 0x00, 0x10,
        0xa1, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x0d,
      ],
      gx: [
        0x25, 0x23, 0x64, 0x82, 0x40, 0x00, 0x00, 0x01, 0xba, 0x34, 0x4d, 0x80,
        0x00, 0x00, 0x00, 0x08, 0x61, 0x21, 0x00, 0x00, 0x00, 0x00, 0x00, 0x13,
        0xa7, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x12,
      ],
      gy: [0x01],
      cf: 1,
    }

    if (typeof cryptoECC !== 'undefined') {
      cryptoECC.curves['BN-254'] = curve_BN254
    }

    var curve_numsp256d1 = {
      info: ['numsp256d1', 256, 256, 256],
      type: 0,
      p: [
        0x43, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      a: [
        0x40, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      b: [0x81, 0x55, 0x02].reverse(),
      order: [
        0x25, 0xa8, 0x51, 0x47, 0x29, 0x20, 0xab, 0x20, 0x60, 0x5c, 0x26, 0xea,
        0x75, 0x82, 0x3c, 0xe4, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      gx: [
        0xb1, 0xac, 0x1a, 0xb2, 0x1e, 0xee, 0x52, 0xbc, 0x3a, 0xc7, 0xd4, 0x03,
        0x09, 0x9b, 0x57, 0x83, 0x09, 0xcb, 0x42, 0x4f, 0xa0, 0x95, 0x7a, 0x29,
        0x61, 0xdb, 0xaa, 0x5a, 0xb6, 0xd6, 0x9e, 0xbc,
      ].reverse(),
      gy: [
        0x9f, 0xde, 0x84, 0x21, 0xcb, 0xb9, 0xb5, 0x80, 0xbb, 0x0f, 0x31, 0x15,
        0xd1, 0xc3, 0x55, 0xc9, 0x35, 0xe0, 0x04, 0x7e, 0xf7, 0x8b, 0x44, 0x73,
        0xa6, 0xb6, 0x99, 0x33, 0xf1, 0xc0, 0x8f, 0xd0,
      ].reverse(),
      cf: 1,
    }

    var curve_numsp256t1 = {
      info: ['numsp256t1', 256, 255, 256],
      name: 'numsp256t1',
      type: 1,
      p: [
        0x43, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      a: [0x01],
      d: [
        0x55, 0xc3, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      order: [
        0xf5, 0x4a, 0xdd, 0xee, 0x90, 0xb1, 0x47, 0x1a, 0x9b, 0x43, 0x59, 0x2f,
        0xa5, 0x5a, 0x95, 0x41, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00,
        0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x40,
      ].reverse(),
      gx: [
        0xda, 0x13, 0xed, 0x2e, 0x90, 0xc0, 0xde, 0xa0, 0x86, 0x35, 0x08, 0xe3,
        0x0e, 0x8a, 0x39, 0x0c, 0xd6, 0x9b, 0x20, 0x69, 0x5f, 0x3d, 0x1e, 0xcd,
        0x7d, 0x23, 0xea, 0x6a, 0xfb, 0x14, 0x75, 0x8a,
      ].reverse(),
      gy: [
        0xe6, 0x89, 0x8a, 0x79, 0xe7, 0x16, 0xa6, 0x2f, 0xd3, 0x6e, 0x85, 0x10,
        0xd8, 0x61, 0x5f, 0x71, 0x10, 0x80, 0x4b, 0xa6, 0xd9, 0x65, 0x96, 0xce,
        0xc7, 0x25, 0xd9, 0xd9, 0x9f, 0x3e, 0xd5, 0x44,
      ].reverse(),
      cf: 4,
    }

    var curve_numsp384d1 = {
      info: ['numsp384d1', 384, 384, 384],
      name: 'numsp384d1',
      type: 0,
      p: [
        0xc3, 0xfe, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      a: [
        0xc0, 0xfe, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      b: [
        0xbb, 0x77, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      order: [
        0xb9, 0x61, 0x0e, 0x7b, 0xf6, 0x81, 0x4d, 0x60, 0x7a, 0xe2, 0x37, 0x4c,
        0x3d, 0x9d, 0xda, 0xbe, 0x81, 0x68, 0x5d, 0xeb, 0x1e, 0xaf, 0x1e, 0xd6,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      gx: [
        0x2a, 0x15, 0x98, 0x20, 0x04, 0xba, 0x9c, 0xeb, 0x7b, 0xc4, 0x61, 0x0f,
        0x10, 0xed, 0x2e, 0x52, 0x42, 0xc7, 0x6c, 0x2a, 0x1b, 0x29, 0xbd, 0xf3,
        0xf4, 0xf9, 0x81, 0xfb, 0xcd, 0xc1, 0x25, 0x02, 0xa6, 0xf1, 0x05, 0x41,
        0x22, 0xca, 0x80, 0x48, 0x1c, 0x18, 0x6f, 0xb1, 0xf0, 0x56, 0x79, 0x75,
      ].reverse(),
      gy: [
        0x16, 0x07, 0x18, 0x66, 0xec, 0xb8, 0x74, 0x5c, 0x26, 0xad, 0xf4, 0xbf,
        0xdb, 0xb4, 0xd6, 0xbc, 0x7e, 0x83, 0x1a, 0x12, 0x7d, 0x83, 0x20, 0xb9,
        0x9c, 0x73, 0x7f, 0xf8, 0x77, 0x69, 0x04, 0xb0, 0x7e, 0xcf, 0x84, 0x05,
        0x30, 0x3d, 0xe3, 0xd7, 0x38, 0x8e, 0x9b, 0xe1, 0x68, 0xe3, 0xde, 0xac,
      ].reverse(),
      cf: 1,
    }

    var curve_numsp384t1 = {
      info: ['numsp384t1', 384, 382, 384],
      name: 'numsp384t1',
      type: 1,
      p: [
        0xc3, 0xfe, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      a: [0x01],
      d: [
        0x9f, 0xd1, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      order: [
        0x7d, 0x89, 0xa3, 0xe6, 0xc4, 0xdc, 0xb9, 0x20, 0x79, 0xc8, 0x35, 0xab,
        0x5a, 0x55, 0xe4, 0x61, 0xcf, 0xe1, 0x6b, 0xb4, 0x1c, 0x1a, 0x47, 0xe2,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0x3f,
      ].reverse(),
      gx: [
        0xde, 0x6b, 0x20, 0x6c, 0xe4, 0x40, 0xd5, 0x50, 0x13, 0x94, 0x45, 0x65,
        0xb1, 0x92, 0xf2, 0x6f, 0x40, 0x63, 0x31, 0xf3, 0xa8, 0xff, 0x63, 0x57,
        0x00, 0x4c, 0xbe, 0xe5, 0x46, 0xf4, 0x0b, 0xb3, 0xb5, 0x5d, 0xe5, 0x9a,
        0x12, 0xa2, 0xb6, 0xc0, 0x6c, 0x26, 0xa9, 0x45, 0xfb, 0x11, 0xb1, 0x61,
      ].reverse(),
      gy: [
        0x92, 0x93, 0x72, 0xf0, 0xe1, 0x03, 0x8d, 0x9d, 0xdc, 0x48, 0xec, 0x46,
        0xf9, 0xb0, 0x72, 0x00, 0x4b, 0x96, 0x45, 0xf6, 0xf7, 0x98, 0x0f, 0x83,
        0x56, 0x5f, 0x42, 0xf1, 0x74, 0x82, 0xad, 0x16, 0xd7, 0x0d, 0xb1, 0x23,
        0xa4, 0xb1, 0x38, 0x87, 0xb0, 0xee, 0xa6, 0xb9, 0x67, 0x3e, 0x98, 0x82,
      ].reverse(),
      cf: 4,
    }

    var curve_numsp512d1 = {
      info: ['numsp512d1', 512, 512, 512],
      name: 'numsp512d1',
      type: 0,
      p: [
        0xc7, 0xfd, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      a: [
        0xc4, 0xfd, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      b: [0x9b, 0xd9, 0x01].reverse(),
      order: [
        0x5d, 0x55, 0x33, 0x04, 0x39, 0x3f, 0x15, 0xce, 0x43, 0xd2, 0x7c, 0x60,
        0x36, 0x8b, 0x56, 0x3b, 0xc6, 0xbd, 0xd0, 0x97, 0xed, 0x58, 0xc2, 0x4f,
        0x1b, 0x83, 0xe7, 0x94, 0xfb, 0xa4, 0x3c, 0x5b, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      gx: [
        0x57, 0xae, 0xab, 0x8c, 0x95, 0x87, 0x82, 0xdc, 0xe2, 0x5d, 0x6f, 0x7d,
        0x13, 0x60, 0x5d, 0x1d, 0x83, 0x15, 0x56, 0x25, 0x86, 0x42, 0x79, 0x93,
        0x9e, 0x35, 0x6b, 0x07, 0x51, 0xa1, 0x21, 0x50, 0xf9, 0xd9, 0x06, 0x53,
        0xc2, 0xe0, 0x06, 0x45, 0x85, 0xf6, 0x01, 0xb5, 0x3b, 0xd8, 0xca, 0x98,
        0x52, 0x3b, 0x3d, 0xa0, 0x02, 0x70, 0x2b, 0xda, 0x93, 0x0a, 0x1d, 0x14,
        0x47, 0x34, 0xc0, 0x3a,
      ].reverse(),
      gy: [
        0xa6, 0x27, 0x35, 0x38, 0x60, 0x87, 0xa0, 0x23, 0xe9, 0x0f, 0xfd, 0x4c,
        0x1e, 0x5c, 0x2b, 0xcf, 0x02, 0x56, 0x5a, 0xb2, 0x40, 0xa8, 0x21, 0xc1,
        0xe9, 0xed, 0x0e, 0x8b, 0xda, 0x15, 0x84, 0xa2, 0x14, 0x4f, 0xd1, 0x7b,
        0x0c, 0x26, 0x4b, 0x8f, 0x8c, 0xbb, 0xbc, 0xab, 0xde, 0xdb, 0x97, 0x4b,
        0x00, 0xb1, 0xeb, 0x63, 0xdc, 0xee, 0x0e, 0xce, 0xb3, 0x56, 0xad, 0x29,
        0xca, 0x54, 0x3a, 0x94,
      ].reverse(),
      cf: 4,
    }

    var curve_numsp512t1 = {
      info: ['numsp512t1', 512, 510, 512],
      name: 'numsp512t1',
      type: 1,
      p: [
        0xc7, 0xfd, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      a: [0x01].reverse(),
      d: [
        0xef, 0xcb, 0xfe, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff,
      ].reverse(),
      order: [
        0x6d, 0xd4, 0xee, 0x1b, 0xf5, 0x8c, 0x46, 0x67, 0xff, 0xec, 0xef, 0x6d,
        0x78, 0x05, 0x46, 0x2a, 0xf5, 0x86, 0xb6, 0x70, 0xc9, 0xd8, 0x3f, 0x9e,
        0xba, 0x91, 0xcf, 0x2f, 0x6d, 0x63, 0xf0, 0xb4, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff, 0xff,
        0xff, 0xff, 0xff, 0x3f,
      ].reverse(),
      gx: [
        0xfe, 0x57, 0xec, 0x99, 0x29, 0xab, 0xb9, 0xc5, 0x15, 0xf0, 0xc4, 0x7c,
        0x42, 0x25, 0xe5, 0x0f, 0xad, 0x04, 0x89, 0x56, 0x92, 0xc9, 0xbd, 0x78,
        0x0f, 0x73, 0x46, 0xee, 0x4e, 0xc1, 0x21, 0x46, 0x47, 0x81, 0x3b, 0x27,
        0xbe, 0x7e, 0xa1, 0x27, 0x82, 0xa3, 0xc4, 0x4d, 0x9f, 0xe7, 0xd1, 0x2f,
        0x33, 0xc5, 0xd3, 0x88, 0x78, 0xcb, 0x18, 0x7a, 0x9c, 0xb6, 0x8d, 0x12,
        0x6d, 0x31, 0x8e, 0xdf,
      ].reverse(),
      gy: [
        0xe1, 0xf5, 0xe2, 0xc1, 0xc0, 0xde, 0x6d, 0x32, 0x1f, 0xd0, 0xf1, 0x9b,
        0x8a, 0xd3, 0x66, 0x02, 0xfd, 0xc1, 0xec, 0x2a, 0x86, 0x06, 0x1a, 0x60,
        0x62, 0x35, 0x96, 0xe9, 0xf2, 0x53, 0xca, 0x20, 0x41, 0x83, 0x9e, 0x90,
        0x95, 0x6b, 0x2b, 0xa9, 0x22, 0x9d, 0x25, 0xd8, 0x26, 0xf7, 0x76, 0xe4,
        0x6e, 0x25, 0x2a, 0xa8, 0x77, 0xf5, 0xb0, 0x98, 0x71, 0xca, 0x49, 0x9d,
        0xf3, 0xbf, 0x09, 0x6d,
      ].reverse(),
      cf: 4,
    }

    if (typeof cryptoECC !== 'undefined') {
      cryptoECC.curves.NUMSP256D1 = curve_numsp256d1
      cryptoECC.curves.NUMSP384D1 = curve_numsp384d1
      cryptoECC.curves.NUMSP512D1 = curve_numsp512d1
      cryptoECC.curves.NUMSP256T1 = curve_numsp256t1
      cryptoECC.curves.NUMSP384T1 = curve_numsp384t1
      cryptoECC.curves.NUMSP512T1 = curve_numsp512t1
    }

    var msrcryptoSha = function (
      name,
      der,
      h,
      k,
      blockBytes,
      blockFunction,
      truncateTo,
    ) {
      var utils = msrcryptoUtilities

      var hv = h.slice(),
        w = new Array(blockBytes),
        buffer = [],
        blocksProcessed = 0

      function hashBlocks(message) {
        var blockCount = Math.floor(message.length / blockBytes)

        for (var block = 0; block < blockCount; block++) {
          blockFunction(message, block, hv, k, w)
        }

        blocksProcessed += blockCount

        return message.slice(blockCount * blockBytes)
      }

      function hashToBytes() {
        var hash = []

        for (var i = 0; i < hv.length; i++) {
          hash = hash.concat(utils.int32ToBytes(hv[i]))
        }

        hash.length = truncateTo / 8

        return hash
      }

      function addPadding(messageBytes) {
        var padLen = blockBytes - (messageBytes.length % blockBytes)

        padLen <= blockBytes / 8 && (padLen += blockBytes)

        var padding = utils.getVector(padLen)

        padding[0] = 128

        var messageLenBits =
          (messageBytes.length + blocksProcessed * blockBytes) * 8

        for (var i = 1; i <= 8; i++) {
          padding[padLen - i] = messageLenBits % 0x100
          messageLenBits = Math.floor(messageLenBits / 0x100)
        }
        return messageBytes.concat(padding)
      }

      function computeHash(messageBytes) {
        buffer = hashBlocks(messageBytes)

        return finish()
      }

      function process(messageBytes) {
        buffer = buffer.concat(messageBytes)

        if (buffer.length >= blockBytes) {
          buffer = hashBlocks(buffer)
        }

        return
      }

      function finish() {
        if (hashBlocks(addPadding(buffer)).length !== 0) {
          throw new Error('buffer.length !== 0')
        }

        var result = hashToBytes()

        buffer = []

        hv = h.slice()

        blocksProcessed = 0

        return result
      }

      return {
        name: name,
        computeHash: computeHash,
        process: process,
        finish: finish,
        der: der,
        hashLen: truncateTo,
        maxMessageSize: 0xffffffff,
      }
    }

    var msrcryptoSha1 = (function () {
      function hashBlock(message, blockIndex, hv, k, w) {
        var t,
          i,
          temp,
          x0,
          blockSize = 64,
          mask = 0xffffffff

        var ra = hv[0],
          rb = hv[1],
          rc = hv[2],
          rd = hv[3],
          re = hv[4]

        for (i = 0; i < 16; i++) {
          w[i] = utils.bytesToInt32(message, blockIndex * blockSize + i * 4)
        }

        for (t = 16; t < 80; t++) {
          x0 = w[t - 3] ^ w[t - 8] ^ w[t - 14] ^ w[t - 16]
          w[t] = (x0 << 1) | (x0 >>> 31)
        }

        for (i = 0; i < 80; i++) {
          temp = (ra << 5) | (ra >>> 27)

          temp +=
            i >= 60
              ? rb ^ rc ^ rd
              : i >= 40
              ? (rb & rc) ^ (rb & rd) ^ (rc & rd)
              : i >= 20
              ? rb ^ rc ^ rd
              : (rb & rc) ^ (~rb & rd)

          temp += re + k[i] + w[i]

          re = rd
          rd = rc
          rc = (rb << 30) | (rb >>> 2)
          rb = ra
          ra = temp
        }

        hv[0] += ra & mask
        hv[1] += rb & mask
        hv[2] += rc & mask
        hv[3] += rd & mask
        hv[4] += re & mask

        return hv
      }

      var utils = msrcryptoUtilities,
        upd = utils.unpackData,
        h = upd('Z0UjAe/Nq4mYutz+EDJUdsPS4fA=', 4, 1),
        k = upd(
          'WoJ5mVqCeZlagnmZWoJ5mVqCeZlagnmZWoJ5mVqCeZlagnmZWoJ5mVqCeZlagnmZWoJ5mVqCeZlagnmZWoJ5mVqCeZlagnmZWoJ5mVqCeZlu2euhbtnroW7Z66Fu2euhbtnroW7Z66Fu2euhbtnroW7Z66Fu2euhbtnroW7Z66Fu2euhbtnroW7Z66Fu2euhbtnroW7Z66Fu2euhbtnroY8bvNyPG7zcjxu83I8bvNyPG7zcjxu83I8bvNyPG7zcjxu83I8bvNyPG7zcjxu83I8bvNyPG7zcjxu83I8bvNyPG7zcjxu83I8bvNyPG7zcymLB1spiwdbKYsHWymLB1spiwdbKYsHWymLB1spiwdbKYsHWymLB1spiwdbKYsHWymLB1spiwdbKYsHWymLB1spiwdbKYsHWymLB1spiwdY',
          4,
          1,
        ),
        der = upd('MCEwCQYFKw4DAhoFAAQU')

      return {
        sha1: function () {
          return msrcryptoSha('SHA-1', der, h, k, 64, hashBlock, 160)
        },
      }
    })()

    if (typeof operations !== 'undefined') {
      msrcryptoSha1.instances = {}

      msrcryptoSha1.getInstance = function (id) {
        return (
          msrcryptoSha1.instances[id] ||
          (msrcryptoSha1.instances[id] = msrcryptoSha1.sha1())
        )
      }

      msrcryptoSha1.deleteInstance = function (id) {
        msrcryptoSha1.instances[id] = null
        delete msrcryptoSha1.instances[id]
      }

      msrcryptoSha1.hash = function (p) {
        if (p.operationSubType === 'process') {
          msrcryptoSha1.sha1.process(p.buffer)
          return
        }

        if (p.operationSubType === 'finish') {
          return msrcryptoSha1.sha1.finish()
        }

        return msrcryptoSha1.sha1().computeHash(p.buffer)
      }

      operations.register('digest', 'SHA-1', msrcryptoSha1.hash)
    }

    msrcryptoHashFunctions['SHA-1'] = msrcryptoSha1.sha1

    var msrcryptoSha256 = (function () {
      var utils = msrcryptoUtilities

      function hashBlock(message, blockIndex, hv, k, w) {
        var t,
          i,
          temp,
          x0,
          x1,
          blockSize = 64,
          mask = 0xffffffff

        var ra = hv[0],
          rb = hv[1],
          rc = hv[2],
          rd = hv[3],
          re = hv[4],
          rf = hv[5],
          rg = hv[6],
          rh = hv[7]

        for (i = 0; i < 16; i++) {
          w[i] = utils.bytesToInt32(message, blockIndex * blockSize + i * 4)
        }

        for (t = 16; t < 64; t++) {
          x0 = w[t - 15]
          x1 = w[t - 2]

          w[t] =
            (((x1 >>> 17) | (x1 << 15)) ^
              ((x1 >>> 19) | (x1 << 13)) ^
              (x1 >>> 10)) +
            w[t - 7] +
            (((x0 >>> 7) | (x0 << 25)) ^
              ((x0 >>> 18) | (x0 << 14)) ^
              (x0 >>> 3)) +
            w[t - 16]

          w[t] = w[t] & mask
        }

        for (i = 0; i < 64; i++) {
          temp =
            rh +
            (((re >>> 6) | (re << 26)) ^
              ((re >>> 11) | (re << 21)) ^
              ((re >>> 25) | (re << 7))) +
            ((re & rf) ^ (~re & rg)) +
            k[i] +
            w[i]

          rd += temp

          temp +=
            (((ra >>> 2) | (ra << 30)) ^
              ((ra >>> 13) | (ra << 19)) ^
              ((ra >>> 22) | (ra << 10))) +
            ((ra & (rb ^ rc)) ^ (rb & rc))

          rh = rg
          rg = rf
          rf = re
          re = rd
          rd = rc
          rc = rb
          rb = ra
          ra = temp
        }

        hv[0] = (hv[0] + ra) >>> 0
        hv[1] = (hv[1] + rb) >>> 0
        hv[2] = (hv[2] + rc) >>> 0
        hv[3] = (hv[3] + rd) >>> 0
        hv[4] = (hv[4] + re) >>> 0
        hv[5] = (hv[5] + rf) >>> 0
        hv[6] = (hv[6] + rg) >>> 0
        hv[7] = (hv[7] + rh) >>> 0

        return hv
      }

      var k256,
        h224,
        h256,
        der224,
        der256,
        upd = utils.unpackData

      h224 = upd('wQWe2DZ81QcwcN0X9w5ZOf/ACzFoWBURZPmPp776T6Q', 4, 1)

      h256 = upd('agnmZ7tnroU8bvNypU/1OlEOUn+bBWiMH4PZq1vgzRk', 4, 1)

      k256 = upd(
        'QoovmHE3RJG1wPvP6bXbpTlWwltZ8RHxkj+CpKscXtXYB6qYEoNbASQxhb5VDH3Dcr5ddIDesf6b3AanwZvxdOSbacHvvkeGD8GdxiQMocwt6SxvSnSEqlywqdx2+YjamD5RUqgxxm2wAyfIv1l/x8bgC/PVp5FHBspjURQpKWcntwqFLhshOE0sbfxTOA0TZQpzVHZqCruBwskuknIshaK/6KGoGmZLwkuLcMdsUaPRkugZ1pkGJPQONYUQaqBwGaTBFh43bAgnSHdMNLC8tTkcDLNO2KpKW5zKT2gub/N0j4LueKVjb4TIeBSMxwIIkL7/+qRQbOu++aP3xnF48g',
        4,
        1,
      )

      der224 = upd('MC0wDQYJYIZIAWUDBAIEBQAEHA')

      der256 = upd('MDEwDQYJYIZIAWUDBAIBBQAEIA')

      return {
        sha224: function () {
          return msrcryptoSha('SHA-224', der224, h224, k256, 64, hashBlock, 224)
        },
        sha256: function () {
          return msrcryptoSha('SHA-256', der256, h256, k256, 64, hashBlock, 256)
        },
      }
    })()

    if (typeof operations !== 'undefined') {
      msrcryptoSha256.instance224 =
        msrcryptoSha256.instance224 || msrcryptoSha256.sha224()
      msrcryptoSha256.instance256 =
        msrcryptoSha256.instance256 || msrcryptoSha256.sha256()

      msrcryptoSha256.instances = {}

      msrcryptoSha256.getInstance224 = function (id) {
        return (
          msrcryptoSha256.instances[id] ||
          (msrcryptoSha256.instances[id] = msrcryptoSha256.sha224())
        )
      }

      msrcryptoSha256.getInstance256 = function (id) {
        return (
          msrcryptoSha256.instances[id] ||
          (msrcryptoSha256.instances[id] = msrcryptoSha256.sha256())
        )
      }

      msrcryptoSha256.deleteInstance = function (id) {
        msrcryptoSha256.instances[id] = null
        delete msrcryptoSha256.instances[id]
      }

      msrcryptoSha256.hash256 = function (p) {
        if (p.operationSubType === 'process') {
          msrcryptoSha256.getInstance256(p.workerid).process(p.buffer)
          return null
        }

        if (p.operationSubType === 'finish') {
          var result = msrcryptoSha256.getInstance256(p.workerid).finish()
          msrcryptoSha256.deleteInstance(p.workerid)
          return result
        }

        if (p.operationSubType === 'abort') {
          msrcryptoSha256.deleteInstance(p.workerid)
          return
        }

        return msrcryptoSha256.instance256.computeHash(p.buffer)
      }

      msrcryptoSha256.hash224 = function (p) {
        if (p.operationSubType === 'process') {
          msrcryptoSha256.getInstance224(p.workerid).process(p.buffer)
          return
        }

        if (p.operationSubType === 'finish') {
          var result = msrcryptoSha256.getInstance224(p.workerid).finish()
        }

        if (p.operationSubType === 'abort') {
          msrcryptoSha224.deleteInstance(p.workerid)
          return
        }

        return msrcryptoSha256.instance224.computeHash(p.buffer)
      }

      operations.register('digest', 'SHA-224', msrcryptoSha256.hash224)
      operations.register('digest', 'SHA-256', msrcryptoSha256.hash256)
    }

    msrcryptoHashFunctions['SHA-224'] = msrcryptoSha256.sha224
    msrcryptoHashFunctions['SHA-256'] = msrcryptoSha256.sha256

    var msrcryptoSha512 = (function () {
      var utils = msrcryptoUtilities

      function add(x0, x1, y0, y1, resultArray) {
        var lowSum = (x1 + y1) | 0

        var carry = lowSum >>> 0 < y1 >>> 0

        resultArray[0] = (x0 + y0 + carry) | 0
        resultArray[1] = lowSum

        return
      }

      function hashBlock(message, blockIndex, hv, k, w) {
        var t,
          i,
          blockBytes = 128,
          tah,
          tal,
          tbh,
          tbl,
          xh,
          xl,
          tc = [],
          td = [],
          te = [],
          index

        var ah = hv[0],
          al = hv[1],
          bh = hv[2],
          bl = hv[3],
          ch = hv[4],
          cl = hv[5],
          dh = hv[6],
          dl = hv[7],
          eh = hv[8],
          el = hv[9],
          fh = hv[10],
          fl = hv[11],
          gh = hv[12],
          gl = hv[13],
          hh = hv[14],
          hl = hv[15]

        for (t = 0; t < 32; t++) {
          index = blockIndex * blockBytes + t * 4
          w[t] = message.slice(index, index + 4)
          w[t] = (w[t][0] << 24) | (w[t][1] << 16) | (w[t][2] << 8) | w[t][3]
        }

        for (t = 32; t < 160; t += 2) {
          xh = w[t - 30]
          xl = w[t - 29]

          tah =
            ((xh >>> 1) | (xl << 31)) ^ ((xh >>> 8) | (xl << 24)) ^ (xh >>> 7)
          tal =
            ((xl >>> 1) | (xh << 31)) ^
            ((xl >>> 8) | (xh << 24)) ^
            ((xl >>> 7) | (xh << 25))

          xh = w[t - 4]
          xl = w[t - 3]

          tbh =
            ((xh >>> 19) | (xl << 13)) ^ ((xl >>> 29) | (xh << 3)) ^ (xh >>> 6)
          tbl =
            ((xl >>> 19) | (xh << 13)) ^
            ((xh >>> 29) | (xl << 3)) ^
            ((xl >>> 6) | (xh << 26))

          add(tbh, tbl, w[t - 14], w[t - 13], tc)

          add(tah, tal, tc[0], tc[1], tc)

          add(w[t - 32], w[t - 31], tc[0], tc[1], tc)

          w[t] = tc[0]
          w[t + 1] = tc[1]
        }

        for (i = 0; i < 160; i += 2) {
          tah =
            ((eh >>> 14) | (el << 18)) ^
            ((eh >>> 18) | (el << 14)) ^
            ((el >>> 9) | (eh << 23))
          tal =
            ((el >>> 14) | (eh << 18)) ^
            ((el >>> 18) | (eh << 14)) ^
            ((eh >>> 9) | (el << 23))

          tbh = (eh & fh) ^ (gh & ~eh)
          tbl = (el & fl) ^ (gl & ~el)

          add(hh, hl, tah, tal, tc)

          add(tbh, tbl, k[i], k[i + 1], td)

          add(tc[0], tc[1], w[i], w[i + 1], te)

          add(td[0], td[1], te[0], te[1], te)

          add(te[0], te[1], dh, dl, tc)
          dh = tc[0]
          dl = tc[1]

          tal =
            ((al >>> 28) | (ah << 4)) ^
            ((ah >>> 2) | (al << 30)) ^
            ((ah >>> 7) | (al << 25))
          tah =
            ((ah >>> 28) | (al << 4)) ^
            ((al >>> 2) | (ah << 30)) ^
            ((al >>> 7) | (ah << 25))

          tbl = (al & (bl ^ cl)) ^ (bl & cl)
          tbh = (ah & (bh ^ ch)) ^ (bh & ch)

          add(te[0], te[1], tah, tal, tc)
          tah = tc[0]
          tal = tc[1]

          add(tbh, tbl, tah, tal, tc)
          tah = tc[0]
          tal = tc[1]

          hh = gh
          hl = gl
          gh = fh
          gl = fl
          fh = eh
          fl = el
          eh = dh
          el = dl
          dh = ch
          dl = cl
          ch = bh
          cl = bl
          bh = ah
          bl = al
          ah = tah
          al = tal
        }

        add(hv[0], hv[1], ah, al, tc)
        hv[0] = tc[0]
        hv[1] = tc[1]

        add(hv[2], hv[3], bh, bl, tc)
        hv[2] = tc[0]
        hv[3] = tc[1]

        add(hv[4], hv[5], ch, cl, tc)
        hv[4] = tc[0]
        hv[5] = tc[1]

        add(hv[6], hv[7], dh, dl, tc)
        hv[6] = tc[0]
        hv[7] = tc[1]

        add(hv[8], hv[9], eh, el, tc)
        hv[8] = tc[0]
        hv[9] = tc[1]

        add(hv[10], hv[11], fh, fl, tc)
        hv[10] = tc[0]
        hv[11] = tc[1]

        add(hv[12], hv[13], gh, gl, tc)
        hv[12] = tc[0]
        hv[13] = tc[1]

        add(hv[14], hv[15], hh, hl, tc)
        hv[14] = tc[0]
        hv[15] = tc[1]

        return hv
      }

      var h384,
        h512,
        k512,
        der384,
        der512,
        der512_224,
        der512_256,
        upd = utils.unpackData

      h384 = upd(
        'y7udXcEFnthimikqNnzVB5FZAVowcN0XFS/s2PcOWTlnMyZn/8ALMY60SodoWBUR2wwuDWT5j6dHtUgdvvpPpA==',
        4,
        1,
      )

      h512 = upd(
        'agnmZ/O8yQi7Z66FhMqnOzxu83L+lPgrpU/1Ol8dNvFRDlJ/reaC0ZsFaIwrPmwfH4PZq/tBvWtb4M0ZE34heQ',
        4,
        1,
      )

      k512 = upd(
        'QoovmNcoriJxN0SRI+9lzbXA+8/sTTsv6bXbpYGJ27w5VsJb80i1OFnxEfG2BdAZkj+CpK8ZT5urHF7' +
          'V2m2BGNgHqpijAwJCEoNbAUVwb74kMYW+TuSyjFUMfcPV/7Ticr5ddPJ7iW+A3rH+OxaWsZvcBqclxx' +
          'I1wZvxdM9pJpTkm2nBnvFK0u++R4Y4TyXjD8GdxouM1bUkDKHMd6ycZS3pLG9ZKwJ1SnSEqm6m5INcs' +
          'KncvUH71Hb5iNqDEVO1mD5RUu5m36uoMcZtLbQyELADJ8iY+yE/v1l/x77vDuTG4AvzPaiPwtWnkUeT' +
          'CqclBspjUeADgm8UKSlnCg5ucCe3CoVG0i/8LhshOFwmySZNLG38WsQq7VM4DROdlbPfZQpzVIuvY95' +
          '2agq7PHeyqIHCyS5H7a7mknIshRSCNTuiv+ihTPEDZKgaZku8QjABwkuLcND4l5HHbFGjBlS+MNGS6B' +
          'nW71IY1pkGJFVlqRD0DjWFV3EgKhBqoHAyu9G4GaTBFrjS0MgeN2wIUUGrUydId0zfjuuZNLC8teGbS' +
          'Kg5HAyzxclaY07YqkrjQYrLW5zKT3dj43NoLm/z1rK4o3SPgu5d77L8eKVjb0MXL2CEyHgUofCrcozH' +
          'AggaZDnskL7/+iNjHiikUGzr3oK96b75o/eyxnkVxnF48uNyUyvKJz7O6iZhnNGGuMchwMIH6tp91s3' +
          'g6x71fU9/7m7ReAbwZ6pyF2+6CmN9xaLImKYRP5gEvvkNrhtxCzUTHEcbKNt39SMEfYQyyqt7QMckkz' +
          'yevgoVyb68Qx1nxJwQDUxMxdS+yz5Ctll/KZz8ZX4qX8tvqzrW+uxsRBmMSkdYFw==',
        4,
        1,
      )

      der384 = upd('MEEwDQYJYIZIAWUDBAICBQAEMA')
      der512 = upd('MFEwDQYJYIZIAWUDBAIDBQAEQA')
      der512_224 = upd('MC0wDQYJYIZIAWUDBAIFBQAEHA')
      der512_256 = upd('MDEwDQYJYIZIAWUDBAIGBQAEIA')

      return {
        sha384: function () {
          return msrcryptoSha(
            'SHA-384',
            der384,
            h384,
            k512,
            128,
            hashBlock,
            384,
          )
        },
        sha512: function () {
          return msrcryptoSha(
            'SHA-512',
            der512,
            h512,
            k512,
            128,
            hashBlock,
            512,
          )
        },
        sha512_224: function () {
          return msrcryptoSha(
            'SHA-512.224',
            der512_224,
            h512,
            k512,
            128,
            hashBlock,
            224,
          )
        },
        sha512_256: function () {
          return msrcryptoSha(
            'SHA-512.256',
            der512_256,
            h512,
            k512,
            128,
            hashBlock,
            256,
          )
        },
      }
    })()

    if (typeof operations !== 'undefined') {
      msrcryptoSha512.instances = {}

      msrcryptoSha512.getInstance384 = function (id) {
        return (
          msrcryptoSha512.instances[id] ||
          (msrcryptoSha512.instances[id] = msrcryptoSha512.sha384())
        )
      }

      msrcryptoSha512.getInstance512 = function (id) {
        return (
          msrcryptoSha512.instances[id] ||
          (msrcryptoSha512.instances[id] = msrcryptoSha512.sha512())
        )
      }

      msrcryptoSha512.deleteInstance = function (id) {
        msrcryptoSha512.instances[id] = null
        delete msrcryptoSha512.instances[id]
      }

      msrcryptoSha512.hash384 = function (p) {
        if (p.operationSubType === 'process') {
          msrcryptoSha512.sha384.process(p.buffer)
          return
        }

        if (p.operationSubType === 'finish') {
          return msrcryptoSha512.sha384.finish()
        }

        return msrcryptoSha512.sha384().computeHash(p.buffer)
      }

      msrcryptoSha512.hash512 = function (p) {
        if (p.operationSubType === 'process') {
          msrcryptoSha512.sha512.process(p.buffer)
          return
        }

        if (p.operationSubType === 'finish') {
          return msrcryptoSha512.sha512.finish()
        }

        return msrcryptoSha512.sha512().computeHash(p.buffer)
      }

      operations.register('digest', 'SHA-384', msrcryptoSha512.hash384)
      operations.register('digest', 'SHA-512', msrcryptoSha512.hash512)
    }

    msrcryptoHashFunctions['SHA-384'] = msrcryptoSha512.sha384
    msrcryptoHashFunctions['SHA-512'] = msrcryptoSha512.sha512

    var msrcryptoHmac = function (keyBytes, hashFunction) {
      var blockSize =
        {
          384: 128,
          512: 128,
        }[hashFunction.name.replace(/SHA-/, '')] || 64
      var ipad
      var opad
      var paddedKey = padKey()
      var keyXorOpad
      var keyXorIpad
      var k0IpadText

      function xorArrays(array1, array2) {
        var newArray = new Array(array1)
        for (var j = 0; j < array1.length; j++) {
          newArray[j] = array1[j] ^ array2[j]
        }
        return newArray
      }

      function padZeros(bytes, paddedLength) {
        var paddedArray = bytes.slice()
        for (var j = bytes.length; j < paddedLength; j++) {
          paddedArray.push(0)
        }
        return paddedArray
      }

      function padKey() {
        if (keyBytes.length === blockSize) {
          return keyBytes
        }

        if (keyBytes.length > blockSize) {
          return padZeros(hashFunction.computeHash(keyBytes), blockSize)
        }

        return padZeros(keyBytes, blockSize)
      }

      function processHmac(messageBytes) {
        if (!k0IpadText) {
          k0IpadText = keyXorIpad.concat(messageBytes)
          hashFunction.process(k0IpadText)
        } else {
          hashFunction.process(messageBytes)
        }
        return
      }

      function finishHmac() {
        var hashK0IpadText = hashFunction.finish()

        var k0IpadK0OpadText = keyXorOpad.concat(hashK0IpadText)

        return hashFunction.computeHash(k0IpadK0OpadText)
      }

      function clearState() {
        keyBytes = null
        hashFunction = null
        paddedKey = null
      }

      ipad = new Array(blockSize)
      opad = new Array(blockSize)
      for (var i = 0; i < blockSize; i++) {
        ipad[i] = 0x36
        opad[i] = 0x5c
      }
      keyXorIpad = xorArrays(paddedKey, ipad)
      keyXorOpad = xorArrays(paddedKey, opad)
      return {
        computeHmac: function (dataBytes, key, hashAlgorithm) {
          processHmac(dataBytes)
          var result = finishHmac()
          clearState()
          return result
        },

        process: function (dataBytes, key, hashAlgorithm) {
          processHmac(dataBytes)
          return null
        },

        finish: function (key, hashAlgorithm) {
          var result = finishHmac()
          clearState()
          return result
        },
      }
    }

    if (typeof operations !== 'undefined') {
      var hmacInstances = {}

      msrcryptoHmac.signHmac = function (p) {
        var hashName = p.keyHandle.algorithm.hash.name.toUpperCase(),
          hashAlg = msrcryptoHashFunctions[hashName](),
          result,
          id = p.workerid

        if (!hmacInstances[id]) {
          hmacInstances[id] = msrcryptoHmac(p.keyData, hashAlg)
        }

        if (p.operationSubType === 'process') {
          hmacInstances[id].process(p.buffer)
          return null
        }

        if (p.operationSubType === 'finish') {
          result = hmacInstances[id].finish()
          hmacInstances[id] = null
          return result
        }

        result = hmacInstances[id].computeHmac(p.buffer)
        hmacInstances[id] = null
        return result
      }

      msrcryptoHmac.verifyHmac = function (p) {
        var hashName = p.keyHandle.algorithm.hash.name.toUpperCase(),
          hashAlg = msrcryptoHashFunctions[hashName](),
          result,
          id = p.workerid

        if (!hmacInstances[id]) {
          hmacInstances[id] = msrcryptoHmac(p.keyData, hashAlg)
        }

        if (p.operationSubType === 'process') {
          hmacInstances[id].process(p.buffer)
          return null
        }

        if (p.operationSubType === 'finish') {
          result = hmacInstances[id].finish()
          result = msrcryptoUtilities.arraysEqual(result, p.signature)
          hmacInstances[id] = null
          return result
        }

        result = hmacInstances[id].computeHmac(p.buffer)
        result = msrcryptoUtilities.arraysEqual(result, p.signature)
        hmacInstances[id] = null
        return result
      }

      msrcryptoHmac.generateKey = function (p) {
        var defaultKeyLengths = {
          'SHA-1': 64,
          'SHA-224': 64,
          'SHA-256': 64,
          'SHA-384': 128,
          'SHA-512': 128,
        }

        var keyLength = p.algorithm.length

        if (!keyLength) {
          keyLength = defaultKeyLengths[p.algorithm.hash.name.toUpperCase()]
        }

        return {
          type: 'keyGeneration',
          keyData: msrcryptoPseudoRandom.getBytes(keyLength),
          keyHandle: {
            algorithm: p.algorithm,
            extractable: p.extractable,
            usages: null || p.usages,
            type: 'secret',
          },
        }
      }

      msrcryptoHmac.importKey = function (p) {
        var keyObject,
          keyBits = p.keyData.length * 8

        if (p.format === 'jwk') {
          keyObject = msrcryptoJwk.jwkToKey(p.keyData, p.algorithm, ['k'])
          keyObject.alg = keyObject.alg.replace('HS', 'SHA-')
        } else if (p.format === 'raw') {
          keyObject = {
            k: msrcryptoUtilities.toArray(p.keyData),
          }
        } else {
          throw new Error('unsupported import format')
        }

        return {
          type: 'keyImport',
          keyData: keyObject.k,
          keyHandle: {
            algorithm: {
              name: 'HMAC',
              hash: {
                name: p.algorithm.hash.name,
              },
            },
            extractable: p.extractable || keyObject.extractable,
            usages: p.usages,
            type: 'secret',
          },
        }
      }

      msrcryptoHmac.exportKey = function (p) {
        if (p.format === 'jwk') {
          return {
            type: 'keyExport',
            keyHandle: msrcryptoJwk.keyToJwk(p.keyHandle, p.keyData),
          }
        }

        if (p.format === 'raw') {
          return {
            type: 'keyExport',
            keyHandle: p.keyData,
          }
        }

        throw new Error('unsupported export format')
      }

      operations.register('importKey', 'HMAC', msrcryptoHmac.importKey)
      operations.register('exportKey', 'HMAC', msrcryptoHmac.exportKey)
      operations.register('generateKey', 'HMAC', msrcryptoHmac.generateKey)
      operations.register('sign', 'HMAC', msrcryptoHmac.signHmac)
      operations.register('verify', 'HMAC', msrcryptoHmac.verifyHmac)
    }

    var msrcryptoBlockCipher = (function () {
      var aesConstants,
        x2,
        x3,
        x14,
        x13,
        x11,
        x9,
        sBoxTable,
        invSBoxTable,
        rConTable

      return {
        aes: function (keyBytes) {
          if (!aesConstants) {
            aesConstants = msrcryptoUtilities.unpackData(
              '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',
              256,
              false,
            )
            x2 = aesConstants[0]
            x3 = aesConstants[1]
            x14 = aesConstants[2]
            x13 = aesConstants[3]
            x11 = aesConstants[4]
            x9 = aesConstants[5]
            sBoxTable = aesConstants[6]
            invSBoxTable = aesConstants[7]
            rConTable = aesConstants[8]
          }

          var blockSize = 128,
            keyLength,
            nK,
            nB = 4,
            nR,
            key

          keyLength = keyBytes.length * 8

          switch (keyLength) {
            case 128:
            case 192:
            case 256:
              break
            default:
              throw new Error('Unsupported keyLength')
          }

          nK = keyLength / 32
          nR = nK + 6

          var shiftRows = function (a) {
            var tmp = a[1]
            a[1] = a[5]
            a[5] = a[9]
            a[9] = a[13]
            a[13] = tmp
            tmp = a[2]
            a[2] = a[10]
            a[10] = tmp
            tmp = a[6]
            a[6] = a[14]
            a[14] = tmp
            tmp = a[15]
            a[15] = a[11]
            a[11] = a[7]
            a[7] = a[3]
            a[3] = tmp
          }

          var invShiftRows = function (a) {
            var tmp = a[13]
            a[13] = a[9]
            a[9] = a[5]
            a[5] = a[1]
            a[1] = tmp
            tmp = a[10]
            a[10] = a[2]
            a[2] = tmp
            tmp = a[14]
            a[14] = a[6]
            a[6] = tmp
            tmp = a[3]
            a[3] = a[7]
            a[7] = a[11]
            a[11] = a[15]
            a[15] = tmp
          }

          var mixColumns = function (state) {
            var a = state[0],
              b = state[1],
              c = state[2],
              d = state[3],
              e = state[4],
              f = state[5],
              g = state[6],
              h = state[7],
              i = state[8],
              j = state[9],
              k = state[10],
              l = state[11],
              m = state[12],
              n = state[13],
              o = state[14],
              p = state[15]

            state[0] = x2[a] ^ x3[b] ^ c ^ d
            state[1] = a ^ x2[b] ^ x3[c] ^ d
            state[2] = a ^ b ^ x2[c] ^ x3[d]
            state[3] = x3[a] ^ b ^ c ^ x2[d]
            state[4] = x2[e] ^ x3[f] ^ g ^ h
            state[5] = e ^ x2[f] ^ x3[g] ^ h
            state[6] = e ^ f ^ x2[g] ^ x3[h]
            state[7] = x3[e] ^ f ^ g ^ x2[h]
            state[8] = x2[i] ^ x3[j] ^ k ^ l
            state[9] = i ^ x2[j] ^ x3[k] ^ l
            state[10] = i ^ j ^ x2[k] ^ x3[l]
            state[11] = x3[i] ^ j ^ k ^ x2[l]
            state[12] = x2[m] ^ x3[n] ^ o ^ p
            state[13] = m ^ x2[n] ^ x3[o] ^ p
            state[14] = m ^ n ^ x2[o] ^ x3[p]
            state[15] = x3[m] ^ n ^ o ^ x2[p]
          }

          var invMixColumns = function (state) {
            var a = state[0],
              b = state[1],
              c = state[2],
              d = state[3],
              e = state[4],
              f = state[5],
              g = state[6],
              h = state[7],
              i = state[8],
              j = state[9],
              k = state[10],
              l = state[11],
              m = state[12],
              n = state[13],
              o = state[14],
              p = state[15]

            state[0] = x14[a] ^ x11[b] ^ x13[c] ^ x9[d]
            state[1] = x9[a] ^ x14[b] ^ x11[c] ^ x13[d]
            state[2] = x13[a] ^ x9[b] ^ x14[c] ^ x11[d]
            state[3] = x11[a] ^ x13[b] ^ x9[c] ^ x14[d]
            state[4] = x14[e] ^ x11[f] ^ x13[g] ^ x9[h]
            state[5] = x9[e] ^ x14[f] ^ x11[g] ^ x13[h]
            state[6] = x13[e] ^ x9[f] ^ x14[g] ^ x11[h]
            state[7] = x11[e] ^ x13[f] ^ x9[g] ^ x14[h]
            state[8] = x14[i] ^ x11[j] ^ x13[k] ^ x9[l]
            state[9] = x9[i] ^ x14[j] ^ x11[k] ^ x13[l]
            state[10] = x13[i] ^ x9[j] ^ x14[k] ^ x11[l]
            state[11] = x11[i] ^ x13[j] ^ x9[k] ^ x14[l]
            state[12] = x14[m] ^ x11[n] ^ x13[o] ^ x9[p]
            state[13] = x9[m] ^ x14[n] ^ x11[o] ^ x13[p]
            state[14] = x13[m] ^ x9[n] ^ x14[o] ^ x11[p]
            state[15] = x11[m] ^ x13[n] ^ x9[o] ^ x14[p]
          }

          var xorWord = function (a, b) {
            return [a[0] ^ b[0], a[1] ^ b[1], a[2] ^ b[2], a[3] ^ b[3]]
          }

          var addRoundKey = function (state, keySchedule, offset) {
            for (var i = 0; i < state.length; i += 1) {
              state[i] ^= keySchedule[i + offset]
            }
          }

          var rotWord = function (word) {
            var a = word[0]
            word[0] = word[1]
            word[1] = word[2]
            word[2] = word[3]
            word[3] = a
          }

          var subWord = function (word) {
            for (var i = 0; i < word.length; i += 1) {
              word[i] = sBoxTable[word[i]]
            }
          }

          var invSubWord = function (word) {
            for (var i = 0; i < word.length; i += 1) {
              word[i] = invSBoxTable[word[i]]
            }
          }

          var getWord = function (tab, i) {
            return [tab[4 * i], tab[4 * i + 1], tab[4 * i + 2], tab[4 * i + 3]]
          }

          var setWord = function (left, right, indexL, indexR) {
            left[4 * indexL] = right[4 * indexR]
            left[4 * indexL + 1] = right[4 * indexR + 1]
            left[4 * indexL + 2] = right[4 * indexR + 2]
            left[4 * indexL + 3] = right[4 * indexR + 3]
          }

          var expandKey = function (keyIn) {
            var temp,
              res = [],
              i = 0
            while (i < 4 * nK) {
              res.push(keyIn[i++])
            }

            i = nK
            while (i < nB * (nR + 1)) {
              temp = getWord(res, i - 1)
              if (i % nK === 0) {
                var index = i / nK
                var rcon = [rConTable[index], 0, 0, 0]
                rotWord(temp)
                subWord(temp)
                temp = xorWord(temp, rcon)
              } else if (nK > 6 && i % nK === 4) {
                subWord(temp)
              }
              var newWord = xorWord(getWord(res, i - nK), temp)
              setWord(res, newWord, i, 0)
              i += 1
            }
            return res
          }

          key = expandKey(keyBytes)

          return {
            encrypt: function (dataBytes) {
              var state = dataBytes,
                round

              addRoundKey(state, key, 0)
              for (round = 1; round <= nR - 1; round += 1) {
                subWord(state)
                shiftRows(state)
                mixColumns(state)
                addRoundKey(state, key, 4 * round * nB)
              }
              subWord(state)
              shiftRows(state)
              addRoundKey(state, key, 4 * nR * nB)

              return state
            },

            decrypt: function (dataBytes) {
              var state = dataBytes,
                round

              addRoundKey(state, key, 4 * nR * nB)
              for (round = nR - 1; round >= 1; round -= 1) {
                invShiftRows(state)
                invSubWord(state)
                addRoundKey(state, key, 4 * round * nB)
                invMixColumns(state)
              }
              invShiftRows(state)
              invSubWord(state)
              addRoundKey(state, key, 0)

              return state
            },

            clear: function () {},

            keyLength: keyLength,

            blockSize: blockSize,
          }
        },
      }
    })()

    var msrcryptoPadding = msrcryptoPadding || {}

    msrcryptoPadding.pkcsv7 = function (blockSize) {
      function pad(messageBlocks) {
        var lastIndex =
          messageBlocks.length - 1 >= 0 ? messageBlocks.length - 1 : 0
        var lastBlock = messageBlocks[lastIndex]
        var lastBlockLength = lastBlock.length
        var createNewBlock = lastBlockLength === blockSize

        if (createNewBlock) {
          var newBlock = []
          var i
          for (i = 0; i < blockSize; i += 1) {
            newBlock.push(blockSize)
          }
          messageBlocks.push(newBlock)
        } else {
          var byteToAdd = (blockSize - lastBlockLength) & 0xff
          while (lastBlock.length !== blockSize) {
            lastBlock.push(byteToAdd)
          }
        }
      }

      function unpad(messageBytes) {
        var verified = true

        if (messageBytes.length % blockSize !== 0) {
          verified = false
        }

        var lastBlock = messageBytes.slice(-blockSize)

        var padLen = lastBlock[lastBlock.length - 1]

        for (var i = 0; i < blockSize; i++) {
          var isPaddingElement = blockSize - i <= padLen
          var isCorrectValue = lastBlock[i] === padLen
          verified = (isPaddingElement ? isCorrectValue : true) && verified
        }

        var trimLen = verified ? padLen : 0

        messageBytes.length -= trimLen

        return verified
      }

      return {
        pad: pad,
        unpad: unpad,
      }
    }

    var msrcryptoCbc = function (blockCipher) {
      var blockSize = blockCipher.blockSize / 8

      var paddingScheme = msrcryptoPadding.pkcsv7(blockSize)

      var mergeBlocks = function (tab) {
        var res = [],
          i,
          j
        for (i = 0; i < tab.length; i += 1) {
          var block = tab[i]
          for (j = 0; j < block.length; j += 1) {
            res.push(block[j])
          }
        }
        return res
      }

      function getBlocks(dataBytes) {
        var blocks = []

        mBuffer = mBuffer.concat(dataBytes)

        var blockCount = Math.floor(mBuffer.length / blockSize)

        for (var i = 0; i < blockCount; i++) {
          blocks.push(mBuffer.slice(i * blockSize, (i + 1) * blockSize))
        }

        mBuffer = mBuffer.slice(blockCount * blockSize)

        return blocks
      }

      function encryptBlocks(blocks) {
        var result = [],
          toEncrypt

        for (var i = 0; i < blocks.length; i++) {
          toEncrypt = msrcryptoUtilities.xorVectors(mIvBytes, blocks[i])
          result.push(blockCipher.encrypt(toEncrypt))
          mIvBytes = result[i]
        }

        return result
      }

      function decryptBlocks(blocks) {
        var result = [],
          toDecrypt,
          decrypted

        for (var i = 0; i < blocks.length; i += 1) {
          toDecrypt = blocks[i].slice(0, blocks[i].length)
          decrypted = blockCipher.decrypt(toDecrypt)
          result.push(msrcryptoUtilities.xorVectors(mIvBytes, decrypted))
          mIvBytes = blocks[i]
        }

        return result
      }

      function clearState() {
        mBuffer = []
        mResultBuffer = []
        mIvBytes = null
      }

      var mBuffer = [],
        mResultBuffer = [],
        mIvBytes

      return {
        init: function (ivBytes) {
          if (ivBytes.length !== blockSize) {
            throw new Error('Invalid iv size')
          }

          mIvBytes = ivBytes.slice()
        },

        encrypt: function (plainBytes) {
          var result = encryptBlocks(getBlocks(plainBytes))
          mResultBuffer = mResultBuffer.concat(mergeBlocks(result))

          return this.finishEncrypt()
        },

        processEncrypt: function (plainBytes) {
          var result = mergeBlocks(encryptBlocks(getBlocks(plainBytes)))

          return result
        },

        finishEncrypt: function () {
          var blocks = mBuffer.length === 1 ? [[mBuffer[0]]] : [mBuffer]

          paddingScheme.pad(blocks)

          var result = mResultBuffer.concat(mergeBlocks(encryptBlocks(blocks)))

          clearState()

          return result
        },

        decrypt: function (cipherBytes) {
          this.processDecrypt(cipherBytes)

          return this.finishDecrypt()
        },

        processDecrypt: function (cipherBytes) {
          var result = decryptBlocks(getBlocks(cipherBytes))

          mResultBuffer = mResultBuffer.concat(mergeBlocks(result))

          return
        },

        finishDecrypt: function () {
          var result = mResultBuffer

          var verified = paddingScheme.unpad(result)

          clearState()

          return result
        },
      }
    }

    if (typeof operations !== 'undefined') {
      var cbcInstances = {}

      msrcryptoCbc.workerEncrypt = function (p) {
        var result,
          id = p.workerid

        if (!cbcInstances[id]) {
          cbcInstances[id] = msrcryptoCbc(msrcryptoBlockCipher.aes(p.keyData))
          cbcInstances[id].init(p.algorithm.iv)
        }

        if (p.operationSubType === 'process') {
          return cbcInstances[id].processEncrypt(p.buffer)
        }

        if (p.operationSubType === 'finish') {
          result = cbcInstances[id].finishEncrypt()
          cbcInstances[id] = null
          return result
        }

        result = cbcInstances[id].encrypt(p.buffer)
        cbcInstances[id] = null
        return result
      }

      msrcryptoCbc.workerDecrypt = function (p) {
        var result,
          id = p.workerid

        if (!cbcInstances[id]) {
          cbcInstances[id] = msrcryptoCbc(msrcryptoBlockCipher.aes(p.keyData))
          cbcInstances[id].init(p.algorithm.iv)
        }

        if (p.operationSubType === 'process') {
          cbcInstances[id].processDecrypt(p.buffer)
          return
        }

        if (p.operationSubType === 'finish') {
          result = cbcInstances[id].finishDecrypt()
          cbcInstances[id] = null
          return result
        }

        result = cbcInstances[id].decrypt(p.buffer)
        cbcInstances[id] = null
        return result
      }

      msrcryptoCbc.generateKey = function (p) {
        if (p.algorithm.length % 8 !== 0) {
          throw new Error()
        }

        return {
          type: 'keyGeneration',
          keyData: msrcryptoPseudoRandom.getBytes(
            Math.floor(p.algorithm.length / 8),
          ),
          keyHandle: {
            algorithm: p.algorithm,
            extractable: p.extractable,
            usages: null || p.usages,
            type: 'secret',
          },
        }
      }

      msrcryptoCbc.importKey = function (p) {
        var keyObject
        var keyBits = p.keyData.length * 8

        if (p.format === 'jwk') {
          keyObject = msrcryptoJwk.jwkToKey(p.keyData, p.algorithm, ['k'])
        } else if (p.format === 'raw') {
          if (keyBits !== 128 && keyBits !== 192 && keyBits !== 256) {
            throw new Error(
              'invalid key length (should be 128, 192, or 256 bits)',
            )
          }
          keyObject = {
            k: msrcryptoUtilities.toArray(p.keyData),
          }
        } else {
          throw new Error('unsupported import format')
        }

        p.algorithm.length = keyObject.k.length * 8

        return {
          keyData: keyObject.k,
          keyHandle: {
            algorithm: p.algorithm,
            extractable: p.extractable || keyObject.extractable,
            usages: null || p.usages,
            type: 'secret',
          },
          type: 'keyImport',
        }
      }

      msrcryptoCbc.exportKey = function (p) {
        if (p.format === 'jwk') {
          return {
            type: 'keyExport',
            keyHandle: msrcryptoJwk.keyToJwk(p.keyHandle, p.keyData),
          }
        }

        if (p.format === 'raw') {
          return {
            type: 'keyExport',
            keyHandle: p.keyData,
          }
        }

        throw new Error('unsupported export format')
      }

      operations.register('importKey', 'AES-CBC', msrcryptoCbc.importKey)
      operations.register('exportKey', 'AES-CBC', msrcryptoCbc.exportKey)
      operations.register('generateKey', 'AES-CBC', msrcryptoCbc.generateKey)
      operations.register('encrypt', 'AES-CBC', msrcryptoCbc.workerEncrypt)
      operations.register('decrypt', 'AES-CBC', msrcryptoCbc.workerDecrypt)
    }

    var msrcryptoGcm = function (blockCipher) {
      var utils = msrcryptoUtilities

      var mBuffer = [],
        mIvBytes,
        mAdditionalBytes,
        mTagLength,
        mJ0,
        mJ0inc,
        mH = blockCipher.encrypt(utils.getVector(16)),
        mGHashState = utils.getVector(16),
        mGHashBuffer = [],
        mCipherText = [],
        mGctrCb,
        mBytesProcessed = 0

      function ghash(hashSubkey, dataBytes) {
        var blockCount = Math.floor(dataBytes.length / 16),
          dataBlock

        for (var i = 0; i < blockCount; i++) {
          dataBlock = dataBytes.slice(i * 16, i * 16 + 16)
          mGHashState = blockMultiplication(
            utils.xorVectors(mGHashState, dataBlock),
            hashSubkey,
          )
        }

        mGHashBuffer = dataBytes.slice(blockCount * 16)

        return mGHashState
      }

      function finishGHash() {
        var u = 16 * Math.ceil(mBytesProcessed / 16) - mBytesProcessed

        var lenA = numberTo8Bytes(mAdditionalBytes.length * 8),
          lenC = numberTo8Bytes(mBytesProcessed * 8)

        var p = mGHashBuffer
          .concat(utils.getVector(u))
          .concat(lenA)
          .concat(lenC)

        return ghash(mH, p)
      }

      function blockMultiplication(blockX, blockY) {
        var z = utils.getVector(16),
          v = blockY.slice(0),
          mask,
          j,
          i

        for (i = 0; i < 128; i++) {
          mask = -getBit(blockX, i) & 0xff

          for (j = 0; j < 16; j++) {
            z[j] = z[j] ^ (v[j] & mask)
          }

          mask = -(v[15] & 1) & 0xff

          shiftRight(v)

          v[0] ^= 0xe1 & mask
        }

        return z
      }

      function shiftRight(dataBytes) {
        for (var i = dataBytes.length - 1; i > 0; i--) {
          dataBytes[i] = ((dataBytes[i - 1] & 1) << 7) | (dataBytes[i] >>> 1)
        }
        dataBytes[0] = dataBytes[0] >>> 1

        return dataBytes
      }

      function getBit(byteArray, bitNumber) {
        var byteIndex = Math.floor(bitNumber / 8)
        return (byteArray[byteIndex] >> (7 - (bitNumber % 8))) & 1
      }

      function inc(dataBytes) {
        var carry = 256
        for (var i = 1; i <= 4; i++) {
          carry = (carry >>> 8) + dataBytes[dataBytes.length - i]
          dataBytes[dataBytes.length - i] = carry & 255
        }

        return dataBytes
      }

      function gctr(icb, dataBytes) {
        var blockCount = Math.ceil(dataBytes.length / 16),
          dataBlock,
          result = []

        if (mGctrCb !== icb) {
          mGctrCb = icb.slice()
        }

        for (var block = 0; block < blockCount; block++) {
          dataBlock = dataBytes.slice(block * 16, block * 16 + 16)

          var e = blockCipher.encrypt(mGctrCb.slice())

          result = result.concat(utils.xorVectors(dataBlock, e))

          mGctrCb = inc(mGctrCb)
        }

        return result
      }

      function numberTo8Bytes(integer) {
        return [
          0,
          0,
          0,
          0,
          (integer >>> 24) & 255,
          (integer >>> 16) & 255,
          (integer >>> 8) & 255,
          integer & 255,
        ]
      }

      function padBlocks(dataBytes) {
        var padLen =
          16 * Math.ceil(mAdditionalBytes.length / 16) - mAdditionalBytes.length
        return dataBytes.concat(utils.getVector(padLen))
      }

      function clearState() {
        mBytesProcessed = 0
        mBuffer = []
        mCipherText = []
        mGHashState = utils.getVector(16)
        mGHashBuffer = []
        mGctrCb = mIvBytes = mAdditionalBytes = null
      }

      function init(ivBytes, additionalBytes, tagLength) {
        mAdditionalBytes = additionalBytes || []

        mTagLength = isNaN(tagLength) ? 128 : tagLength
        if (mTagLength % 8 !== 0) {
          throw new Error('DataError')
        }

        mIvBytes = ivBytes

        if (mIvBytes.length === 12) {
          mJ0 = mIvBytes.concat([0, 0, 0, 1])
        } else {
          var l = 16 * Math.ceil(mIvBytes.length / 16) - mIvBytes.length

          mJ0 = ghash(
            mH,
            mIvBytes
              .concat(utils.getVector(l + 8))
              .concat(numberTo8Bytes(mIvBytes.length * 8)),
          )

          mGHashState = utils.getVector(16)
        }

        mJ0inc = inc(mJ0.slice())

        ghash(mH, padBlocks(mAdditionalBytes))
      }

      function encrypt(plainBytes) {
        mBytesProcessed = plainBytes.length

        var c = gctr(mJ0inc, plainBytes)

        ghash(mH, c)

        var s = finishGHash()

        var t = gctr(mJ0, s).slice(0, mTagLength / 8)

        clearState()

        return c.slice().concat(t)
      }

      function decrypt(cipherBytes, tagBytes) {
        mBytesProcessed = cipherBytes.length

        var p = gctr(mJ0inc, cipherBytes)

        ghash(mH, cipherBytes)

        var s = finishGHash()

        var t = gctr(mJ0, s).slice(0, mTagLength / 8)

        clearState()

        if (utils.arraysEqual(t, tagBytes)) {
          return p
        } else {
          return null
        }
      }

      function processEncrypt(plainBytes) {
        mBuffer = mBuffer.concat(plainBytes)

        var fullBlocks = mBuffer.slice(0, Math.floor(mBuffer.length / 16) * 16)

        mBytesProcessed += fullBlocks.length

        mBuffer = mBuffer.slice(fullBlocks.length)

        var c = gctr(mGctrCb || mJ0inc, fullBlocks)

        mCipherText = mCipherText.concat(c)

        ghash(mH, c)
      }

      function processDecrypt(cipherBytes) {
        mBuffer = mBuffer.concat(cipherBytes)

        var fullBlocks = mBuffer.slice(
          0,
          Math.floor((mBuffer.length - mTagLength / 8) / 16) * 16,
        )

        mBytesProcessed += fullBlocks.length

        mBuffer = mBuffer.slice(fullBlocks.length)

        var c = gctr(mGctrCb || mJ0inc, fullBlocks)

        mCipherText = mCipherText.concat(c)

        ghash(mH, fullBlocks)
      }

      function finishEncrypt() {
        var c = gctr(mGctrCb, mBuffer)

        mCipherText = mCipherText.concat(c)

        mBytesProcessed += mBuffer.length

        var s = finishGHash()

        var t = gctr(mJ0, s).slice(0, mTagLength / 8)

        var result = mCipherText.slice().concat(t)

        clearState()

        return result
      }

      function finishDecrypt() {
        var tagLength = Math.floor(mTagLength / 8)

        var tagBytes = mBuffer.slice(-tagLength)

        mBuffer = mBuffer.slice(0, mBuffer.length - tagLength)

        var c = gctr(mGctrCb, mBuffer)

        mCipherText = mCipherText.concat(c)

        mBytesProcessed += mBuffer.length

        var s = finishGHash()

        var t = gctr(mJ0, s).slice(0, mTagLength / 8)

        var result = mCipherText.slice()

        clearState()

        if (utils.arraysEqual(t, tagBytes)) {
          return result
        } else {
          return null
        }
      }

      return {
        init: init,
        encrypt: encrypt,
        decrypt: decrypt,
        processEncrypt: processEncrypt,
        processDecrypt: processDecrypt,
        finishEncrypt: finishEncrypt,
        finishDecrypt: finishDecrypt,
      }
    }

    if (typeof operations !== 'undefined') {
      var gcmInstances = {}

      msrcryptoGcm.encrypt = function (p) {
        var result,
          id = p.workerid

        if (!gcmInstances[id]) {
          gcmInstances[id] = msrcryptoGcm(msrcryptoBlockCipher.aes(p.keyData))
          gcmInstances[id].init(
            p.algorithm.iv,
            p.algorithm.additionalData,
            p.algorithm.tagLength,
          )
        }

        if (p.operationSubType === 'process') {
          gcmInstances[id].processEncrypt(p.buffer)
          return
        }

        if (p.operationSubType === 'finish') {
          result = gcmInstances[id].finishEncrypt()
          gcmInstances[id] = null
          return result
        }

        result = gcmInstances[id].encrypt(p.buffer)
        gcmInstances[id] = null
        return result
      }

      msrcryptoGcm.decrypt = function (p) {
        var result,
          id = p.workerid

        if (!gcmInstances[id]) {
          gcmInstances[id] = msrcryptoGcm(msrcryptoBlockCipher.aes(p.keyData))
          gcmInstances[id].init(
            p.algorithm.iv,
            p.algorithm.additionalData,
            p.algorithm.tagLength,
          )
        }

        if (p.operationSubType === 'process') {
          gcmInstances[id].processDecrypt(p.buffer)
          return
        }

        if (p.operationSubType === 'finish') {
          result = gcmInstances[id].finishDecrypt()
          gcmInstances[id] = null
          if (result === null) {
            throw new Error('OperationError')
          }
          return result
        }

        var tagLength = p.algorithm.tagLength
          ? Math.floor(p.algorithm.tagLength / 8)
          : 16
        var cipherBytes = p.buffer.slice(0, p.buffer.length - tagLength)
        var tagBytes = p.buffer.slice(-tagLength)

        result = gcmInstances[id].decrypt(cipherBytes, tagBytes)
        gcmInstances[id] = null

        if (result === null) {
          throw new Error('OperationError')
        }

        return result
      }

      msrcryptoGcm.generateKey = function (p) {
        if (p.algorithm.length % 8 !== 0) {
          throw new Error()
        }

        return {
          type: 'keyGeneration',
          keyData: msrcryptoPseudoRandom.getBytes(
            Math.floor(p.algorithm.length / 8),
          ),
          keyHandle: {
            algorithm: p.algorithm,
            extractable: p.extractable,
            usages: null || p.usages,
            type: 'secret',
          },
        }
      }

      msrcryptoGcm.importKey = function (p) {
        var keyObject,
          keyBits = p.keyData.length * 8

        if (p.format === 'jwk') {
          keyObject = msrcryptoJwk.jwkToKey(p.keyData, p.algorithm, ['k'])
        } else if (p.format === 'raw') {
          if (keyBits !== 128 && keyBits !== 192 && keyBits !== 256) {
            throw new Error(
              'invalid key length (should be 128, 192, or 256 bits)',
            )
          }
          keyObject = {
            k: msrcryptoUtilities.toArray(p.keyData),
          }
        } else {
          throw new Error('unsupported import format')
        }

        return {
          type: 'keyImport',
          keyData: keyObject.k,
          keyHandle: {
            algorithm: p.algorithm,
            extractable: p.extractable || keyObject.extractable,
            usages: null || p.usages,
            type: 'secret',
          },
        }
      }

      msrcryptoGcm.exportKey = function (p) {
        if (p.format === 'jwk') {
          return {
            type: 'keyExport',
            keyHandle: msrcryptoJwk.keyToJwk(p.keyHandle, p.keyData),
          }
        }

        if (p.format === 'raw') {
          return {
            type: 'keyExport',
            keyHandle: p.keyData,
          }
        }

        throw new Error('unsupported export format')
      }

      operations.register('importKey', 'AES-GCM', msrcryptoGcm.importKey)
      operations.register('exportKey', 'AES-GCM', msrcryptoGcm.exportKey)
      operations.register('generateKey', 'AES-GCM', msrcryptoGcm.generateKey)
      operations.register('encrypt', 'AES-GCM', msrcryptoGcm.encrypt)
      operations.register('decrypt', 'AES-GCM', msrcryptoGcm.decrypt)
    }

    function MsrcryptoPrng() {
      if (!(this instanceof MsrcryptoPrng)) {
        throw new Error('create MsrcryptoPrng object with new keyword')
      }

      var initialized = false

      var key
      var v
      var keyLen
      var seedLen
      var reseedCounter = 1
      var reseedInterval = Math.pow(2, 48)

      initialize()

      function addOne(counter) {
        var i
        for (i = counter.length - 1; i >= 0; i -= 1) {
          counter[i] += 1
          if (counter[i] >= 256) {
            counter[i] = 0
          }
          if (counter[i]) {
            break
          }
        }
      }

      function initialize() {
        key = msrcryptoUtilities.getVector(32)
        v = msrcryptoUtilities.getVector(16)
        keyLen = 32
        seedLen = 48
        reseedCounter = 1
      }

      function reseed(entropy, additionalEntropy) {
        additionalEntropy = additionalEntropy || [0]
        if (additionalEntropy.length > seedLen) {
          throw new Error('Incorrect entropy or additionalEntropy length')
        }
        additionalEntropy = additionalEntropy.concat(
          msrcryptoUtilities.getVector(seedLen - additionalEntropy.length),
        )

        entropy = entropy.concat(
          msrcryptoUtilities.getVector(
            (seedLen - (entropy.length % seedLen)) % seedLen,
          ),
        )
        for (var i = 0; i < entropy.length; i += seedLen) {
          var seedMaterial = msrcryptoUtilities.xorVectors(
            entropy.slice(i, i + seedLen),
            additionalEntropy,
          )
          update(seedMaterial)
        }
        reseedCounter = 1
      }

      function update(providedData) {
        var temp = []
        var blockCipher = new msrcryptoBlockCipher.aes(key)
        while (temp.length < seedLen) {
          addOne(v)
          var toEncrypt = v.slice(0, 16)
          var outputBlock = blockCipher.encrypt(toEncrypt)
          temp = temp.concat(outputBlock)
        }
        temp = msrcryptoUtilities.xorVectors(temp, providedData)
        key = temp.slice(0, keyLen)
        v = temp.slice(keyLen)
      }

      function generate(requestedBytes, additionalInput) {
        if (requestedBytes >= 65536) {
          throw new Error('too much random requested')
        }
        if (reseedCounter > reseedInterval) {
          throw new Error('Reseeding is required')
        }
        if (additionalInput && additionalInput.length > 0) {
          while (additionalInput.length < seedLen) {
            additionalInput = additionalInput.concat(
              msrcryptoUtilities.getVector(seedLen - additionalInput.length),
            )
          }
          update(additionalInput)
        } else {
          additionalInput = msrcryptoUtilities.getVector(seedLen)
        }
        var temp = []
        var blockCipher = new msrcryptoBlockCipher.aes(key)
        while (temp.length < requestedBytes) {
          addOne(v)
          var toEncrypt = v.slice(0, v.length)
          var outputBlock = blockCipher.encrypt(toEncrypt)
          temp = temp.concat(outputBlock)
        }
        temp = temp.slice(0, requestedBytes)
        update(additionalInput)
        reseedCounter += 1
        return temp
      }

      return {
        reseed: reseed,
        getBytes: function (length, additionalInput) {
          if (!initialized) {
            throw new Error("can't get randomness before initialization")
          }
          return generate(length, additionalInput)
        },
        getNonZeroBytes: function (length, additionalInput) {
          if (!initialized) {
            throw new Error("can't get randomness before initialization")
          }
          var result = []
          var buff
          while (result.length < length) {
            buff = generate(length, additionalInput)
            for (var i = 0; i < buff.length; i += 1) {
              if (buff[i] !== 0) {
                result.push(buff[i])
              }
            }
          }
          return result.slice(0, length)
        },
        init: function (entropy, personalization) {
          if (entropy.length < seedLen) {
            throw new Error('Initial entropy length too short')
          }
          initialize()
          reseed(entropy, personalization)
          initialized = true
        },
      }
    }

    var msrcryptoPseudoRandom = new MsrcryptoPrng()

    function MsrcryptoEntropy(global) {
      var poolLength = 48
      var collectorPool = []
      var collectorPoolLength = 128
      var collectorsRegistered = 0
      var entropyPoolPrng = new MsrcryptoPrng()
      var initialized = false
      var cryptographicPRNGPresent = false
      var globalScope = global

      function collectEntropy() {
        var headerList = [
          'Cookie',
          'RedirectUri',
          'ETag',
          'x-ms-client-antiforgery-id',
          'x-ms-client-request-id',
          'x-ms-client-session-id',
          'SubscriptionPool',
        ]

        var i,
          pool = []

        for (i = 0; i < poolLength; i += 1) {
          pool[i] = Math.floor(Math.random() * 256)
        }

        var prngCrypto = globalScope.crypto || globalScope.msCrypto
        if (prngCrypto && typeof prngCrypto.getRandomValues === 'function') {
          if (global.Uint8Array) {
            var res = new global.Uint8Array(poolLength)
            prngCrypto.getRandomValues(res)
            pool = pool.concat(Array.apply(null, res))
            cryptographicPRNGPresent = true
          }
        }

        if (typeof XMLHttpRequest !== 'undefined') {
          var req = new XMLHttpRequest()
          for (i = 0; i < headerList.length; i += 1) {
            try {
              var header = req.getResponseHeader(headerList[i])
              if (header) {
                var arr = msrcryptoUtilities.stringToBytes(header)
                pool = pool.concat(arr)
              }
            } catch (err) {}
          }
        }
        if (!cryptographicPRNGPresent && canCollect) {
          pool = pool.concat(collectorPool.splice(0, collectorPool.length))
          collectors.startCollectors()
        }

        initialized ? entropyPoolPrng.reseed(pool) : entropyPoolPrng.init(pool)
        initialized = true
      }

      function updatePool(entropyData) {
        for (var i = 0; i < entropyData.length; ++i) {
          collectorPool.push(entropyData[i])
        }
        if (collectorPool.length >= collectorPoolLength) {
          collectors.stopCollectors()
        }
      }

      var canCollect =
        (global && global.addEventListener) ||
        (typeof document !== 'undefined' && document.attachEvent)
      var collectors = (function () {
        return {
          startCollectors: function () {
            if (!this.collectorsRegistered) {
              if (global.addEventListener) {
                global.addEventListener(
                  'mousemove',
                  this.MouseEventCallBack,
                  true,
                )
                global.addEventListener('load', this.LoadTimeCallBack, true)
              } else if (document.attachEvent) {
                document.attachEvent('onmousemove', this.MouseEventCallBack)
                document.attachEvent('onload', this.LoadTimeCallBack)
              } else {
                throw new Error("Can't attach events for entropy collection")
              }

              this.collectorsRegistered = 1
            }
          },
          stopCollectors: function () {
            if (this.collectorsRegistered) {
              if (global.removeEventListener) {
                global.removeEventListener(
                  'mousemove',
                  this.MouseEventCallBack,
                  1,
                )
                global.removeEventListener('load', this.LoadTimeCallBack, 1)
              } else if (global.detachEvent) {
                global.detachEvent('onmousemove', this.MouseEventCallBack)
                global.detachEvent('onload', this.LoadTimeCallBack)
              }

              this.collectorsRegistered = 0
            }
          },
          MouseEventCallBack: function (eventData) {
            var d = new Date().valueOf()
            var x = eventData.x || eventData.clientX || eventData.offsetX || 0
            var y = eventData.y || eventData.clientY || eventData.offsetY || 0
            var arr = [
              d & 0x0ff,
              (d >> 8) & 0x0ff,
              (d >> 16) & 0x0ff,
              (d >> 24) & 0x0ff,
              x & 0x0ff,
              (x >> 8) & 0x0ff,
              y & 0x0ff,
              (y >> 8) & 0x0ff,
            ]

            updatePool(arr)
          },
          LoadTimeCallBack: function () {
            var d = new Date().valueOf()
            var dateArray = [
              d & 0x0ff,
              (d >> 8) & 0x0ff,
              (d >> 16) & 0x0ff,
              (d >> 24) & 0x0ff,
            ]

            updatePool(dateArray)
          },
        }
      })()

      return {
        init: function () {
          collectEntropy()

          if (
            !cryptographicPRNGPresent &&
            !collectorsRegistered &&
            canCollect
          ) {
            try {
              collectors.startCollectors()
            } catch (e) {}
          }
        },

        reseed: function (entropy) {
          entropyPoolPrng.reseed(entropy)
        },

        read: function (length) {
          if (!initialized) {
            throw new Error('Entropy pool is not initialized.')
          }

          var ret = entropyPoolPrng.getBytes(length)

          collectEntropy()

          return ret
        },
      }
    }

    var prime = (function () {
      var smallPrimes = []

      var trialValues = []

      var MAX_SMALL_PRIMES = 4096 * 4

      function primeSieve(max) {
        var numbers = new Array(max + 1),
          results = [],
          i,
          j,
          limit = Math.sqrt(max) | 0

        for (i = 3; i <= limit; i += 2) {
          for (j = i * i; j <= max; j += i * 2) {
            numbers[j] = 0
          }
        }

        for (i = 3; i <= max; i += 2) {
          if (numbers[i] !== 0) {
            results.push(i)
          }
        }

        return results
      }

      function incrementalTrialDivision(increment) {
        var i,
          len = trialValues.length

        for (i = 0; i < len; i++) {
          if ((trialValues[i] + increment) % smallPrimes[i] === 0) {
            return false
          }
        }

        return true
      }

      function setupIncrementalTrialDivision(candidate) {
        var i,
          j,
          r,
          p,
          y,
          primeCount,
          len = candidate.length - 1,
          db = cryptoMath.DIGIT_BASE,
          h = candidate[len]

        if (smallPrimes.length === 0) {
          smallPrimes = primeSieve(MAX_SMALL_PRIMES)
        }
        primeCount = smallPrimes.length

        trialValues = new Array(primeCount)

        for (i = 0; i < primeCount; i++) {
          j = len
          y = smallPrimes[i]

          if (h < y) {
            r = h
            j--
          } else {
            r = 0
          }

          while (j >= 0) {
            p = r * db + candidate[j--]
            r = p - ((p / y) | 0) * y
          }

          trialValues[i] = r
        }

        return
      }

      function largestDivisibleByPowerOfTwo(number) {
        var k = 0,
          i = 0,
          s = 0,
          j
        if (cryptoMath.isZero(number)) {
          return 0
        }
        for (k = 0; number[k] === 0; k++) {}
        for (i = 0, j = 2; number[k] % j === 0; j *= 2, i++) {}
        return k * cryptoMath.DIGIT_BITS + i
      }

      function sizeInBits(digits) {
        var k = 0,
          i = 0,
          j = 0
        if (cryptoMath.isZero(digits)) {
          return 0
        }
        for (k = digits.length - 1; digits[k] === 0; k--) {}
        for (
          i = cryptoMath.DIGIT_BITS - 1, j = 1 << i;
          i > 0;
          j = j >>> 1, i--
        ) {
          if ((digits[k] & j) !== 0) {
            break
          }
        }
        return k * cryptoMath.DIGIT_BITS + i
      }

      function millerRabin(number, iterations) {
        var w = number
        var wminus1 = []
        cryptoMath.subtract(w, [1], wminus1)

        var a = largestDivisibleByPowerOfTwo(wminus1)

        var m = []
        cryptoMath.shiftRight(wminus1, m, a)

        var wlen = sizeInBits(w)
        var b
        var montmul = cryptoMath.MontgomeryMultiplier(w)

        for (var i = 1; i <= iterations; i++) {
          var status = false

          do {
            b = getRandomOddNumber(wlen)
          } while (cryptoMath.compareDigits(b, wminus1) >= 0)

          var z = []

          montmul.modExp(b, m, z, true)

          if (
            cryptoMath.compareDigits(z, [1]) === 0 ||
            cryptoMath.compareDigits(z, wminus1) === 0
          ) {
            continue
          }

          for (var j = 1; j < a; j++) {
            montmul.montgomeryMultiply(z, z, z)

            if (cryptoMath.compareDigits(z, wminus1) === 0) {
              status = true
              break
            }

            if (cryptoMath.compareDigits(z, [1]) === 0) {
              return false
            }
          }

          if (status === false) {
            return false
          }
        }

        return true
      }

      function generatePrime(bits) {
        var candidate = getRandomOddNumber(bits),
          inc = 0,
          possiblePrime,
          isPrime = false,
          candidatePlusInc = []

        setupIncrementalTrialDivision(candidate)

        while (true) {
          possiblePrime = incrementalTrialDivision(inc)

          if (possiblePrime) {
            cryptoMath.add(candidate, [inc], candidatePlusInc)
            if (millerRabin(candidatePlusInc, 6) === true) {
              return candidatePlusInc
            }
          }

          inc += 2
        }
      }

      function getRandomOddNumber(bits) {
        var numBytes = Math.ceil(bits / 8),
          bytes = msrcryptoPseudoRandom.getBytes(numBytes),
          digits

        bytes[0] |= 128
        bytes[bytes.length - 1] |= 1

        return cryptoMath.bytesToDigits(bytes)
      }

      return {
        generatePrime: generatePrime,
      }
    })()

    var msrcryptoRsaBase = function (keyStruct) {
      var utils = msrcryptoUtilities,
        keyIsPrivate =
          keyStruct.hasOwnProperty('n') && keyStruct.hasOwnProperty('d'),
        keyIsCrt =
          keyStruct.hasOwnProperty('p') && keyStruct.hasOwnProperty('q'),
        modulusLength = keyStruct.n.length

      function toBytes(digits) {
        var bytes = cryptoMath.digitsToBytes(digits)

        utils.padFront(bytes, 0, modulusLength)

        return bytes
      }

      function modExp(dataBytes, expBytes, modulusBytes) {
        var exponent = cryptoMath.bytesToDigits(expBytes)

        var group = cryptoMath.IntegerGroup(modulusBytes)
        var base = group.createElementFromBytes(dataBytes)
        var result = group.modexp(base, exponent)

        return result.m_digits
      }

      function decryptModExp(cipherBytes) {
        var resultElement = modExp(cipherBytes, keyStruct.d, keyStruct.n)

        return toBytes(resultElement)
      }

      function decryptCrt(cipherBytes) {
        var b2d = cryptoMath.bytesToDigits,
          p = keyStruct.p,
          q = keyStruct.q,
          dp = keyStruct.dp,
          dq = keyStruct.dq,
          invQ = keyStruct.qi,
          pDigits = b2d(p),
          qDigits = b2d(q),
          temp = new Array(pDigits.length + qDigits.length),
          m1Digits = new Array(pDigits.length + 1),
          m2Digits = new Array(qDigits.length + 1),
          cDigits = b2d(cipherBytes),
          mm = cryptoMath.MontgomeryMultiplier,
          mmp = new mm(keyStruct.ctxp ? undefined : pDigits, keyStruct.ctxp),
          mmq = new mm(keyStruct.ctxq ? undefined : qDigits, keyStruct.ctxq)

        mmp.reduce(cDigits, temp)
        mmp.modExp(temp, b2d(dp), m1Digits)

        mmq.reduce(cDigits, temp)
        mmq.modExp(temp, b2d(dq), m2Digits)

        var carry = cryptoMath.subtract(m1Digits, m2Digits, temp)
        if (carry !== 0) {
          cryptoMath.subtract(m2Digits, m1Digits, temp)
        }

        cryptoMath.modMul(temp, b2d(invQ), pDigits, cDigits)
        if (carry !== 0) {
          cryptoMath.subtract(pDigits, cDigits, cDigits)
        }

        cryptoMath.multiply(cDigits, qDigits, temp)
        cryptoMath.add(m2Digits, temp, m1Digits)

        return toBytes(m1Digits)
      }

      return {
        encrypt: function (messageBytes) {
          var bytes = toBytes(
            modExp(messageBytes, keyStruct.e, keyStruct.n, true),
          )
          return bytes
        },

        decrypt: function (cipherBytes) {
          if (keyIsCrt) {
            return decryptCrt(cipherBytes)
          }

          if (keyIsPrivate) {
            return decryptModExp(cipherBytes)
          }

          throw new Error('missing private key')
        },
      }
    }

    var rsaShared = {
      mgf1: function (seedBytes, maskLen, hashFunction) {
        var t = [],
          bytes,
          hash,
          counter,
          hashByteLen = hashFunction.hashLen / 8

        for (
          counter = 0;
          counter <= Math.floor(maskLen / hashByteLen);
          counter += 1
        ) {
          bytes = [
            (counter >>> 24) & 0xff,
            (counter >>> 16) & 0xff,
            (counter >>> 8) & 0xff,
            counter & 0xff,
          ]
          hash = hashFunction.computeHash(seedBytes.concat(bytes))

          t = t.concat(hash)
        }

        return t.slice(0, maskLen)
      },

      checkMessageVsMaxHash: function (messageBytes, hashFunction) {
        if (messageBytes.length > (hashFunction.maxMessageSize || 0xffffffff)) {
          throw new Error('message too long')
        }

        return
      },
    }

    var rsaMode = rsaMode || {}

    rsaMode.oaep = function (keyStruct, hashFunction) {
      var utils = msrcryptoUtilities,
        random = msrcryptoPseudoRandom,
        size = keyStruct.n.length

      if (hashFunction === null) {
        throw new Error('must supply hashFunction')
      }

      function pad(message, label) {
        var lHash, psLen, psArray, i, db, seed
        var dbMask, maskeddb, seedMask, maskedSeed
        var encodedMessage

        if (message.length > size - 2 * (hashFunction.hashLen / 8) - 2) {
          throw new Error('Message too long.')
        }

        if (label == null) {
          label = []
        }

        lHash = hashFunction.computeHash(label)

        psLen = size - message.length - 2 * lHash.length - 2
        psArray = utils.getVector(psLen)

        db = lHash.concat(psArray, [1], message)

        seed = random.getBytes(lHash.length)

        dbMask = rsaShared.mgf1(seed, size - lHash.length - 1, hashFunction)

        maskeddb = utils.xorVectors(db, dbMask)

        seedMask = rsaShared.mgf1(maskeddb, lHash.length, hashFunction)

        maskedSeed = utils.xorVectors(seed, seedMask)

        encodedMessage = [0].concat(maskedSeed).concat(maskeddb)

        message = encodedMessage.slice()

        return message
      }

      function unpad(encodedBytes, labelBytes) {
        var lHash, maskedSeed, maskeddb, seedMask
        var seed, dbMask, db
        var lHashp,
          i = 0
        var valid = encodedBytes[0] === 0

        if (!labelBytes) {
          labelBytes = []
        }

        lHash = hashFunction.computeHash(labelBytes)

        maskedSeed = encodedBytes.slice(1, lHash.length + 1)
        maskeddb = encodedBytes.slice(lHash.length + 1)

        seedMask = rsaShared.mgf1(maskeddb, lHash.length, hashFunction)
        seed = utils.xorVectors(maskedSeed, seedMask)
        dbMask = rsaShared.mgf1(seed, size - lHash.length - 1, hashFunction)

        db = utils.xorVectors(maskeddb, dbMask)

        lHashp = db.slice(0, lHash.length)

        valid = valid && utils.arraysEqual(lHash, lHashp)

        db = db.slice(lHash.length)

        while (!db[i++]) {}

        return {
          valid: valid,
          data: db.slice(i),
        }
      }

      return {
        pad: function (messageBytes, labelBytes) {
          return pad(messageBytes, labelBytes)
        },

        unpad: function (encodedBytes, labelBytes) {
          return unpad(encodedBytes, labelBytes)
        },
      }
    }

    var rsaMode = rsaMode || {}

    rsaMode.pkcs1Encrypt = function (keyStruct) {
      var random = msrcryptoPseudoRandom,
        size = keyStruct.n.length

      function pad(data) {
        var randomness

        if (data.length > size - 11) {
          throw new Error('message too long')
        }

        randomness = random.getNonZeroBytes(size - data.length - 3)

        return [0, 2].concat(randomness, [0], data)
      }

      function validatePadding(paddedData) {
        var paddingValid = paddedData[0] === 0 && paddedData[1] === 2

        for (var i = 2; i < 10; i++) {
          paddingValid = paddingValid && !!paddedData[i]
        }

        return paddingValid
      }

      function unpad(paddedData) {
        var i,
          paddingIsValid = validatePadding(paddedData),
          startOfData = 0

        for (i = 1; i < paddedData.length; i += 1) {
          startOfData = startOfData || (+!paddedData[i] && i + 1)
        }

        startOfData = -paddingIsValid && startOfData

        return {
          data: paddedData.slice(startOfData),
          valid: paddingIsValid,
        }
      }

      return {
        pad: function (messageBytes) {
          return pad(messageBytes)
        },

        unpad: function (encodedBytes) {
          return unpad(encodedBytes)
        },
      }
    }

    rsaMode.pkcs1Sign = function (keyStruct, hashFunction) {
      var utils = msrcryptoUtilities,
        size = keyStruct.n.length

      function emsa_pkcs1_v15_encode(messageBytes) {
        var paddedData, hash, tlen

        hash = hashFunction.computeHash(messageBytes.slice())

        paddedData = hashFunction.der.concat(hash)

        tlen = paddedData.length

        if (size < tlen + 11) {
          throw new Error('intended encoded message length too short')
        }

        return [0x00, 0x01].concat(
          utils.getVector(size - tlen - 3, 0xff),
          [0],
          paddedData,
        )
      }

      return {
        sign: function (messageBytes) {
          return emsa_pkcs1_v15_encode(messageBytes)
        },

        verify: function (signatureBytes, messageBytes) {
          var emp = emsa_pkcs1_v15_encode(messageBytes)

          return utils.arraysEqual(signatureBytes, emp)
        },
      }
    }

    var rsaMode = rsaMode || {}

    rsaMode.pss = function (keyStruct, hashFunction) {
      var utils = msrcryptoUtilities,
        random = msrcryptoPseudoRandom

      function emsa_pss_encode(messageBytes, saltLength, salt) {
        var modulusBits = cryptoMath.bitLength(keyStruct.n),
          emBits = modulusBits - 1,
          emLen = Math.ceil(emBits / 8),
          mHash = hashFunction.computeHash(messageBytes)

        saltLength = salt
          ? salt.length
          : saltLength == null
          ? mHash.length
          : saltLength

        if (emLen < mHash.length + saltLength + 2) {
          throw new Error('encoding error')
        }

        salt = salt || random.getBytes(saltLength)

        var mp = [0, 0, 0, 0, 0, 0, 0, 0].concat(mHash, salt)

        var h = hashFunction.computeHash(mp)

        var ps = utils.getVector(emLen - salt.length - h.length - 2)

        var db = ps.concat([1], salt)

        var dbMask = rsaShared.mgf1(h, emLen - h.length - 1, hashFunction)

        var maskedDb = utils.xorVectors(db, dbMask)

        var mask = 0
        for (var i = 0; i < 8 - (8 * emLen - emBits); i++) {
          mask += 1 << i
        }
        maskedDb[0] &= mask

        var em = maskedDb.concat(h, [0xbc])

        return em
      }

      function emsa_pss_verify(signatureBytes, messageBytes, saltLength) {
        var modulusBits = cryptoMath.bitLength(keyStruct.n)

        var emBits = modulusBits - 1

        var emLen = Math.ceil(emBits / 8)

        var mHash = hashFunction.computeHash(messageBytes)

        var hLen = mHash.length

        saltLength = saltLength == null ? hLen : saltLength

        if (emLen < hLen + saltLength + 2) {
          return false
        }

        var maskedDb = signatureBytes.slice(0, emLen - hLen - 1)

        var h = signatureBytes.slice(maskedDb.length, maskedDb.length + hLen)

        var dbMask = rsaShared.mgf1(h, emLen - hLen - 1, hashFunction)

        var db = utils.xorVectors(maskedDb, dbMask)

        db[0] &= 0xff >>> (8 - (8 * emLen - emBits))

        for (var i = 0; i < emLen - hLen - saltLength - 2; i++) {
          if (db[i] !== 0) {
            return false
          }
        }

        if (db[emLen - hLen - saltLength - 2] !== 0x01) {
          return false
        }

        var salt = db.slice(db.length - saltLength)

        var mp = [0, 0, 0, 0, 0, 0, 0, 0].concat(mHash, salt)

        var hp = hashFunction.computeHash(mp)

        return utils.arraysEqual(hp, h)
      }

      return {
        sign: function (messageBytes, saltLength, salt) {
          return emsa_pss_encode(messageBytes, saltLength, salt)
        },

        verify: function (signatureBytes, messageBytes, saltLength) {
          return emsa_pss_verify(signatureBytes, messageBytes, saltLength)
        },
      }
    }

    var msrcryptoRsa = function (keyStruct, mode, hashFunction) {
      var rsaBase = msrcryptoRsaBase(keyStruct)

      if (!mode) {
        throw new Error('padding mode')
      }

      function checkHash() {
        if (!hashFunction || !hashFunction.computeHash) {
          throw new Error('missing hash function')
        }
      }

      var paddingFunction = null,
        unPaddingFunction = null

      var padding

      switch (mode) {
        case 'RSAES-PKCS1-V1_5':
          padding = rsaMode.pkcs1Encrypt(keyStruct)
          break

        case 'RSASSA-PKCS1-V1_5':
          checkHash()
          padding = rsaMode.pkcs1Sign(keyStruct, hashFunction)
          break

        case 'RSA-OAEP':
          checkHash()
          padding = rsaMode.oaep(keyStruct, hashFunction)
          break

        case 'RSA-PSS':
          checkHash()
          padding = rsaMode.pss(keyStruct, hashFunction)
          break

        case 'raw':
          padding = {
            pad: function (mb) {
              return mb
            },
            unpad: function (eb) {
              return eb
            },
          }
          break

        default:
          throw new Error('invalid mode')
      }

      if (padding) {
        paddingFunction = padding.pad || padding.sign
        unPaddingFunction = padding.unpad || padding.verify
      }

      var returnObj = {
        encrypt: function (dataBytes, labelBytes) {
          var paddedData
          var encryptedData

          if (paddingFunction !== null) {
            paddedData = paddingFunction(dataBytes, labelBytes)
          } else {
            paddedData = dataBytes.slice()
          }

          encryptedData = rsaBase.encrypt(paddedData)

          return encryptedData
        },

        decrypt: function (cipherBytes, labelBytes) {
          var decryptedData = rsaBase.decrypt(cipherBytes)

          if (unPaddingFunction !== null) {
            decryptedData = unPaddingFunction(decryptedData, labelBytes)
            if (decryptedData.valid === false) {
              throw new Error('OperationError')
            }

            decryptedData = decryptedData.data
          } else {
            decryptedData = decryptedData.slice(0)
          }

          return decryptedData
        },

        signData: function (messageBytes, saltLength, salt) {
          return rsaBase.decrypt(
            paddingFunction(messageBytes, saltLength, salt),
          )
        },

        verifySignature: function (signature, messageBytes, saltLength) {
          var decryptedSig = rsaBase.encrypt(signature)

          return unPaddingFunction(decryptedSig, messageBytes, saltLength)
        },

        generateKeyPair: function (bits) {
          var keyPair = genRsaKeyFromRandom(bits)
        },

        mode: mode,
      }

      return returnObj
    }

    if (typeof operations !== 'undefined') {
      msrcryptoRsa.sign = function (p) {
        var rsaObj,
          hashName = p.keyHandle.algorithm.hash.name,
          hashFunc = msrcryptoHashFunctions[hashName.toUpperCase()](),
          saltLength = p.algorithm.saltLength,
          salt = p.algorithm.salt

        rsaObj = msrcryptoRsa(p.keyData, p.algorithm.name, hashFunc)

        return rsaObj.signData(p.buffer, saltLength, salt)
      }

      msrcryptoRsa.verify = function (p) {
        var hashName = p.keyHandle.algorithm.hash.name,
          hashFunc = msrcryptoHashFunctions[hashName.toUpperCase()](),
          rsaObj,
          saltLength = p.algorithm.saltLength

        rsaObj = msrcryptoRsa(p.keyData, p.algorithm.name, hashFunc)

        return rsaObj.verifySignature(p.signature, p.buffer, saltLength)
      }

      msrcryptoRsa.workerEncrypt = function (p) {
        var result, rsaObj, hashFunc, hashName

        switch (p.algorithm.name) {
          case 'RSAES-PKCS1-V1_5':
            rsaObj = msrcryptoRsa(p.keyData, p.algorithm.name)
            result = rsaObj.encrypt(p.buffer)
            break

          case 'RSA-OAEP':
            hashName = p.keyHandle.algorithm.hash.name
            if (!hashName) {
              throw new Error('unsupported hash algorithm')
            }
            hashFunc = msrcryptoHashFunctions[hashName.toUpperCase()]()
            rsaObj = msrcryptoRsa(p.keyData, p.algorithm.name, hashFunc)
            result = rsaObj.encrypt(p.buffer)
            break

          default:
            throw new Error('unsupported algorithm')
        }

        return result
      }

      msrcryptoRsa.workerDecrypt = function (p) {
        var result, rsaObj, hashFunc

        switch (p.algorithm.name) {
          case 'RSAES-PKCS1-V1_5':
            rsaObj = msrcryptoRsa(p.keyData, p.algorithm.name)
            result = rsaObj.decrypt(p.buffer)
            break

          case 'RSA-OAEP':
            var hashName = p.keyHandle.algorithm.hash.name
            if (!hashName) {
              throw new Error('unsupported hash algorithm')
            }
            hashFunc = msrcryptoHashFunctions[hashName.toUpperCase()]()
            rsaObj = msrcryptoRsa(p.keyData, p.algorithm.name, hashFunc)
            result = rsaObj.decrypt(p.buffer)
            break

          default:
            throw new Error('unsupported algorithm')
        }

        return result
      }

      msrcryptoRsa.importKey = function (p) {
        var keyObject

        if (p.format === 'jwk') {
          keyObject = msrcryptoJwk.jwkToKey(p.keyData, p.algorithm, [
            'n',
            'e',
            'd',
            'q',
            'p',
            'dq',
            'dp',
            'qi',
          ])

          if (keyObject.d) {
            keyObject.ctxp = new cryptoMath.MontgomeryMultiplier(
              cryptoMath.bytesToDigits(keyObject.p),
            ).ctx
            keyObject.ctxq = new cryptoMath.MontgomeryMultiplier(
              cryptoMath.bytesToDigits(keyObject.q),
            ).ctx
          }
        } else if (p.format === 'spki') {
          var publicKeyInfo = asn1.parse(p.keyData)

          if (publicKeyInfo == null) {
            throw new Error('invalid key data.')
          }

          var bitString = publicKeyInfo[1]
          var keySequence = asn1.parse(
            bitString.data.slice(bitString.header + 1),
            true,
          )

          if (keySequence == null) {
            throw new Error('invalid key data.')
          }

          var n = keySequence[0],
            e = keySequence[1]

          if (n.type !== 'INTEGER' || e.type !== 'INTEGER') {
            throw new Error('invalid key data.')
          }

          n = n.data.slice(n.header)
          e = e.data.slice(e.header)

          if (n[0] === 0 && n[1] & 128) {
            n = n.slice(1)
          }
          if (e[0] === 0 && e[1] & 128) {
            e = e.slice(1)
          }

          keyObject = {
            n: n,
            e: e,
          }
        } else {
          throw new Error('unsupported key import format.')
        }

        return {
          type: 'keyImport',
          keyData: keyObject,
          keyHandle: {
            algorithm: p.algorithm,
            extractable: p.extractable,
            usages: p.usages,
            type: keyObject.d || keyObject.dq ? 'private' : 'public',
          },
        }
      }

      msrcryptoRsa.exportKey = function (p) {
        var jsonKeyStringArray = msrcryptoJwk.keyToJwk(p.keyHandle, p.keyData)

        return {
          type: 'keyExport',
          keyHandle: jsonKeyStringArray,
        }
      }

      msrcryptoRsa.genRsaKeyFromRandom = function (bits, e) {
        var exp = e ? cryptoMath.bytesToDigits(e) : [65537]

        do {
          var p = prime.generatePrime(bits / 2)

          var q = prime.generatePrime(bits / 2)

          if (cryptoMath.compareDigits(q, p) > 0) {
            var t = p
            p = q
            q = t
          }

          var n = []
          cryptoMath.multiply(p, q, n)

          var p_1 = []
          cryptoMath.subtract(p, [1], p_1)

          var q_1 = []
          cryptoMath.subtract(q, [1], q_1)

          var p_1q_1 = []
          cryptoMath.multiply(p_1, q_1, p_1q_1)

          var gcd = []
          cryptoMath.gcd(exp, p_1q_1, gcd)

          var gcdEqual1 = cryptoMath.compareDigits(gcd, cryptoMath.One) === 0
        } while (!gcdEqual1)

        var d = []
        cryptoMath.modInv(exp, p_1q_1, d)

        var dp = []
        cryptoMath.reduce(d, p_1, dp)

        var dq = []
        cryptoMath.reduce(d, q_1, dq)

        var qi = []
        cryptoMath.modInv(q, p, qi)

        var d2b = cryptoMath.digitsToBytes

        return {
          privateKey: {
            n: d2b(n),
            e: d2b(exp),
            d: d2b(d),
            p: d2b(p),
            q: d2b(q),
            dp: d2b(dp),
            dq: d2b(dq),
            qi: d2b(qi),
          },
          publicKey: {
            n: d2b(n),
            e: d2b(exp),
          },
        }
      }

      msrcryptoRsa.generateKeyPair = function (p) {
        if (typeof p.algorithm.modulusLength === 'undefined') {
          throw new Error('missing modulusLength')
        }

        var keyPair
        var b2d = cryptoMath.bytesToDigits

        switch (p.algorithm.modulusLength) {
          case 1024:
          case 2048:
          case 4096:
            keyPair = msrcryptoRsa.genRsaKeyFromRandom(
              p.algorithm.modulusLength,
              p.algorithm.publicExponent,
            )
            break
          default:
            throw new Error('invalid modulusLength')
        }

        var pk = keyPair.privateKey
        pk.ctxp = new cryptoMath.MontgomeryMultiplier(b2d(pk.p)).ctx
        pk.ctxq = new cryptoMath.MontgomeryMultiplier(b2d(pk.q)).ctx

        var algName = p.algorithm.name
        var rsaKeyType = algName.slice(algName.indexOf('-') + 1).toUpperCase()

        var publicUsage, privateUsage

        if (algName === 'RSASSA-PKCS1-V1_5' || algName === 'RSA-PSS') {
          publicUsage = ['verify']
          privateUsage = ['sign']
        } else {
          publicUsage = ['encrypt']
          privateUsage = ['decrypt']
        }

        return {
          type: 'keyGeneration',
          keyPair: {
            publicKey: {
              keyData: keyPair.publicKey,
              keyHandle: {
                algorithm: p.algorithm,
                extractable: p.extractable,
                usages: null || publicUsage,
                type: 'public',
              },
            },
            privateKey: {
              keyData: keyPair.privateKey,
              keyHandle: {
                algorithm: p.algorithm,
                extractable: p.extractable,
                usages: null || privateUsage,
                type: 'private',
              },
            },
          },
        }
      }

      operations.register('sign', 'RSASSA-PKCS1-V1_5', msrcryptoRsa.sign)
      operations.register('sign', 'RSA-PSS', msrcryptoRsa.sign)

      operations.register('verify', 'RSASSA-PKCS1-V1_5', msrcryptoRsa.verify)
      operations.register('verify', 'RSA-PSS', msrcryptoRsa.verify)

      operations.register(
        'encrypt',
        'RSAES-PKCS1-V1_5',
        msrcryptoRsa.workerEncrypt,
      )
      operations.register(
        'decrypt',
        'RSAES-PKCS1-V1_5',
        msrcryptoRsa.workerDecrypt,
      )
      operations.register('encrypt', 'RSA-OAEP', msrcryptoRsa.workerEncrypt)
      operations.register('decrypt', 'RSA-OAEP', msrcryptoRsa.workerDecrypt)

      operations.register('importKey', 'RSA-OAEP', msrcryptoRsa.importKey)
      operations.register(
        'importKey',
        'RSAES-PKCS1-V1_5',
        msrcryptoRsa.importKey,
      )
      operations.register(
        'importKey',
        'RSASSA-PKCS1-V1_5',
        msrcryptoRsa.importKey,
      )
      operations.register('importKey', 'RSA-PSS', msrcryptoRsa.importKey)

      operations.register('exportKey', 'RSA-OAEP', msrcryptoRsa.exportKey)
      operations.register(
        'exportKey',
        'RSAES-PKCS1-V1_5',
        msrcryptoRsa.exportKey,
      )
      operations.register(
        'exportKey',
        'RSASSA-PKCS1-V1_5',
        msrcryptoRsa.exportKey,
      )
      operations.register('exportKey', 'RSA-PSS', msrcryptoRsa.exportKey)

      operations.register(
        'generateKey',
        'RSA-OAEP',
        msrcryptoRsa.generateKeyPair,
      )
      operations.register(
        'generateKey',
        'RSAES-PKCS1-V1_5',
        msrcryptoRsa.generateKeyPair,
      )
      operations.register(
        'generateKey',
        'RSASSA-PKCS1-V1_5',
        msrcryptoRsa.generateKeyPair,
      )
      operations.register(
        'generateKey',
        'RSA-PSS',
        msrcryptoRsa.generateKeyPair,
      )
    }

    var msrcryptoConcatKdf = (function () {
      function deriveBits(p) {
        var hashName = p.algorithm.hash.name,
          hashFunction = msrcryptoHashFunctions[hashName.toUpperCase()](),
          alg = p.algorithm

        var otherInfo = utils
          .toArray(alg.algorithmId)
          .concat(
            utils.toArray(alg.partyUInfo),
            utils.toArray(alg.partyVInfo),
            utils.toArray(alg.publicInfo) || [],
            utils.toArray(alg.privateInfo) || [],
          )

        var reps = Math.ceil(p.length / hashFunction.hashLen),
          counter = 1,
          digest = p.keyData.concat(otherInfo),
          output = []

        for (var i = 0; i < reps; i++) {
          var data = utils.int32ToBytes(counter++).concat(digest)
          var h = hashFunction.computeHash(data)
          output = output.concat(h)
        }

        return output.slice(0, p.length / 8)
      }

      return {
        deriveBits: deriveBits,
      }
    })()

    var msrcryptoConcatKdfInstance = null

    if (typeof operations !== 'undefined') {
      msrcryptoConcatKdf.importKey = function (p) {
        var keyData

        if (p.format === 'raw') {
          keyData = msrcryptoUtilities.toArray(p.keyData)
        } else {
          throw new Error('unsupported import format')
        }

        if (p.extractable !== false) {
          throw new Error('only extractable=false is supported.')
        }

        return {
          type: 'keyImport',
          keyData: keyData,
          keyHandle: {
            algorithm: {
              name: 'CONCAT',
            },
            extractable: false,
            usages: p.usages,
            type: 'secret',
          },
        }
      }

      operations.register('deriveBits', 'CONCAT', msrcryptoConcatKdf.deriveBits)
      operations.register('importKey', 'CONCAT', msrcryptoConcatKdf.importKey)
    }

    var msrcryptoPbkdf2 = (function () {
      function deriveBits(p) {
        var algorithm = p.algorithm,
          keyBytes = p.keyData,
          bits = p.length,
          iterations = algorithm.iterations,
          saltBytes = Array.apply(null, algorithm.salt),
          byteLen = Math.ceil(bits / 8),
          hLen,
          blockCount,
          output = []

        switch (algorithm.hash.name.toUpperCase()) {
          case 'SHA-1':
            hLen = 20
            break
          case 'SHA-256':
            hLen = 32
            break
          case 'SHA-384':
            hLen = 48
            break
          case 'SHA-512':
            hLen = 64
            break
          default:
            throw new Error('Unsupported hash algorithm')
        }

        blockCount = Math.ceil(byteLen / hLen)

        var hmacKey = msrcryptoHmac.importKey({
          format: 'raw',
          keyData: keyBytes,
          algorithm: {
            name: 'HMAC',
            hash: algorithm.hash,
          },
        })

        var hmacContext = {
          algorithm: algorithm,
          keyHandle: hmacKey.keyHandle,
          keyData: hmacKey.keyData,
          workerid: 0,
          buffer: null,
        }

        function F(S, c, i) {
          var result = [],
            u = S.concat([
              (i >>> 24) & 0xff,
              (i >>> 16) & 0xff,
              (i >>> 8) & 0xff,
              i & 0xff,
            ])

          for (var j = 0; j < c; j++) {
            hmacContext.buffer = u
            u = msrcryptoHmac.signHmac(hmacContext)
            for (var k = 0; k < hLen; k++) {
              result[k] = ~~result[k] ^ u[k]
            }
          }

          return result
        }

        for (var block = 1; block <= blockCount; block++) {
          output = output.concat(F(saltBytes, iterations, block))
        }

        output.length = byteLen

        return output
      }

      return {
        deriveBits: deriveBits,
      }
    })()

    var msrcryptoKdfInstance = null

    if (typeof operations !== 'undefined') {
      msrcryptoPbkdf2.importKey = function (p) {
        var keyData

        if (p.format === 'raw') {
          keyData = msrcryptoUtilities.toArray(p.keyData)
        } else {
          throw new Error('unsupported import format')
        }

        if (p.extractable !== false) {
          throw new Error('only extractable=false is supported.')
        }

        return {
          type: 'keyImport',
          keyData: keyData,
          keyHandle: {
            algorithm: {
              name: 'PBKDF2',
            },
            extractable: false,
            usages: p.usages,
            type: 'secret',
          },
        }
      }

      operations.register('deriveBits', 'PBKDF2', msrcryptoPbkdf2.deriveBits)
      operations.register('importKey', 'PBKDF2', msrcryptoPbkdf2.importKey)
    }

    var msrcryptoHkdf = (function () {
      function deriveBits(p) {
        var algorithm = p.algorithm,
          keyBytes = p.keyData,
          bits = p.length,
          saltBytes = algorithm.salt,
          byteLen = Math.ceil(bits / 8),
          hLen,
          output = [],
          infoBytes = msrcryptoUtilities.toArray(algorithm.info),
          t = [],
          i,
          hmacContext

        switch (algorithm.hash.name.toUpperCase()) {
          case 'SHA-1':
            hLen = 20
            break
          case 'SHA-256':
            hLen = 32
            break
          case 'SHA-384':
            hLen = 48
            break
          case 'SHA-512':
            hLen = 64
            break
          default:
            throw new Error('Unsupported hash algorithm.')
        }

        if (algorithm.salt == null) {
          throw new Error('HkdfParams: salt: Missing required property.')
        }

        if (algorithm.info == null) {
          throw new Error('HkdfParams: info: Missing required property.')
        }

        if (bits % 8 !== 0) {
          throw new Error(
            'The length provided for HKDF is not a multiple of 8 bits.',
          )
        }

        if (byteLen > 255 * hLen) {
          throw new Error('The length provided for HKDF is too large.')
        }

        if (saltBytes.length === 0) {
          saltBytes = msrcryptoUtilities.getVector(hLen)
        }

        hmacContext = {
          workerid: 0,
          keyHandle: {
            algorithm: algorithm,
          },
          keyData: saltBytes,
          buffer: keyBytes,
        }

        hmacContext.keyData = msrcryptoHmac.signHmac(hmacContext)

        for (i = 0; i < Math.ceil(byteLen / hLen); i++) {
          hmacContext.buffer = t.concat(infoBytes).concat([1 + i])
          t = msrcryptoHmac.signHmac(hmacContext)
          output = output.concat(t)
        }

        return output.slice(0, byteLen)
      }

      return {
        deriveBits: deriveBits,
      }
    })()

    var msrcryptoKdfInstance = null

    if (typeof operations !== 'undefined') {
      msrcryptoHkdf.importKey = function (p) {
        var keyData

        if (p.format === 'raw') {
          keyData = msrcryptoUtilities.toArray(p.keyData)
        } else {
          throw new Error('unsupported import format')
        }

        if (p.extractable !== false) {
          throw new Error('only extractable=false is supported.')
        }

        return {
          type: 'keyImport',
          keyData: keyData,
          keyHandle: {
            algorithm: {
              name: 'HKDF',
            },
            extractable: false,
            usages: p.usages,
            type: 'secret',
          },
        }
      }

      operations.register('deriveBits', 'HKDF', msrcryptoHkdf.deriveBits)
      operations.register('importKey', 'HKDF', msrcryptoHkdf.importKey)
    }

    var msrcryptoHkdfCtr = (function () {
      function deriveBits(p) {
        var algorithm = p.algorithm,
          keyBytes = p.keyData,
          bits = p.length,
          labelBytes = algorithm.label,
          contextBytes = algorithm.context,
          byteLen = Math.ceil(bits / 8),
          hLen,
          output = [],
          i,
          hmacContext

        switch (algorithm.hash.name.toUpperCase()) {
          case 'SHA-1':
            hLen = 20
            break
          case 'SHA-256':
            hLen = 32
            break
          case 'SHA-384':
            hLen = 48
            break
          case 'SHA-512':
            hLen = 64
            break
          default:
            throw new Error('Unsupported hash algorithm.')
        }

        if (algorithm.label == null) {
          throw new Error('HkdfCtrParams: label: Missing required property.')
        }

        if (algorithm.context == null) {
          throw new Error('HkdfCtrParams: context: Missing required property.')
        }

        if (bits % 8 !== 0) {
          throw new Error(
            'The length provided for HKDF-CTR is not a multiple of 8 bits.',
          )
        }

        if (byteLen > 255 * hLen) {
          throw new Error('The length provided for HKDF-CTR is too large.')
        }

        hmacContext = {
          workerid: 0,
          keyHandle: {
            algorithm: algorithm,
          },
          keyData: keyBytes,
          buffer: keyBytes,
        }

        var fixed = labelBytes.concat(
          [0],
          contextBytes,
          utils.int32ToBytes(bits),
        )

        for (i = 1; i <= Math.ceil(byteLen / hLen); i++) {
          hmacContext.buffer = utils.int32ToBytes(i).concat(fixed)
          output = output.concat(msrcryptoHmac.signHmac(hmacContext))
        }

        return output.slice(0, byteLen)
      }

      return {
        deriveBits: deriveBits,
      }
    })()

    if (typeof operations !== 'undefined') {
      msrcryptoHkdfCtr.importKey = function (p) {
        var keyData

        if (p.format === 'raw') {
          keyData = msrcryptoUtilities.toArray(p.keyData)
        } else {
          throw new Error('unsupported import format')
        }

        if (p.extractable !== false) {
          throw new Error('only extractable=false is supported.')
        }

        return {
          type: 'keyImport',
          keyData: keyData,
          keyHandle: {
            algorithm: {
              name: 'HKDF-CTR',
            },
            extractable: false,
            usages: p.usages,
            type: 'secret',
          },
        }
      }

      operations.register('deriveBits', 'HKDF-CTR', msrcryptoHkdfCtr.deriveBits)
      operations.register('importKey', 'HKDF-CTR', msrcryptoHkdfCtr.importKey)
    }

    var msrcryptoEcdh = function (curve) {
      var btd = cryptoMath.bytesToDigits,
        dtb = cryptoMath.digitsToBytes,
        e = curve,
        ecop = new cryptoECC.EllipticCurveOperatorFp(curve)

      function generateKey(privateKeyBytes) {
        var privateKey = [],
          randomBytes = msrcryptoPseudoRandom.getBytes(
            curve.order.length * cryptoMath.DIGIT_NUM_BYTES,
          )

        cryptoMath.reduce(
          cryptoMath.bytesToDigits(randomBytes),
          e.order,
          privateKey,
        )

        var publicKey = e.allocatePointStorage()

        ecop.scalarMultiply(privateKey, e.generator, publicKey)

        return {
          privateKey: {
            x: dtb(publicKey.x),
            y: dtb(publicKey.y),
            d: dtb(privateKey),
          },
          publicKey: {
            x: dtb(publicKey.x),
            y: dtb(publicKey.y),
          },
        }
      }

      function deriveBits(privateKey, publicKey, length) {
        var publicPoint = new cryptoECC.EllipticCurvePointFp(
          e,
          false,
          btd(publicKey.x),
          btd(publicKey.y),
          null,
          false,
        )

        var sharedSecretPoint = e.allocatePointStorage()
        ecop.convertToJacobianForm(sharedSecretPoint)
        ecop.convertToMontgomeryForm(sharedSecretPoint)

        ecop.scalarMultiply(btd(privateKey.d), publicPoint, sharedSecretPoint)

        ecop.convertToAffineForm(sharedSecretPoint)
        ecop.convertToStandardForm(sharedSecretPoint)

        var secretBytes = cryptoMath.digitsToBytes(
          sharedSecretPoint.x,
          true,
          publicKey.x.length,
        )

        if (length && secretBytes.length * 8 < length) {
          throw new Error('DataError')
        }

        secretBytes = length
          ? secretBytes.slice(0, Math.ceil(length / 8))
          : secretBytes

        var bits = length % 8
        var mask = bits === 0 ? 0xff : 0xff00 >>> bits
        secretBytes[secretBytes.length - 1] =
          secretBytes[secretBytes.length - 1] & mask

        return secretBytes
      }

      function computePublicKey(privateKeyBytes) {
        if (!e.generator.isInMontgomeryForm) {
          ecop.convertToMontgomeryForm(e.generator)
        }

        var publicKey = e.allocatePointStorage()
        ecop.convertToJacobianForm(publicKey)
        ecop.convertToMontgomeryForm(publicKey)
        ecop.scalarMultiply(btd(privateKeyBytes), e.generator, publicKey)

        return {
          x: dtb(publicKey.x),
          y: dtb(publicKey.y),
        }
      }

      return {
        generateKey: generateKey,
        deriveBits: deriveBits,
        computePublicKey: computePublicKey,
      }
    }

    var ecdhInstance = null

    if (typeof operations !== 'undefined') {
      msrcryptoEcdh.deriveBits = function (p) {
        var curve = cryptoECC.createCurve(p.algorithm.namedCurve.toUpperCase())

        var privateKey = p.keyData

        var publicKey = p.additionalKeyData

        ecdhInstance = msrcryptoEcdh(curve)

        var secretBytes = ecdhInstance.deriveBits(
          privateKey,
          publicKey,
          p.length,
        )

        return secretBytes
      }

      msrcryptoEcdh.deriveKey = function (p) {
        throw new Error('not supported')

        return secretBytes
      }

      msrcryptoEcdh.generateKey = function (p) {
        var curve = cryptoECC.createCurve(p.algorithm.namedCurve.toUpperCase())

        ecdhInstance = msrcryptoEcdh(curve)

        var keyPairData = ecdhInstance.generateKey()

        return {
          type: 'keyPairGeneration',
          keyPair: {
            publicKey: {
              keyData: keyPairData.publicKey,
              keyHandle: {
                algorithm: p.algorithm,
                extractable: p.extractable,
                usages: [],
                type: 'public',
              },
            },
            privateKey: {
              keyData: keyPairData.privateKey,
              keyHandle: {
                algorithm: p.algorithm,
                extractable: p.extractable,
                usages: p.usages,
                type: 'private',
              },
            },
          },
        }
      }

      msrcryptoEcdh.importKey = function (p) {
        if (p.format === 'raw') {
          var keyData = p.keyData

          if (keyData[0] !== 4) {
            throw new Error('DataError')
          }

          var elementSize = ~~((keyData.length - 1) / 2)

          var curveName = p.algorithm.namedCurve.toUpperCase()

          var x = keyData.slice(1, elementSize + 1),
            y = keyData.slice(elementSize + 1)

          if (cryptoECC.validatePoint(curveName, x, y) === false) {
            throw new Error('DataError')
          }

          return {
            type: 'keyImport',
            keyData: {
              x: x,
              y: y,
            },
            keyHandle: {
              algorithm: p.algorithm,
              extractable: p.extractable || false,
              usages: p.usages,
              type: 'public',
            },
          }
        }

        if (p.format === 'jwk') {
          var keyObject = msrcryptoJwk.jwkToKey(p.keyData, p.algorithm, [
            'x',
            'y',
            'd',
            'crv',
          ])

          if (keyObject.d && (!keyObject.x || !keyObject.y)) {
            var curve = cryptoECC.createCurve(
              p.algorithm.namedCurve.toUpperCase(),
            )

            ecdhInstance = msrcryptoEcdh(curve)

            var publicKey = ecdhInstance.computePublicKey(keyObject.d)

            keyObject.x = publicKey.x
            keyObject.y = publicKey.y
          }

          if (
            cryptoECC.validatePoint(
              p.algorithm.namedCurve.toUpperCase(),
              keyObject.x,
              keyObject.y,
            ) === false
          ) {
            throw new Error('DataError')
          }

          return {
            type: 'keyImport',
            keyData: keyObject,
            keyHandle: {
              algorithm: p.algorithm,
              extractable: p.extractable || keyObject.extractable,
              usages: p.usages,
              type: keyObject.d ? 'private' : 'public',
            },
          }
        }
      }

      msrcryptoEcdh.exportKey = function (p) {
        if (p.format === 'raw' && p.keyHandle.type === 'public') {
          var keyData = [4].concat(p.keyData.x, p.keyData.y)

          return {
            type: 'keyExport',
            keyHandle: keyData,
          }
        }

        if (p.format === 'jwk') {
          var jsonKeyStringArray = msrcryptoJwk.keyToJwk(p.keyHandle, p.keyData)
          return {
            type: 'keyExport',
            keyHandle: jsonKeyStringArray,
          }
        }

        throw new Error('unsupported export format.')
      }

      operations.register('importKey', 'ECDH', msrcryptoEcdh.importKey)
      operations.register('exportKey', 'ECDH', msrcryptoEcdh.exportKey)
      operations.register('generateKey', 'ECDH', msrcryptoEcdh.generateKey)
      operations.register('deriveBits', 'ECDH', msrcryptoEcdh.deriveBits)
      operations.register('deriveKey', 'ECDH', msrcryptoEcdh.deriveKey)
    }

    var msrcryptoEcdsa = function (curve) {
      var btd = cryptoMath.bytesToDigits,
        dtb = cryptoMath.digitsToBytes,
        ecop = new cryptoECC.EllipticCurveOperatorFp(curve),
        orderByteLength = dtb(curve.order).length,
        tedCurve = curve.type === 1

      function createKey(privateKeyBytes) {
        return createKeyInternal(btd(privateKeyBytes))
      }

      function createKeyInternal(privateKeyDigits) {
        var publicKey = curve.allocatePointStorage()

        ecop.scalarMultiply(privateKeyDigits, curve.generator, publicKey)

        return {
          publicKey: publicKey,
          privateKey: privateKeyDigits,
        }
      }

      function generateKey(randomBytes) {
        var privateKey = []

        if (!randomBytes) {
          randomBytes = msrcryptoPseudoRandom.getBytes(
            curve.order.length * cryptoMath.DIGIT_NUM_BYTES,
          )
        }

        cryptoMath.reduce(
          cryptoMath.bytesToDigits(randomBytes),
          curve.order,
          privateKey,
        )

        return createKeyInternal(privateKey)
      }

      function getDigest(messageBytes) {
        if (messageBytes.length > orderByteLength) {
          messageBytes.length = orderByteLength
        }

        var digest = btd(messageBytes)

        if (tedCurve) {
          var shift = 8 - (curve.rbits % 8)
          cryptoMath.shiftRight(digest, digest, shift)
        }

        cryptoMath.reduce(digest, curve.order, digest)

        return digest
      }

      function sign(privateKey, messageBytes, ephemeralKey) {
        if (!ephemeralKey) {
          ephemeralKey = generateKey()
        }

        var r = ephemeralKey.publicKey.x,
          k = ephemeralKey.privateKey,
          d = btd(privateKey.d),
          digest = getDigest(messageBytes.slice()),
          s = [],
          tmp = [],
          signature = null

        cryptoMath.reduce(r, curve.order, r)
        cryptoMath.modMul(r, d, curve.order, s)
        cryptoMath.add(s, digest, s)
        cryptoMath.reduce(s, curve.order, s)
        cryptoMath.modInvCT(k, curve.order, tmp)
        cryptoMath.modMul(s, tmp, curve.order, s)

        var rBytes = msrcryptoUtilities.padFront(
          dtb(r, true, orderByteLength),
          0,
          orderByteLength,
        )
        var sBytes = msrcryptoUtilities.padFront(
          dtb(s, true, orderByteLength),
          0,
          orderByteLength,
        )

        signature = rBytes.concat(sBytes)

        return signature
      }

      function verify(publicKey, signatureBytes, messageBytes) {
        var split = Math.floor(signatureBytes.length / 2),
          r = btd(signatureBytes.slice(0, split)),
          s = btd(signatureBytes.slice(split)),
          digest = getDigest(messageBytes.slice()),
          u1 = [],
          u2 = []

        var publicPoint = new cryptoECC.EllipticCurvePointFp(
          curve,
          false,
          btd(publicKey.x),
          btd(publicKey.y),
          null,
          false,
        )

        cryptoMath.modInv(s, curve.order, s)
        cryptoMath.modMul(digest, s, curve.order, u1)
        cryptoMath.modMul(r, s, curve.order, u2)

        var r0 = curve.allocatePointStorage()
        var r1 = curve.allocatePointStorage()

        if (tedCurve) {
          cryptoMath.add(u1, u1, u1)
          cryptoMath.add(u1, u1, u1)
          cryptoMath.reduce(u1, curve.order, u1)
          ecop.scalarMultiply(u1, curve.generator, r0, false)
          ecop.scalarMultiply(u2, publicPoint, r1, false)
          ecop.convertToExtendedProjective(r0)
          ecop.convertToExtendedProjective(r1)
          ecop.add(r1, r0, r0)
          ecop.normalize(r0)
        } else {
          ecop.scalarMultiply(u1, curve.generator, r0)
          ecop.scalarMultiply(u2, publicPoint, r1)
          ecop.convertToJacobianForm(r0)
          ecop.convertToMontgomeryForm(r0)
          ecop.convertToMontgomeryForm(r1)
          ecop.mixedAdd(r0, r1, r0)
          ecop.convertToAffineForm(r0)
          ecop.convertToStandardForm(r0)
        }

        if (r0.isInfinity) {
          return false
        }

        cryptoMath.reduce(r0.x, curve.order, r0.x)

        return cryptoMath.compareDigits(r0.x, r) === 0
      }

      return {
        createKey: createKey,
        generateKey: generateKey,
        sign: sign,
        verify: verify,
      }
    }

    if (typeof operations !== 'undefined') {
      msrcryptoEcdsa.sign = function (p) {
        msrcryptoUtilities.checkParam(
          p.algorithm.hash,
          'Object',
          'algorithm.hash',
        )
        msrcryptoUtilities.checkParam(
          p.algorithm.hash.name,
          'String',
          'algorithm.hash.name',
        )
        msrcryptoUtilities.checkParam(
          p.keyHandle.algorithm.namedCurve,
          'String',
          'p.keyHandle.algorithm.namedCurve',
        )

        var hashName = p.algorithm.hash.name,
          curve = cryptoECC.createCurve(
            p.keyHandle.algorithm.namedCurve.toUpperCase(),
          ),
          hashFunc = msrcryptoHashFunctions[hashName.toUpperCase()](),
          digest = hashFunc.computeHash(p.buffer)

        var ecdsa = msrcryptoEcdsa(curve)

        return ecdsa.sign(p.keyData, digest)
      }

      msrcryptoEcdsa.verify = function (p) {
        var hashName = p.algorithm.hash.name,
          curve = cryptoECC.createCurve(
            p.keyHandle.algorithm.namedCurve.toUpperCase(),
          ),
          hashFunc = msrcryptoHashFunctions[hashName.toUpperCase()](),
          digest = hashFunc.computeHash(p.buffer)

        var ecdsa = msrcryptoEcdsa(curve)

        return ecdsa.verify(p.keyData, p.signature, digest)
      }

      msrcryptoEcdsa.generateKey = function (p) {
        var curve = cryptoECC.createCurve(p.algorithm.namedCurve.toUpperCase())

        var ecdsa = msrcryptoEcdsa(curve)

        var keyPairData = ecdsa.generateKey()

        var dtb = cryptoMath.digitsToBytes

        function padTo8BytesIncrement(array) {
          return array
        }
        var x = padTo8BytesIncrement(dtb(keyPairData.publicKey.x))
        var y = padTo8BytesIncrement(dtb(keyPairData.publicKey.y))
        var d = padTo8BytesIncrement(dtb(keyPairData.privateKey))

        return {
          type: 'keyPairGeneration',
          keyPair: {
            publicKey: {
              keyData: {
                x: x,
                y: y,
              },
              keyHandle: {
                algorithm: p.algorithm,
                extractable: p.extractable,
                usages: ['verify'],
                type: 'public',
              },
            },
            privateKey: {
              keyData: {
                x: x,
                y: y,
                d: d,
              },
              keyHandle: {
                algorithm: p.algorithm,
                extractable: p.extractable,
                usages: ['sign'],
                type: 'private',
              },
            },
          },
        }
      }

      msrcryptoEcdsa.importKey = function (p) {
        if (p.format === 'raw') {
          var keyData = p.keyData

          if (keyData[0] !== 4) {
            throw new Error('DataError')
          }

          var elementSize = ~~((keyData.length - 1) / 2)

          var curveName = p.algorithm.namedCurve.toUpperCase()

          var x = keyData.slice(1, elementSize + 1),
            y = keyData.slice(elementSize + 1)

          if (cryptoECC.validatePoint(curveName, x, y) === false) {
            throw new Error('DataError')
          }

          return {
            type: 'keyImport',
            keyData: {
              x: x,
              y: y,
            },
            keyHandle: {
              algorithm: p.algorithm,
              extractable: p.extractable || false,
              usages: p.usages,
              type: 'public',
            },
          }
        }

        if (p.format === 'jwk') {
          var keyObject = msrcryptoJwk.jwkToKey(p.keyData, p.algorithm, [
            'x',
            'y',
            'd',
            'crv',
          ])

          if (keyObject.d && (!keyObject.x || !keyObject.y)) {
            var curve = msrcryptoEcdsa.curves[p.algorithm.namedCurve]()

            var ecdsa = msrcryptoEcdsa(curve)

            var publicKey = ecdsa.computePublicKey(keyObject.d)

            keyObject.x = publicKey.x
            keyObject.y = publicKey.y
          }

          if (
            cryptoECC.validatePoint(
              p.algorithm.namedCurve.toUpperCase(),
              keyObject.x,
              keyObject.y,
            ) === false
          ) {
            throw new Error('DataError')
          }

          return {
            type: 'keyImport',
            keyData: keyObject,
            keyHandle: {
              algorithm: p.algorithm,
              extractable: p.extractable || keyObject.extractable,
              usages: null || p.usages,
              type: keyObject.d ? 'private' : 'public',
            },
          }
        }
      }

      msrcryptoEcdsa.exportKey = function (p) {
        if (p.format === 'raw' && p.keyHandle.type === 'public') {
          var keyData = [4].concat(p.keyData.x, p.keyData.y)

          return {
            type: 'keyExport',
            keyHandle: keyData,
          }
        }

        if (p.format === 'jwk') {
          var jsonKeyStringArray = msrcryptoJwk.keyToJwk(p.keyHandle, p.keyData)
          return {
            type: 'keyExport',
            keyHandle: jsonKeyStringArray,
          }
        }

        throw new Error('unsupported export format.')
      }

      operations.register('sign', 'ECDSA', msrcryptoEcdsa.sign)
      operations.register('verify', 'ECDSA', msrcryptoEcdsa.verify)
      operations.register('generateKey', 'ECDSA', msrcryptoEcdsa.generateKey)
      operations.register('importKey', 'ECDSA', msrcryptoEcdsa.importKey)
      operations.register('exportKey', 'ECDSA', msrcryptoEcdsa.exportKey)
    }

    var msrcryptoSubtle

    var utils = msrcryptoUtilities

    msrcryptoSubtle = (function () {
      function syncWorker() {
        var result

        function postMessage(data) {
          try {
            data.workerid = this.id
            result = msrcryptoWorker.jsCryptoRunner({
              data: data,
            })
          } catch (ex) {
            this.onerror({
              data: ex,
              type: 'error',
            })
            return
          }

          this.onmessage({
            data: result,
          })
        }

        return {
          postMessage: postMessage,
          onmessage: null,
          onerror: null,
          terminate: function () {},
        }
      }

      var streamObject = function (op) {
        return {
          process: function (buffer) {
            return op.process(buffer)
          },
          finish: function () {
            return op.finish()
          },
          abort: function () {
            return op.abort()
          },
        }
      }

      function baseOperation(processResults) {
        var result = null,
          oncompleteCallback = null,
          onerrorCallback = null,
          retObj,
          promise,
          resolveFunc,
          rejectFunc

        promise = new Promise(function (resolve, reject) {
          resolveFunc = resolve
          rejectFunc = reject
        })

        function opDispatchEvent(e) {
          if (e.type === 'error') {
            if (rejectFunc) {
              rejectFunc.apply(promise, [e])
            }
            return
          }

          if (e.data.type === 'process') {
            processResults(e.data.result, true)
            return
          }

          if (e.data.type === 'finish') {
            processResults(e.data.result, true)
            return
          }

          this.result = processResults(e.data)
          resolveFunc.apply(promise, [this.result])

          return
        }

        retObj = {
          dispatchEvent: opDispatchEvent,
          promise: promise,
          result: null,
        }

        return retObj
      }

      function keyOperation() {
        function processResult(result) {
          var publicKey, privateKey

          switch (result.type) {
            case 'keyGeneration':
            case 'keyImport':
            case 'keyDerive':
              if (result.keyPair) {
                keys.add(
                  result.keyPair.publicKey.keyHandle,
                  result.keyPair.publicKey.keyData,
                )
                keys.add(
                  result.keyPair.privateKey.keyHandle,
                  result.keyPair.privateKey.keyData,
                )
                return {
                  publicKey: result.keyPair.publicKey.keyHandle,
                  privateKey: result.keyPair.privateKey.keyHandle,
                }
              } else {
                keys.add(result.keyHandle, result.keyData)
                return result.keyHandle
              }

            case 'keyExport':
              return result.keyHandle

            case 'keyPairGeneration':
              privateKey = result.keyPair.privateKey
              publicKey = result.keyPair.publicKey
              keys.add(publicKey.keyHandle, publicKey.keyData)
              keys.add(privateKey.keyHandle, privateKey.keyData)
              return {
                publicKey: publicKey.keyHandle,
                privateKey: privateKey.keyHandle,
              }

            default:
              throw new Error('Unknown key operation')
          }
        }

        return baseOperation(processResult)
      }

      function toArrayBufferIfSupported(dataArray) {
        if (typedArraySupport && dataArray.pop) {
          return new Uint8Array(dataArray).buffer
        }

        return dataArray
      }

      function cryptoOperation(cryptoContext) {
        function processResult(result, isProcessCall) {
          result = result && toArrayBufferIfSupported(result)

          if (isProcessCall) {
            promiseQueue.resolve(result)
            return
          }

          return result
        }

        var promiseQueue = [],
          op = baseOperation(processResult)

        op.stream = cryptoContext.algorithm.stream

        promiseQueue.add = function (label) {
          var resolveFunc,
            rejectFunc,
            promise = new Promise(function (resolve, reject) {
              resolveFunc = resolve
              rejectFunc = reject
            })

          promise.label = label

          promiseQueue.push({
            resolve: resolveFunc,
            reject: rejectFunc,
            promise: promise,
          })

          return promise
        }

        promiseQueue.resolve = function (result) {
          var queueItem = promiseQueue.shift()
          queueItem.resolve.apply(queueItem.promise, [result])
        }

        op.process = function (buffer) {
          cryptoContext.operationSubType = 'process'
          cryptoContext.buffer = utils.toArray(buffer)
          workerManager.continueJob(this, utils.clone(cryptoContext))

          return promiseQueue.add('process')
        }

        op.finish = function () {
          cryptoContext.operationSubType = 'finish'
          cryptoContext.buffer = []
          workerManager.continueJob(this, utils.clone(cryptoContext))

          return promiseQueue.add('finish')
        }

        op.abort = function () {
          workerManager.abortJob(this)
        }
        op.algorithm = cryptoContext.algorithm || null
        op.key = cryptoContext.keyHandle || null

        return op
      }

      var keys = []

      keys.add = function (keyHandle, keyData) {
        keys.push({
          keyHandle: keyHandle,
          keyData: keyData,
        })
      }

      keys.remove = function (keyHandle) {
        for (var i = 0; i < keys.length; i += 1) {
          if (keys[i].keyHandle === keyHandle) {
            keys = keys.splice(i, 1)
            return
          }
        }
      }

      keys.lookup = function (keyHandle) {
        for (var i = 0; i < keys.length; i += 1) {
          if (keys[i].keyHandle === keyHandle) {
            return keys[i].keyData
          }
        }
        return null
      }

      var workerManager = (function () {
        var maxWorkers = 12

        var maxFreeWorkers = 2

        var workerPool = []

        var jobQueue = []

        var jobId = 0

        var workerId = 0

        var callbackQueue = []

        var setFunction =
          typeof setImmediate === 'undefined' ? setTimeout : setImmediate

        function executeNextCallback() {
          callbackQueue.shift()()
        }

        function queueCallback(callback) {
          callbackQueue.push(callback)
          setFunction(executeNextCallback, 0)
        }

        var workerStatus = webWorkerSupport ? 'available' : 'unavailable'

        function getFreeWorker() {
          purgeWorkerType(!asyncMode)

          for (var i = 0; i < workerPool.length; i++) {
            if (!workerPool[i].busy) {
              return workerPool[i]
            }
          }

          return null
        }

        function purgeWorkerType(webWorker) {
          for (var i = workerPool.length - 1; i >= 0; i -= 1) {
            if (workerPool[i].isWebWorker === webWorker) {
              workerPool[i].terminate()
              workerPool.splice(i, 1)
            }
          }
        }

        function freeWorkerCount() {
          var freeWorkers = 0
          for (var i = 0; i < workerPool.length; i++) {
            if (!workerPool[i].busy) {
              freeWorkers += 1
            }
          }
          return freeWorkers
        }

        function addWorkerToPool(worker) {
          workerPool.push(worker)
        }

        function removeWorkerFromPool(worker) {
          for (var i = 0; i < workerPool.length; i++) {
            if (workerPool[i] === worker) {
              worker.terminate()
              workerPool.splice(i, 1)
              return
            }
          }
        }

        function lookupWorkerByOperation(operation) {
          for (var i = 0; i < workerPool.length; i++) {
            if (workerPool[i].operation === operation) {
              return workerPool[i]
            }
          }
          return null
        }

        function queueJob(operation, data) {
          jobQueue.push({
            operation: operation,
            data: data,
            id: jobId++,
          })
        }

        function jobCompleted(worker) {
          worker.busy = false

          if (asyncMode) {
            if (jobQueue.length > 0) {
              var job = jobQueue.shift(),
                i

              continueJob(job.operation, job.data)

              if (job.data.operationSubType === 'process') {
                for (i = 0; i < jobQueue.length; i++) {
                  if (job.operation === jobQueue[i].operation) {
                    continueJob(jobQueue[i].operation, jobQueue[i].data)
                  }
                }
                for (i = jobQueue.length - 1; i >= 0; i--) {
                  if (job.operation === jobQueue[i].operation) {
                    jobQueue.splice(i, 1)
                  }
                }
              }
            } else if (freeWorkerCount() > maxFreeWorkers) {
              removeWorkerFromPool(worker)
            }
          }
        }

        function createNewWorker(operation) {
          var worker

          if (workerStatus === 'pending') {
            throw new Error('Creating new worker while workerstatus=pending')
          }

          if (workerStatus === 'ready') {
            try {
              worker = new Worker(scriptUrl)
              worker.postMessage({
                prngSeed: msrcryptoPseudoRandom.getBytes(48),
              })
              worker.isWebWorker = true
            } catch (ex) {
              asyncMode = false
              workerStatus = 'failed'
              worker.terminate()
              worker = syncWorker()
              worker.isWebWorker = false
            }
          } else {
            worker = syncWorker()
            worker.isWebWorker = false
          }

          worker.operation = operation

          worker.id = workerId++

          worker.busy = false

          worker.onmessage = function (e) {
            if (e.data.initialized === true) {
              return
            }

            var op = worker.operation

            e.target ||
              (e.target = {
                data: worker.data,
              })

            for (var i = 0; i < jobQueue.length; i++) {
              if (jobQueue[i].operation === worker.operation) {
                var job = jobQueue[i]
                jobQueue.splice(i, 1)
                postMessageToWorker(worker, job.data)
                return
              }
            }

            if (!(e.data.hasOwnProperty('type') && e.data.type === 'process')) {
              jobCompleted(worker)
            }

            op.dispatchEvent(e)
          }

          worker.onerror = function (e) {
            var op = worker.operation

            jobCompleted(worker)

            op.dispatchEvent(e)
          }

          addWorkerToPool(worker)

          return worker
        }

        function useWebWorkers(enable) {
          if (workerStatus === 'unavailable') {
            utils.consoleLog('web workers not available in this browser.')
            return
          }

          if (enable === true && workerStatus === 'ready') {
            return
          }

          if (enable === false && workerStatus === 'available') {
            return
          }

          if (enable === false && workerStatus === 'ready') {
            asyncMode = false
            workerStatus = 'available'
            utils.consoleLog('web workers disabled.')
            return
          }

          if (workerStatus === 'pending') {
            return
          }

          workerStatus = 'pending'

          var worker = new Worker(scriptUrl)

          function setWorkerStatus(e) {
            var succeeded = !!(e.data && e.data.initialized === true)
            worker.removeEventListener('message', setWorkerStatus, false)
            worker.removeEventListener('error', setWorkerStatus, false)
            worker.terminate()
            workerStatus = succeeded ? 'ready' : 'failed'
            asyncMode = succeeded
            utils.consoleLog(
              'web worker initialization ' +
                (succeeded
                  ? 'succeeded. Now using web workers.'
                  : 'failed. running synchronously.' + (e.message || '')),
            )
            if (jobQueue.length > 0) {
              var job = jobQueue.shift()
              runJob(job.operation, job.data)
            }
            return
          }

          worker.addEventListener('message', setWorkerStatus, false)
          worker.addEventListener('error', setWorkerStatus, false)

          worker.postMessage({
            prngSeed: msrcryptoPseudoRandom.getBytes(48),
          })

          return
        }

        function abortJob(cryptoOperationObject) {
          var worker = lookupWorkerByOperation(cryptoOperationObject)
          if (worker) {
            removeWorkerFromPool(worker)
          }
        }

        function runJob(operation, data) {
          var worker = null

          if (workerStatus === 'pending') {
            queueJob(operation, data)
            return
          }

          worker = getFreeWorker()

          if (asyncMode && worker === null && workerPool.length >= maxWorkers) {
            queueJob(operation, data)
            return
          }

          if (worker === null) {
            worker = createNewWorker(operation)
          }

          if (worker === null) {
            queueJob(operation, data)
            throw new Error('could not create new worker')
          }

          worker.operation = operation

          worker.busy = true

          data.workerid = worker.id

          postMessageToWorker(worker, data)
        }

        function continueJob(operation, data) {
          var worker = lookupWorkerByOperation(operation)

          if (worker) {
            postMessageToWorker(worker, data)
            return
          }

          runJob(operation, data)
        }

        function postMessageToWorker(worker, data) {
          data.workerid = worker.id

          if (asyncMode) {
            worker.postMessage(data)
          } else {
            var func = (function (postData) {
              return function () {
                return worker.postMessage(postData)
              }
            })(data)

            queueCallback(func)
          }

          return
        }

        return {
          runJob: runJob,
          continueJob: continueJob,
          abortJob: abortJob,
          useWebWorkers: useWebWorkers,
        }
      })()

      function checkOperation(operationType, algorithmName) {
        if (!operations.exists(operationType, algorithmName)) {
          throw new Error('unsupported algorithm')
        }
      }

      var subtleParameters = [
        {
          name: 'algorithm',
          type: 'Object',
          required: true,
        },
        {
          name: 'keyHandle',
          type: 'Object',
          required: true,
        },
        {
          name: 'buffer',
          type: 'Array',
          required: false,
        },
        {
          name: 'signature',
          type: 'Array',
          required: true,
        },
        {
          name: 'format',
          type: 'String',
          required: true,
        },
        {
          name: 'keyData',
          type: 'Object',
          required: true,
        },
        {
          name: 'extractable',
          type: 'Boolean',
          required: false,
        },
        {
          name: 'usages',
          type: 'Array',
          required: false,
        },
        {
          name: 'derivedKeyType',
          type: 'Object',
          required: true,
        },
        {
          name: 'length',
          type: 'Number',
          required: false,
        },
        {
          name: 'extractable',
          type: 'Boolean',
          required: true,
        },
        {
          name: 'usages',
          type: 'Array',
          required: true,
        },
        {
          name: 'keyData',
          type: 'Array',
          required: true,
        },
      ]

      var subtleParametersSets = {
        encrypt: [0, 1, 2],
        decrypt: [0, 1, 2],
        sign: [0, 1, 2],
        verify: [0, 1, 3, 2],
        digest: [0, 2],
        generateKey: [0, 6, 7],
        importKeyRaw: [4, 12, 0, 10, 11],
        importKeyJwk: [4, 5, 0, 10, 11],
        exportKey: [0, 4, 1, 6, 7],
        deriveKey: [0, 1, 8, 6, 7],
        deriveBits: [0, 1, 9],
        wrapKey: [1, 1, 0],
        unwrapKey: [2, 0, 1, 6, 7],
      }

      function lookupKeyData(handle) {
        var data = keys.lookup(handle)

        if (!data) {
          throw new Error('key not found')
        }

        return data
      }

      function buildParameterCollection(operationName, parameterSet) {
        var parameterCollection = {
            operationType: operationName,
          },
          operationParameterSet,
          expectedParam,
          actualParam,
          i

        if (
          operationName === 'importKey' &&
          (parameterSet[0] === 'raw' || parameterSet[0] === 'spki')
        ) {
          operationName = 'importKeyRaw'
        }

        if (operationName === 'importKey' && parameterSet[0] === 'jwk') {
          operationName = 'importKeyJwk'
        }

        operationParameterSet = subtleParametersSets[operationName]

        for (i = 0; i < operationParameterSet.length; i += 1) {
          expectedParam = subtleParameters[operationParameterSet[i]]
          actualParam = parameterSet[i]

          if (actualParam == null) {
            if (expectedParam.required) {
              throw new Error(expectedParam.name)
            } else {
              continue
            }
          }

          if (actualParam.subarray) {
            actualParam = utils.toArray(actualParam)
          }

          if (utils.getObjectType(actualParam) === 'ArrayBuffer') {
            actualParam = utils.toArray(actualParam)
          }

          if (
            msrcryptoUtilities.getObjectType(actualParam) !== expectedParam.type
          ) {
            throw new Error(expectedParam.name)
          }

          if (expectedParam.name === 'algorithm') {
            actualParam.name = actualParam.name.toUpperCase()

            if (actualParam.iv) {
              actualParam.iv = utils.toArray(actualParam.iv)
            }

            if (actualParam.publicExponent) {
              actualParam.publicExponent = utils.toArray(
                actualParam.publicExponent,
              )
            }

            if (actualParam.salt) {
              actualParam.salt = utils.toArray(actualParam.salt)
            }

            if (actualParam.additionalData) {
              actualParam.additionalData = utils.toArray(
                actualParam.additionalData,
              )
            }

            if (
              actualParam.hash &&
              !actualParam.hash.name &&
              utils.getObjectType(actualParam.hash) === 'String'
            ) {
              actualParam.hash = {
                name: actualParam.hash,
              }
            }
          }

          if (parameterCollection.hasOwnProperty(expectedParam.name)) {
            parameterCollection[expectedParam.name + '1'] = actualParam
          } else {
            parameterCollection[expectedParam.name] = actualParam
          }
        }

        return parameterCollection
      }

      function executeOperation(operationName, parameterSet, keyFunc) {
        var pc = buildParameterCollection(operationName, parameterSet)

        checkOperation(operationName, pc.algorithm.name)

        if (pc.keyHandle) {
          pc.keyData = lookupKeyData(pc.keyHandle)
        }

        if (pc.keyHandle1) {
          pc.keyData1 = lookupKeyData(pc.keyHandle1)
        }

        if (pc.algorithm && pc.algorithm.public) {
          pc.additionalKeyData = lookupKeyData(pc.algorithm.public)
        }

        var op = keyFunc ? keyOperation(pc) : cryptoOperation(pc)

        if (
          keyFunc ||
          pc.buffer ||
          operationName === 'deriveBits' ||
          operationName === 'wrapKey'
        ) {
          workerManager.runJob(op, pc)
        }

        if (op.stream) {
          return Promise.resolve(streamObject(op))
        }

        return op.promise
      }
      var publicMethods = {
        encrypt: function (algorithm, keyHandle, buffer) {
          return executeOperation('encrypt', arguments, 0)
        },

        decrypt: function (algorithm, keyHandle, buffer) {
          return executeOperation('decrypt', arguments, 0)
        },

        sign: function (algorithm, keyHandle, buffer) {
          return executeOperation('sign', arguments, 0)
        },

        verify: function (algorithm, keyHandle, signature, buffer) {
          return executeOperation('verify', arguments, 0)
        },

        digest: function (algorithm, buffer) {
          return executeOperation('digest', arguments, 0)
        },

        generateKey: function (algorithm, extractable, keyUsage) {
          return executeOperation('generateKey', arguments, 1)
        },

        deriveKey: function (
          algorithm,
          baseKey,
          derivedKeyType,
          extractable,
          keyUsage,
        ) {
          var deriveBits = this.deriveBits,
            importKey = this.importKey

          return new Promise(function (resolve, reject) {
            var keyLength

            switch (derivedKeyType.name.toUpperCase()) {
              case 'AES-CBC':
              case 'AES-GCM':
                keyLength = derivedKeyType.length
                break
              case 'HMAC':
                keyLength =
                  derivedKeyType.length ||
                  {
                    'SHA-1': 512,
                    'SHA-224': 512,
                    'SHA-256': 512,
                    'SHA-384': 1024,
                    'SHA-512': 1024,
                  }[derivedKeyType.hash.name.toUpperCase()]
                break
              default:
                reject(new Error('No Supported'))
                return
            }

            deriveBits(algorithm, baseKey, keyLength)
              .then(function (bits) {
                return importKey(
                  'raw',
                  bits,
                  derivedKeyType,
                  extractable,
                  keyUsage,
                )
              })
              .then(function (key) {
                resolve(key)
              })
              ['catch'](function (err) {
                reject(err)
              })
          })
        },

        deriveBits: function (algorithm, baseKey, length) {
          return executeOperation('deriveBits', arguments, 0)
        },

        importKey: function (
          format,
          keyData,
          algorithm,
          extractable,
          keyUsage,
        ) {
          return executeOperation('importKey', arguments, 1)
        },

        exportKey: function (format, keyHandle) {
          return executeOperation(
            'exportKey',
            [keyHandle.algorithm, format, keyHandle],
            1,
          )
        },

        wrapKey: function (format, key, wrappingKey, wrappingKeyAlgorithm) {
          var encrypt = this.encrypt,
            exportKey = this.exportKey

          return new Promise(function (resolve, reject) {
            if (
              key.extractable === false ||
              key.usages.indexOf('wrapKey') < 0 ||
              wrappingKey.algorithm.name.toUpperCase() !==
                wrappingKeyAlgorithm.name
            ) {
              reject(new Error('InvalidAccessError'))
              return
            }

            exportKey(format, key)
              .then(function (keyData) {
                return encrypt(
                  wrappingKeyAlgorithm,
                  wrappingKey,
                  format === 'jwk'
                    ? utils.stringToBytes(JSON.stringify(keyData, null, 0))
                    : keyData,
                )
              })

              .then(function (cipherArrayBuffer) {
                resolve(cipherArrayBuffer)
              })

              ['catch'](function (err) {
                reject(err)
              })
          })
        },

        unwrapKey: function (
          format,
          wrappedKey,
          unwrappingKey,
          unwrapAlgorithm,
          unwrappedKeyAlgorithm,
          extractable,
          keyUsages,
        ) {
          var decrypt = this.decrypt,
            importKey = this.importKey

          return new Promise(function (resolve, reject) {
            if (
              unwrappingKey.usages.indexOf('unwrapKey') < 0 ||
              unwrappingKey.algorithm.name.toUpperCase() !==
                unwrapAlgorithm.name
            ) {
              reject(new Error('InvalidAccessError'))
              return
            }

            decrypt(unwrapAlgorithm, unwrappingKey, wrappedKey)
              .then(function (keyPlain) {
                return importKey(
                  format,
                  format === 'jwk'
                    ? JSON.parse(utils.bytesToString(keyPlain))
                    : keyPlain,
                  unwrappedKeyAlgorithm,
                  extractable,
                  keyUsages,
                )
              })

              .then(function (key) {
                resolve(key)
              })

              ['catch'](function (err) {
                reject(err)
              })
          })
        },
      }

      var internalMethods = {
        useWebWorkers: workerManager.useWebWorkers,
      }

      return {
        publicMethods: publicMethods,
        internalMethods: internalMethods,
      }
    })()

    var msrcryptoWrapKey = (function () {
      var utils = msrcryptoUtilities

      function wrapKey(params) {
        var rsaObj = msrcryptoRsa(
          params.keyData1,
          params.keyHandle1.algorithm.name,
          msrcryptoHashFunctions['SHA-1'],
        )()

        var tagLength = 128

        var keyToWrapJwk = msrcryptoJwk.keyToJwkOld(
          params.keyHandle,
          params.keyData,
        )

        var jweHeader = {
          alg: params.keyHandle1.algorithm.name.toUpperCase(),
          enc: 'A128GCM',
        }

        var encodedJweHeader = utils.toBase64(JSON.stringify(jweHeader), true)

        var cmk = msrcryptoPseudoRandom.getBytes(32)

        var jweEncryptedKey = rsaObj.encrypt(cmk)

        var encodedJweEncryptedKey = utils.toBase64(jweEncryptedKey, true)

        var jweIv = msrcryptoPseudoRandom.getBytes(12)

        var encodedJweIv = utils.toBase64(jweIv, true)

        var additionalData = encodedJweHeader.concat(
          '.',
          encodedJweEncryptedKey,
          '.',
          encodedJweIv,
        )

        var gcm = msrcryptoGcm(msrcryptoBlockCipher.aes(cmk))
        gcm.init(jweIv, utils.stringToBytes(additionalData), tagLength)

        var ciphertextPlusTag = gcm.encrypt(keyToWrapJwk)

        var tag = ciphertextPlusTag.slice(-(tagLength / 8))

        var encodedIntegrityValue = utils.toBase64(tag, true)

        var encodedCiphertext = utils.toBase64(
          ciphertextPlusTag.slice(0, ciphertextPlusTag.length - tag.length),
          true,
        )

        var jwe = {
          recipients: [
            {
              header: encodedJweHeader,
              encrypted_key: encodedJweEncryptedKey,
              integrity_value: encodedIntegrityValue,
            },
          ],
          initialization_vector: encodedJweIv,
          ciphertext: encodedCiphertext,
        }

        return utils.stringToBytes(JSON.stringify(jwe))
      }

      function unwrapKey(params) {
        var b64Tobytes = utils.fromBase64

        var keyDataJwk = JSON.parse(
          String.fromCharCode.apply(null, params.buffer),
        )

        var header = utils.fromBase64(keyDataJwk.recipients[0].header)

        var encrypted_key = b64Tobytes(keyDataJwk.recipients[0].encrypted_key)

        var integrity_value = b64Tobytes(
          keyDataJwk.recipients[0].integrity_value,
        )

        var initialization_vector = b64Tobytes(keyDataJwk.initialization_vector)

        var ciphertext = b64Tobytes(keyDataJwk.ciphertext)

        var hashFunc = msrcryptoHashFunctions['SHA-1']()
        var rsaObj = msrcryptoRsa(
          params.keyData,
          params.keyHandle.algorithm.name,
          hashFunc,
        )
        var inKey = rsaObj.decrypt(encrypted_key)

        var additionalData = keyDataJwk.recipients[0].header.concat(
          '.',
          keyDataJwk.recipients[0].encrypted_key,
          '.',
          keyDataJwk.initialization_vector,
        )

        var gcm = msrcryptoGcm(msrcryptoBlockCipher.aes(inKey))
        gcm.init(
          initialization_vector,
          utils.stringToBytes(additionalData),
          128,
        )

        var result = gcm.decrypt(ciphertext, integrity_value)

        var keyObject = msrcryptoJwk.jwkToKey(result, params.algorithm, ['k'])

        return {
          type: 'keyImport',
          keyData: keyObject.k,
          keyHandle: {
            algorithm: {
              name: params.algorithm.name,
            },
            extractable: params.extractable || keyObject.extractable,
            usages: params.usages,
            type: 'secret',
          },
        }
      }
      return {
        wrapKey: wrapKey,
        unwrapKey: unwrapKey,
      }
    })()
    if (typeof operations !== 'undefined') {
      operations.register('wrapKey', 'AES-GCM', msrcryptoWrapKey.wrapKey)
      operations.register('unwrapKey', 'AES-CBC', msrcryptoWrapKey.unwrapKey)
    }

    var publicMethods = {
      subtle: msrcryptoSubtle ? msrcryptoSubtle.publicMethods : null,

      getRandomValues: function (array) {
        var i
        var randomValues = msrcryptoPseudoRandom.getBytes(array.length)
        for (i = 0; i < array.length; i += 1) {
          array[i] = randomValues[i]
        }
        return array
      },

      initPrng: function (entropyData) {
        var entropyDataType = Object.prototype.toString.call(entropyData)

        if (
          entropyDataType !== '[object Array]' &&
          entropyDataType !== '[object Uint8Array]'
        ) {
          throw new Error('entropyData must be a Array or Uint8Array')
        }

        entropyPool && entropyPool.reseed(entropyData)

        msrcryptoPseudoRandom.reseed(entropyPool.read(48))
        fprngEntropyProvided = true
      },

      toBase64: function (data, base64Url) {
        return msrcryptoUtilities.toBase64(data, base64Url)
      },

      fromBase64: function (base64String) {
        return msrcryptoUtilities.fromBase64(base64String)
      },

      textToBytes: function (text) {
        return msrcryptoUtilities.stringToBytes(text)
      },

      bytesToText: function (byteArray) {
        return msrcryptoUtilities.bytesToString(byteArray)
      },

      asn1: asn1,

      url: scriptUrl,

      version: msrCryptoVersion,

      useWebWorkers: function (useWebWorkers) {
        return msrcryptoSubtle
          ? msrcryptoSubtle.internalMethods.useWebWorkers(useWebWorkers)
          : null
      },
    }

    var entropyPool

    entropyPool = entropyPool || new MsrcryptoEntropy(global)

    entropyPool.init()
    var localEntropy = entropyPool.read(48)
    msrcryptoPseudoRandom.init(localEntropy)
    return publicMethods
  }

  return msrCrypto()
})
;(function (root, factory) {
  if (typeof Promise !== 'undefined') {
    return
  }
  root.Promise = factory()
})(this, function () {
  var Promise = function (executor, id) {
    if (!(this instanceof Promise)) {
      throw new Error("use 'new' keyword with Promise constructor")
    }

    var successResult = null,
      failReason = null,
      thenResolved = [],
      thenRejected = [],
      rejectThenPromise = [],
      resolveThenPromise = []

    this.then = function (onCompleted, onRejected) {
      var thenFunctionResult

      if (successResult) {
        thenFunctionResult = onCompleted(successResult.result)

        if (thenFunctionResult && thenFunctionResult.then) {
          return thenFunctionResult
        }

        return Promise.resolve(thenFunctionResult)
      }

      if (failReason) {
        thenFunctionResult = onRejected
          ? onRejected(failReason.result)
          : failReason.result

        if (thenFunctionResult && thenFunctionResult.then) {
          return thenFunctionResult
        }

        return Promise.resolve(thenFunctionResult)
      }

      thenResolved.push(onCompleted)
      if (onRejected) {
        thenRejected.push(onRejected)
      }

      return new Promise(function (resolve, reject) {
        resolveThenPromise.push(resolve)
        rejectThenPromise.push(reject)
      })
    }

    this['catch'] = function (onRejected) {
      var catchFunctionResult

      if (failReason) {
        catchFunctionResult = onRejected(failReason.result)

        if (catchFunctionResult && catchFunctionResult.then) {
          return catchFunctionResult
        }

        return Promise.resolve(catchFunctionResult)
      }

      thenRejected.push(onRejected)

      return new Promise(function (resolve, reject) {
        resolveThenPromise.push(resolve)
        rejectThenPromise.push(reject)
      })
    }

    function resolve(param) {
      var result, i

      for (i = 0; i < thenResolved.length; i += 1) {
        result = thenResolved[i](param)

        if (result && result.then) {
          result.then(resolveThenPromise[i])

          if (rejectThenPromise[i]) {
            result['catch'](rejectThenPromise[i])
          }
        } else {
          if (resolveThenPromise[i]) {
            resolveThenPromise[i](result)
          }
        }
      }

      successResult = {
        result: param,
      }

      return
    }

    function reject(param) {
      var reason, i

      for (i = 0; i < thenRejected.length; i += 1) {
        reason = thenRejected[i](param)

        if (reason && reason.then) {
          reason.then(resolveThenPromise[i], rejectThenPromise[i])
        } else {
          if (resolveThenPromise[i]) {
            resolveThenPromise[i](reason)
          }
        }
      }

      failReason = {
        result: param,
      }

      return
    }

    executor(resolve, reject)

    return
  }

  Promise.all = function (promiseArray) {
    var results = [],
      resultCount = 0,
      promiseAll

    function then(index, resolve) {
      return function (result) {
        results[index] = result

        resultCount += 1
        if (resultCount === promiseArray.length) {
          resolve(results)
        }
      }
    }

    promiseAll = new Promise(function (resolve, reject) {
      var i

      function r(reason) {
        reject(reason)
      }

      for (i = 0; i < promiseArray.length; i += 1) {
        if (promiseArray[i].then) {
          promiseArray[i].then(then(i, resolve))
          promiseArray[i]['catch'](r)
          continue
        }
        Promise.resolve(promiseArray[i]).then(then(i, resolve))
      }
    })

    return promiseAll
  }

  Promise.race = function (promiseArray) {
    var resolved = false,
      promiseRace

    function then(resolveFunction) {
      return function (result) {
        if (!resolved) {
          resolved = true
          resolveFunction(result)
        }
      }
    }

    promiseRace = new Promise(function (resolve, reject) {
      for (var i = 0; i < promiseArray.length; i += 1) {
        promiseArray[i].then(then(resolve), then(reject))
      }
    })

    return promiseRace
  }

  Promise.reject = function (rejectReason) {
    return new Promise(function (resolve, reject) {
      reject(rejectReason)
    })
  }

  Promise.resolve = function (resolveResult) {
    return new Promise(function (resolve, reject) {
      resolve(resolveResult)
    })
  }

  return Promise
})