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/base/000_base/node_modules/cryptojs/README.md
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cryptojs
--------
* with little modification, converted from googlecode project [crypto-js](http://code.google.com/p/crypto-js/), and keep the source code structure of the origin project on googlecode
* source code worked in both browser engines and node scripts. see also: [https://github.com/gwjjeff/crypto-js-npm-conv](https://github.com/gwjjeff/crypto-js-npm-conv)
* inspiration comes from [ezcrypto](https://github.com/ElmerZhang/ezcrypto), but my tests cannot pass with his version ( ECB/pkcs7 mode ), so I made it myself
### install
<pre>
npm install cryptojs
</pre>
### usage (example with [coffee-script](http://coffeescript.org/))
<pre>
Crypto = (require 'cryptojs').Crypto
key = '12345678'
us = 'Hello, 世界!'
mode = new Crypto.mode.ECB Crypto.pad.pkcs7
ub = Crypto.charenc.UTF8.stringToBytes us
eb = Crypto.DES.encrypt ub, key, {asBytes: true, mode: mode}
ehs= Crypto.util.bytesToHex eb
eb2= Crypto.util.hexToBytes ehs
ub2= Crypto.DES.decrypt eb2, key, {asBytes: true, mode: mode}
us2= Crypto.charenc.UTF8.bytesToString ub2
# should be same as the var 'us'
console .log us2
</pre>

/base/000_base/node_modules/cryptojs/cryptojs.js
@@ -0,0 +1,17 @@
var Crypto = exports.Crypto = require('./lib/Crypto').Crypto;
[ 'CryptoMath'
, 'BlockModes'
, 'DES'
, 'AES'
, 'HMAC'
, 'MARC4'
, 'MD5'
, 'PBKDF2'
, 'PBKDF2Async'
, 'Rabbit'
, 'SHA1'
, 'SHA256'
].forEach( function (path) {
require('./lib/' + path);
});

/base/000_base/node_modules/cryptojs/lib/AES.js
@@ -0,0 +1,402 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util,
charenc = C.charenc,
UTF8 = charenc.UTF8;
// Precomputed SBOX
var SBOX = [ 0x63, 0x7c, 0x77, 0x7b, 0xf2, 0x6b, 0x6f, 0xc5,
0x30, 0x01, 0x67, 0x2b, 0xfe, 0xd7, 0xab, 0x76,
0xca, 0x82, 0xc9, 0x7d, 0xfa, 0x59, 0x47, 0xf0,
0xad, 0xd4, 0xa2, 0xaf, 0x9c, 0xa4, 0x72, 0xc0,
0xb7, 0xfd, 0x93, 0x26, 0x36, 0x3f, 0xf7, 0xcc,
0x34, 0xa5, 0xe5, 0xf1, 0x71, 0xd8, 0x31, 0x15,
0x04, 0xc7, 0x23, 0xc3, 0x18, 0x96, 0x05, 0x9a,
0x07, 0x12, 0x80, 0xe2, 0xeb, 0x27, 0xb2, 0x75,
0x09, 0x83, 0x2c, 0x1a, 0x1b, 0x6e, 0x5a, 0xa0,
0x52, 0x3b, 0xd6, 0xb3, 0x29, 0xe3, 0x2f, 0x84,
0x53, 0xd1, 0x00, 0xed, 0x20, 0xfc, 0xb1, 0x5b,
0x6a, 0xcb, 0xbe, 0x39, 0x4a, 0x4c, 0x58, 0xcf,
0xd0, 0xef, 0xaa, 0xfb, 0x43, 0x4d, 0x33, 0x85,
0x45, 0xf9, 0x02, 0x7f, 0x50, 0x3c, 0x9f, 0xa8,
0x51, 0xa3, 0x40, 0x8f, 0x92, 0x9d, 0x38, 0xf5,
0xbc, 0xb6, 0xda, 0x21, 0x10, 0xff, 0xf3, 0xd2,
0xcd, 0x0c, 0x13, 0xec, 0x5f, 0x97, 0x44, 0x17,
0xc4, 0xa7, 0x7e, 0x3d, 0x64, 0x5d, 0x19, 0x73,
0x60, 0x81, 0x4f, 0xdc, 0x22, 0x2a, 0x90, 0x88,
0x46, 0xee, 0xb8, 0x14, 0xde, 0x5e, 0x0b, 0xdb,
0xe0, 0x32, 0x3a, 0x0a, 0x49, 0x06, 0x24, 0x5c,
0xc2, 0xd3, 0xac, 0x62, 0x91, 0x95, 0xe4, 0x79,
0xe7, 0xc8, 0x37, 0x6d, 0x8d, 0xd5, 0x4e, 0xa9,
0x6c, 0x56, 0xf4, 0xea, 0x65, 0x7a, 0xae, 0x08,
0xba, 0x78, 0x25, 0x2e, 0x1c, 0xa6, 0xb4, 0xc6,
0xe8, 0xdd, 0x74, 0x1f, 0x4b, 0xbd, 0x8b, 0x8a,
0x70, 0x3e, 0xb5, 0x66, 0x48, 0x03, 0xf6, 0x0e,
0x61, 0x35, 0x57, 0xb9, 0x86, 0xc1, 0x1d, 0x9e,
0xe1, 0xf8, 0x98, 0x11, 0x69, 0xd9, 0x8e, 0x94,
0x9b, 0x1e, 0x87, 0xe9, 0xce, 0x55, 0x28, 0xdf,
0x8c, 0xa1, 0x89, 0x0d, 0xbf, 0xe6, 0x42, 0x68,
0x41, 0x99, 0x2d, 0x0f, 0xb0, 0x54, 0xbb, 0x16 ];
// Compute inverse SBOX lookup table
for (var INVSBOX = [], i = 0; i < 256; i++) INVSBOX[SBOX[i]] = i;
// Compute mulitplication in GF(2^8) lookup tables
var MULT2 = [],
MULT3 = [],
MULT9 = [],
MULTB = [],
MULTD = [],
MULTE = [];
function xtime(a, b) {
for (var result = 0, i = 0; i < 8; i++) {
if (b & 1) result ^= a;
var hiBitSet = a & 0x80;
a = (a << 1) & 0xFF;
if (hiBitSet) a ^= 0x1b;
b >>>= 1;
}
return result;
}
for (var i = 0; i < 256; i++) {
MULT2[i] = xtime(i,2);
MULT3[i] = xtime(i,3);
MULT9[i] = xtime(i,9);
MULTB[i] = xtime(i,0xB);
MULTD[i] = xtime(i,0xD);
MULTE[i] = xtime(i,0xE);
}
// Precomputed RCon lookup
var RCON = [0x00, 0x01, 0x02, 0x04, 0x08, 0x10, 0x20, 0x40, 0x80, 0x1b, 0x36];
// Inner state
var state = [[], [], [], []],
keylength,
nrounds,
keyschedule;
var AES = C.AES = {
/**
* Public API
*/
encrypt: function (message, password, options) {
options = options || {};
// Determine mode
var mode = options.mode || new C.mode.OFB;
// Allow mode to override options
if (mode.fixOptions) mode.fixOptions(options);
var
// Convert to bytes if message is a string
m = (
message.constructor == String ?
UTF8.stringToBytes(message) :
message
),
// Generate random IV
iv = options.iv || util.randomBytes(AES._blocksize * 4),
// Generate key
k = (
password.constructor == String ?
// Derive key from passphrase
C.PBKDF2(password, iv, 32, { asBytes: true }) :
// else, assume byte array representing cryptographic key
password
);
// Encrypt
AES._init(k);
mode.encrypt(AES, m, iv);
// Return ciphertext
m = options.iv ? m : iv.concat(m);
return (options && options.asBytes) ? m : util.bytesToBase64(m);
},
decrypt: function (ciphertext, password, options) {
options = options || {};
// Determine mode
var mode = options.mode || new C.mode.OFB;
// Allow mode to override options
if (mode.fixOptions) mode.fixOptions(options);
var
// Convert to bytes if ciphertext is a string
c = (
ciphertext.constructor == String ?
util.base64ToBytes(ciphertext):
ciphertext
),
// Separate IV and message
iv = options.iv || c.splice(0, AES._blocksize * 4),
// Generate key
k = (
password.constructor == String ?
// Derive key from passphrase
C.PBKDF2(password, iv, 32, { asBytes: true }) :
// else, assume byte array representing cryptographic key
password
);
// Decrypt
AES._init(k);
mode.decrypt(AES, c, iv);
// Return plaintext
return (options && options.asBytes) ? c : UTF8.bytesToString(c);
},
/**
* Package private methods and properties
*/
_blocksize: 4,
_encryptblock: function (m, offset) {
// Set input
for (var row = 0; row < AES._blocksize; row++) {
for (var col = 0; col < 4; col++)
state[row][col] = m[offset + col * 4 + row];
}
// Add round key
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] ^= keyschedule[col][row];
}
for (var round = 1; round < nrounds; round++) {
// Sub bytes
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] = SBOX[state[row][col]];
}
// Shift rows
state[1].push(state[1].shift());
state[2].push(state[2].shift());
state[2].push(state[2].shift());
state[3].unshift(state[3].pop());
// Mix columns
for (var col = 0; col < 4; col++) {
var s0 = state[0][col],
s1 = state[1][col],
s2 = state[2][col],
s3 = state[3][col];
state[0][col] = MULT2[s0] ^ MULT3[s1] ^ s2 ^ s3;
state[1][col] = s0 ^ MULT2[s1] ^ MULT3[s2] ^ s3;
state[2][col] = s0 ^ s1 ^ MULT2[s2] ^ MULT3[s3];
state[3][col] = MULT3[s0] ^ s1 ^ s2 ^ MULT2[s3];
}
// Add round key
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] ^= keyschedule[round * 4 + col][row];
}
}
// Sub bytes
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] = SBOX[state[row][col]];
}
// Shift rows
state[1].push(state[1].shift());
state[2].push(state[2].shift());
state[2].push(state[2].shift());
state[3].unshift(state[3].pop());
// Add round key
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] ^= keyschedule[nrounds * 4 + col][row];
}
// Set output
for (var row = 0; row < AES._blocksize; row++) {
for (var col = 0; col < 4; col++)
m[offset + col * 4 + row] = state[row][col];
}
},
_decryptblock: function (c, offset) {
// Set input
for (var row = 0; row < AES._blocksize; row++) {
for (var col = 0; col < 4; col++)
state[row][col] = c[offset + col * 4 + row];
}
// Add round key
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] ^= keyschedule[nrounds * 4 + col][row];
}
for (var round = 1; round < nrounds; round++) {
// Inv shift rows
state[1].unshift(state[1].pop());
state[2].push(state[2].shift());
state[2].push(state[2].shift());
state[3].push(state[3].shift());
// Inv sub bytes
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] = INVSBOX[state[row][col]];
}
// Add round key
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] ^= keyschedule[(nrounds - round) * 4 + col][row];
}
// Inv mix columns
for (var col = 0; col < 4; col++) {
var s0 = state[0][col],
s1 = state[1][col],
s2 = state[2][col],
s3 = state[3][col];
state[0][col] = MULTE[s0] ^ MULTB[s1] ^ MULTD[s2] ^ MULT9[s3];
state[1][col] = MULT9[s0] ^ MULTE[s1] ^ MULTB[s2] ^ MULTD[s3];
state[2][col] = MULTD[s0] ^ MULT9[s1] ^ MULTE[s2] ^ MULTB[s3];
state[3][col] = MULTB[s0] ^ MULTD[s1] ^ MULT9[s2] ^ MULTE[s3];
}
}
// Inv shift rows
state[1].unshift(state[1].pop());
state[2].push(state[2].shift());
state[2].push(state[2].shift());
state[3].push(state[3].shift());
// Inv sub bytes
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] = INVSBOX[state[row][col]];
}
// Add round key
for (var row = 0; row < 4; row++) {
for (var col = 0; col < 4; col++)
state[row][col] ^= keyschedule[col][row];
}
// Set output
for (var row = 0; row < AES._blocksize; row++) {
for (var col = 0; col < 4; col++)
c[offset + col * 4 + row] = state[row][col];
}
},
/**
* Private methods
*/
_init: function (k) {
keylength = k.length / 4;
nrounds = keylength + 6;
AES._keyexpansion(k);
},
// Generate a key schedule
_keyexpansion: function (k) {
keyschedule = [];
for (var row = 0; row < keylength; row++) {
keyschedule[row] = [
k[row * 4],
k[row * 4 + 1],
k[row * 4 + 2],
k[row * 4 + 3]
];
}
for (var row = keylength; row < AES._blocksize * (nrounds + 1); row++) {
var temp = [
keyschedule[row - 1][0],
keyschedule[row - 1][1],
keyschedule[row - 1][2],
keyschedule[row - 1][3]
];
if (row % keylength == 0) {
// Rot word
temp.push(temp.shift());
// Sub word
temp[0] = SBOX[temp[0]];
temp[1] = SBOX[temp[1]];
temp[2] = SBOX[temp[2]];
temp[3] = SBOX[temp[3]];
temp[0] ^= RCON[row / keylength];
} else if (keylength > 6 && row % keylength == 4) {
// Sub word
temp[0] = SBOX[temp[0]];
temp[1] = SBOX[temp[1]];
temp[2] = SBOX[temp[2]];
temp[3] = SBOX[temp[3]];
}
keyschedule[row] = [
keyschedule[row - keylength][0] ^ temp[0],
keyschedule[row - keylength][1] ^ temp[1],
keyschedule[row - keylength][2] ^ temp[2],
keyschedule[row - keylength][3] ^ temp[3]
];
}
}
};
})();

/base/000_base/node_modules/cryptojs/lib/BlockModes.js
@@ -0,0 +1,378 @@
/*!
* Crypto-JS contribution from Simon Greatrix
*/
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Create pad namespace
var C_pad = C.pad = {};
// Calculate the number of padding bytes required.
function _requiredPadding(cipher, message) {
var blockSizeInBytes = cipher._blocksize * 4;
var reqd = blockSizeInBytes - message.length % blockSizeInBytes;
return reqd;
};
// Remove padding when the final byte gives the number of padding bytes.
var _unpadLength = function (message) {
var pad = message.pop();
for (var i = 1; i < pad; i++) {
message.pop();
}
};
// No-operation padding, used for stream ciphers
C_pad.NoPadding = {
pad : function (cipher,message) {},
unpad : function (message) {}
};
// Zero Padding.
//
// If the message is not an exact number of blocks, the final block is
// completed with 0x00 bytes. There is no unpadding.
C_pad.ZeroPadding = {
pad : function (cipher, message) {
var blockSizeInBytes = cipher._blocksize * 4;
var reqd = message.length % blockSizeInBytes;
if( reqd!=0 ) {
for(reqd = blockSizeInBytes - reqd; reqd>0; reqd--) {
message.push(0x00);
}
}
},
unpad : function (message) {}
};
// ISO/IEC 7816-4 padding.
//
// Pads the plain text with an 0x80 byte followed by as many 0x00
// bytes are required to complete the block.
C_pad.iso7816 = {
pad : function (cipher, message) {
var reqd = _requiredPadding(cipher, message);
message.push(0x80);
for (; reqd > 1; reqd--) {
message.push(0x00);
}
},
unpad : function (message) {
while (message.pop() != 0x80) {}
}
};
// ANSI X.923 padding
//
// The final block is padded with zeros except for the last byte of the
// last block which contains the number of padding bytes.
C_pad.ansix923 = {
pad : function (cipher, message) {
var reqd = _requiredPadding(cipher, message);
for (var i = 1; i < reqd; i++) {
message.push(0x00);
}
message.push(reqd);
},
unpad : _unpadLength
};
// ISO 10126
//
// The final block is padded with random bytes except for the last
// byte of the last block which contains the number of padding bytes.
C_pad.iso10126 = {
pad : function (cipher, message) {
var reqd = _requiredPadding(cipher, message);
for (var i = 1; i < reqd; i++) {
message.push(Math.floor(Math.random() * 256));
}
message.push(reqd);
},
unpad : _unpadLength
};
// PKCS7 padding
//
// PKCS7 is described in RFC 5652. Padding is in whole bytes. The
// value of each added byte is the number of bytes that are added,
// i.e. N bytes, each of value N are added.
C_pad.pkcs7 = {
pad : function (cipher, message) {
var reqd = _requiredPadding(cipher, message);
for (var i = 0; i < reqd; i++) {
message.push(reqd);
}
},
unpad : _unpadLength
};
// Create mode namespace
var C_mode = C.mode = {};
/**
* Mode base "class".
*/
var Mode = C_mode.Mode = function (padding) {
if (padding) {
this._padding = padding;
}
};
Mode.prototype = {
encrypt: function (cipher, m, iv) {
this._padding.pad(cipher, m);
this._doEncrypt(cipher, m, iv);
},
decrypt: function (cipher, m, iv) {
this._doDecrypt(cipher, m, iv);
this._padding.unpad(m);
},
// Default padding
_padding: C_pad.iso7816
};
/**
* Electronic Code Book mode.
*
* ECB applies the cipher directly against each block of the input.
*
* ECB does not require an initialization vector.
*/
var ECB = C_mode.ECB = function () {
// Call parent constructor
Mode.apply(this, arguments);
};
// Inherit from Mode
var ECB_prototype = ECB.prototype = new Mode;
// Concrete steps for Mode template
ECB_prototype._doEncrypt = function (cipher, m, iv) {
var blockSizeInBytes = cipher._blocksize * 4;
// Encrypt each block
for (var offset = 0; offset < m.length; offset += blockSizeInBytes) {
cipher._encryptblock(m, offset);
}
};
ECB_prototype._doDecrypt = function (cipher, c, iv) {
var blockSizeInBytes = cipher._blocksize * 4;
// Decrypt each block
for (var offset = 0; offset < c.length; offset += blockSizeInBytes) {
cipher._decryptblock(c, offset);
}
};
// ECB never uses an IV
ECB_prototype.fixOptions = function (options) {
options.iv = [];
};
/**
* Cipher block chaining
*
* The first block is XORed with the IV. Subsequent blocks are XOR with the
* previous cipher output.
*/
var CBC = C_mode.CBC = function () {
// Call parent constructor
Mode.apply(this, arguments);
};
// Inherit from Mode
var CBC_prototype = CBC.prototype = new Mode;
// Concrete steps for Mode template
CBC_prototype._doEncrypt = function (cipher, m, iv) {
var blockSizeInBytes = cipher._blocksize * 4;
// Encrypt each block
for (var offset = 0; offset < m.length; offset += blockSizeInBytes) {
if (offset == 0) {
// XOR first block using IV
for (var i = 0; i < blockSizeInBytes; i++)
m[i] ^= iv[i];
} else {
// XOR this block using previous crypted block
for (var i = 0; i < blockSizeInBytes; i++)
m[offset + i] ^= m[offset + i - blockSizeInBytes];
}
// Encrypt block
cipher._encryptblock(m, offset);
}
};
CBC_prototype._doDecrypt = function (cipher, c, iv) {
var blockSizeInBytes = cipher._blocksize * 4;
// At the start, the previously crypted block is the IV
var prevCryptedBlock = iv;
// Decrypt each block
for (var offset = 0; offset < c.length; offset += blockSizeInBytes) {
// Save this crypted block
var thisCryptedBlock = c.slice(offset, offset + blockSizeInBytes);
// Decrypt block
cipher._decryptblock(c, offset);
// XOR decrypted block using previous crypted block
for (var i = 0; i < blockSizeInBytes; i++) {
c[offset + i] ^= prevCryptedBlock[i];
}
prevCryptedBlock = thisCryptedBlock;
}
};
/**
* Cipher feed back
*
* The cipher output is XORed with the plain text to produce the cipher output,
* which is then fed back into the cipher to produce a bit pattern to XOR the
* next block with.
*
* This is a stream cipher mode and does not require padding.
*/
var CFB = C_mode.CFB = function () {
// Call parent constructor
Mode.apply(this, arguments);
};
// Inherit from Mode
var CFB_prototype = CFB.prototype = new Mode;
// Override padding
CFB_prototype._padding = C_pad.NoPadding;
// Concrete steps for Mode template
CFB_prototype._doEncrypt = function (cipher, m, iv) {
var blockSizeInBytes = cipher._blocksize * 4,
keystream = iv.slice(0);
// Encrypt each byte
for (var i = 0; i < m.length; i++) {
var j = i % blockSizeInBytes;
if (j == 0) cipher._encryptblock(keystream, 0);
m[i] ^= keystream[j];
keystream[j] = m[i];
}
};
CFB_prototype._doDecrypt = function (cipher, c, iv) {
var blockSizeInBytes = cipher._blocksize * 4,
keystream = iv.slice(0);
// Encrypt each byte
for (var i = 0; i < c.length; i++) {
var j = i % blockSizeInBytes;
if (j == 0) cipher._encryptblock(keystream, 0);
var b = c[i];
c[i] ^= keystream[j];
keystream[j] = b;
}
};
/**
* Output feed back
*
* The cipher repeatedly encrypts its own output. The output is XORed with the
* plain text to produce the cipher text.
*
* This is a stream cipher mode and does not require padding.
*/
var OFB = C_mode.OFB = function () {
// Call parent constructor
Mode.apply(this, arguments);
};
// Inherit from Mode
var OFB_prototype = OFB.prototype = new Mode;
// Override padding
OFB_prototype._padding = C_pad.NoPadding;
// Concrete steps for Mode template
OFB_prototype._doEncrypt = function (cipher, m, iv) {
var blockSizeInBytes = cipher._blocksize * 4,
keystream = iv.slice(0);
// Encrypt each byte
for (var i = 0; i < m.length; i++) {
// Generate keystream
if (i % blockSizeInBytes == 0)
cipher._encryptblock(keystream, 0);
// Encrypt byte
m[i] ^= keystream[i % blockSizeInBytes];
}
};
OFB_prototype._doDecrypt = OFB_prototype._doEncrypt;
/**
* Counter
* @author Gergely Risko
*
* After every block the last 4 bytes of the IV is increased by one
* with carry and that IV is used for the next block.
*
* This is a stream cipher mode and does not require padding.
*/
var CTR = C_mode.CTR = function () {
// Call parent constructor
Mode.apply(this, arguments);
};
// Inherit from Mode
var CTR_prototype = CTR.prototype = new Mode;
// Override padding
CTR_prototype._padding = C_pad.NoPadding;
CTR_prototype._doEncrypt = function (cipher, m, iv) {
var blockSizeInBytes = cipher._blocksize * 4;
var counter = iv.slice(0);
for (var i = 0; i < m.length;) {
// do not lose iv
var keystream = counter.slice(0);
// Generate keystream for next block
cipher._encryptblock(keystream, 0);
// XOR keystream with block
for (var j = 0; i < m.length && j < blockSizeInBytes; j++, i++) {
m[i] ^= keystream[j];
}
// Increase counter
if(++(counter[blockSizeInBytes-1]) == 256) {
counter[blockSizeInBytes-1] = 0;
if(++(counter[blockSizeInBytes-2]) == 256) {
counter[blockSizeInBytes-2] = 0;
if(++(counter[blockSizeInBytes-3]) == 256) {
counter[blockSizeInBytes-3] = 0;
++(counter[blockSizeInBytes-4]);
}
}
}
}
};
CTR_prototype._doDecrypt = CTR_prototype._doEncrypt;
})();

/base/000_base/node_modules/cryptojs/lib/Crypto.js
@@ -0,0 +1,155 @@
if (typeof Crypto == "undefined" || ! Crypto.util)
{
(function(){
var base64map = "ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefghijklmnopqrstuvwxyz0123456789+/";
// Global Crypto object
// with browser window or with node module
var Crypto = (typeof window === 'undefined') ? exports.Crypto = {} : window.Crypto = {};
// Crypto utilities
var util = Crypto.util = {
// Bit-wise rotate left
rotl: function (n, b) {
return (n << b) | (n >>> (32 - b));
},
// Bit-wise rotate right
rotr: function (n, b) {
return (n << (32 - b)) | (n >>> b);
},
// Swap big-endian to little-endian and vice versa
endian: function (n) {
// If number given, swap endian
if (n.constructor == Number) {
return util.rotl(n, 8) & 0x00FF00FF |
util.rotl(n, 24) & 0xFF00FF00;
}
// Else, assume array and swap all items
for (var i = 0; i < n.length; i++)
n[i] = util.endian(n[i]);
return n;
},
// Generate an array of any length of random bytes
randomBytes: function (n) {
for (var bytes = []; n > 0; n--)
bytes.push(Math.floor(Math.random() * 256));
return bytes;
},
// Convert a byte array to big-endian 32-bit words
bytesToWords: function (bytes) {
for (var words = [], i = 0, b = 0; i < bytes.length; i++, b += 8)
words[b >>> 5] |= (bytes[i] & 0xFF) << (24 - b % 32);
return words;
},
// Convert big-endian 32-bit words to a byte array
wordsToBytes: function (words) {
for (var bytes = [], b = 0; b < words.length * 32; b += 8)
bytes.push((words[b >>> 5] >>> (24 - b % 32)) & 0xFF);
return bytes;
},
// Convert a byte array to a hex string
bytesToHex: function (bytes) {
for (var hex = [], i = 0; i < bytes.length; i++) {
hex.push((bytes[i] >>> 4).toString(16));
hex.push((bytes[i] & 0xF).toString(16));
}
return hex.join("");
},
// Convert a hex string to a byte array
hexToBytes: function (hex) {
for (var bytes = [], c = 0; c < hex.length; c += 2)
bytes.push(parseInt(hex.substr(c, 2), 16));
return bytes;
},
// Convert a byte array to a base-64 string
bytesToBase64: function (bytes) {
// Use browser-native function if it exists
if (typeof btoa == "function") return btoa(Binary.bytesToString(bytes));
for(var base64 = [], i = 0; i < bytes.length; i += 3) {
var triplet = (bytes[i] << 16) | (bytes[i + 1] << 8) | bytes[i + 2];
for (var j = 0; j < 4; j++) {
if (i * 8 + j * 6 <= bytes.length * 8)
base64.push(base64map.charAt((triplet >>> 6 * (3 - j)) & 0x3F));
else base64.push("=");
}
}
return base64.join("");
},
// Convert a base-64 string to a byte array
base64ToBytes: function (base64) {
// Use browser-native function if it exists
if (typeof atob == "function") return Binary.stringToBytes(atob(base64));
// Remove non-base-64 characters
base64 = base64.replace(/[^A-Z0-9+\/]/ig, "");
for (var bytes = [], i = 0, imod4 = 0; i < base64.length; imod4 = ++i % 4) {
if (imod4 == 0) continue;
bytes.push(((base64map.indexOf(base64.charAt(i - 1)) & (Math.pow(2, -2 * imod4 + 8) - 1)) << (imod4 * 2)) |
(base64map.indexOf(base64.charAt(i)) >>> (6 - imod4 * 2)));
}
return bytes;
}
};
// Crypto character encodings
var charenc = Crypto.charenc = {};
// UTF-8 encoding
var UTF8 = charenc.UTF8 = {
// Convert a string to a byte array
stringToBytes: function (str) {
return Binary.stringToBytes(unescape(encodeURIComponent(str)));
},
// Convert a byte array to a string
bytesToString: function (bytes) {
return decodeURIComponent(escape(Binary.bytesToString(bytes)));
}
};
// Binary encoding
var Binary = charenc.Binary = {
// Convert a string to a byte array
stringToBytes: function (str) {
for (var bytes = [], i = 0; i < str.length; i++)
bytes.push(str.charCodeAt(i) & 0xFF);
return bytes;
},
// Convert a byte array to a string
bytesToString: function (bytes) {
for (var str = [], i = 0; i < bytes.length; i++)
str.push(String.fromCharCode(bytes[i]));
return str.join("");
}
};
})();
}

/base/000_base/node_modules/cryptojs/lib/CryptoMath.js
@@ -0,0 +1,37 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcut
var util = C.util;
// Convert n to unsigned 32-bit integer
util.u32 = function (n) {
return n >>> 0;
};
// Unsigned 32-bit addition
util.add = function () {
var result = this.u32(arguments[0]);
for (var i = 1; i < arguments.length; i++)
result = this.u32(result + this.u32(arguments[i]));
return result;
};
// Unsigned 32-bit multiplication
util.mult = function (m, n) {
return this.add((n & 0xFFFF0000) * m,
(n & 0x0000FFFF) * m);
};
// Unsigned 32-bit greater than (>) comparison
util.gt = function (m, n) {
return this.u32(m) > this.u32(n);
};
// Unsigned 32-bit less than (<) comparison
util.lt = function (m, n) {
return this.u32(m) < this.u32(n);
};
})();

/base/000_base/node_modules/cryptojs/lib/DES.js
@@ -0,0 +1,1003 @@
/**
* Definition of Data Encryption Standard (DES) taken from:
* http://www.itl.nist.gov/fipspubs/fip46-2.htm
*/
(function() {
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util, charenc = C.charenc, UTF8 = charenc.UTF8;
/***************************************************************************
*
* DES Key Schedule.
*
* The Key consists of 16 sub-keys of 48 bits each. As each sub-key is
* applied to an expanded 32-bit value where each 4 bits of input is
* expanded into 6 bits of output the sub-key can be broken down into 8
* 32-bit values which allows the key to be used without expansion.
*
* To create the 16 sub-keys, 56 bits are selected from the input 64 bit key
* according to <i>PC1</i>. Each sub-key is generated by left rotating the
* bits a different amount and then selecting 48 bits according to <i>PC2</i>.
*
**************************************************************************/
var KeySchedule;
/**
* Representation of a DES key schedule.
*
* @param {Array
* of 8 bytes} key The cipher key
*
* @constructor
*/
KeySchedule = function(key) {
/**
* The schedule of 16 keys
*/
this.keys = new Array(16);
this._initialiseKeys(key);
};
/**
* Permuted Choice 1 (PC1) byte offsets into the key. Each of the 56 entries
* selects one bit of DES's 56 bit key.
* <p>
*
* <pre>
* The PC1 is defined as:
*
* 57, 49, 41, 33, 25, 17, 9,
* 1, 58, 50, 42, 34, 26, 18,
* 10, 2, 59, 51, 43, 35, 27,
* 19, 11, 3, 60, 52, 44, 36,
* 63, 55, 47, 39, 31, 23, 15,
* 7, 62, 54, 46, 38, 30, 22,
* 14, 6, 61, 53, 45, 37, 29,
* 21, 13, 5, 28, 20, 12, 4
* </pre>
*
* We represent this as an offset into an 8-byte array and a bit mask upon
* that byte. For example 57=(7*8)+1 so is the first (MSB) of the 7th byte.
*
* @constant
*/
KeySchedule.PC1_offsets = [ 7, 6, 5, 4, 3, 2, 1, 0, 7, 6, 5, 4, 3, 2, 1, 0,
7, 6, 5, 4, 3, 2, 1, 0, 7, 6, 5, 4, 7, 6, 5, 4, 3, 2, 1, 0, 7, 6,
5, 4, 3, 2, 1, 0, 7, 6, 5, 4, 3, 2, 1, 0, 3, 2, 1, 0 ];
/**
* Permuted Choice 1 (PC1) bit masks. Each of the 56 entries selects one bit
* of DES's 56 bit key.
*
* @constant
*/
KeySchedule.PC1_masks = [ 128, 128, 128, 128, 128, 128, 128, 128, 64, 64,
64, 64, 64, 64, 64, 64, 32, 32, 32, 32, 32, 32, 32, 32, 16, 16, 16,
16, 2, 2, 2, 2, 2, 2, 2, 2, 4, 4, 4, 4, 4, 4, 4, 4, 8, 8, 8, 8, 8,
8, 8, 8, 16, 16, 16, 16 ];
/**
* Permuted Choice 2 (PC2) selects the active 48 bits from the 56 bits of
* the key.
* <p>
*
* <pre>
* The PC2 is defined as:
*
* 14, 17, 11, 24, 1, 5,
* 3, 28, 15, 6, 21, 10,
* 23, 19, 12, 4, 26, 8,
* 16, 7, 27, 20, 13, 2,
* 41, 52, 31, 37, 47, 55,
* 30, 40, 51, 45, 33, 48,
* 44, 49, 39, 56, 34, 53,
* 46, 42, 50, 36, 29, 32
* </pre>
*
* We invert the choice to specify what each bit adds to each 6-bit value of
* the key. For example, bit 1 is the 5th bit selected so this add 2 to the
* first 6-bit value.
*
* @constant
*/
KeySchedule.PC2_offsets1 = [ 0, 3, 1, 2, 0, 1, 3, 2, 0, 1, 0, 2, 3, 0, 1,
3, 0, 0, 2, 3, 1, 0, 2, 0, 0, 2, 3, 1 ];
/**
* PC2 offsets for 2nd block.
*
* @constant
*/
KeySchedule.PC2_offsets2 = [ 7, 5, 4, 7, 5, 6, 0, 7, 4, 0, 6, 5, 4, 7, 0,
6, 5, 7, 4, 5, 6, 7, 5, 4, 6, 0, 4, 6 ];
/**
* Permuted Choice 2 (PC2) masks for 1st block.
*
* @constant
*/
KeySchedule.PC2_masks1 = [ 2, 1, 32, 4, 1, 4, 16, 1, 0, 1, 8, 8, 2, 32, 8,
32, 16, 0, 16, 4, 2, 0, 32, 4, 0, 2, 8, 16 ];
/**
* PC2 masks for 2nd block.
*
* @constant
*/
KeySchedule.PC2_masks2 = [ 2, 32, 8, 1, 2, 2, 0, 4, 4, 0, 8, 16, 32, 16, 0,
32, 4, 32, 2, 1, 16, 8, 8, 16, 1, 0, 1, 4 ];
/**
* Cumulative key shifts.
*
* @constant
*/
KeySchedule.keyShifts = [ 1, 2, 4, 6, 8, 10, 12, 14, 15, 17, 19, 21, 23,
25, 27, 28 ];
KeySchedule.prototype._initialiseKeys = function(key) {
var i;
// extract 56 key bits in order determined by PC1
var bits = new Array(56);
for (i = 0; i < 56; i++) {
bits[i] = (key[KeySchedule.PC1_offsets[i]] & KeySchedule.PC1_masks[i]) != 0;
}
// split 56 bits into two 28-bit chunks
var bits1 = bits.slice(0, 28);
var bits2 = bits.slice(28, 56);
// duplicate each half to allow for easy bit shifts
bits1 = bits1.concat(bits1);
bits2 = bits2.concat(bits2);
// assemble the 16 keys
for (i = 0; i < 16; i++) {
var k = [ 0, 0, 0, 0, 0, 0, 0, 0 ];
// select the bits of the key according to PC2
var s = KeySchedule.keyShifts[i];
for ( var j = 0; j < 28; j++) {
if (bits1[j + s]) {
k[KeySchedule.PC2_offsets1[j]] += KeySchedule.PC2_masks1[j];
}
if (bits2[j + s]) {
k[KeySchedule.PC2_offsets2[j]] += KeySchedule.PC2_masks2[j];
}
}
// Scale each of the 8 blocks to a 32-bit mask.
k[0] = ((k[0] & 0x1f) << 27) + ((k[0] & 0x20) >> 5);
for ( var j = 1; j <= 6; j++) {
k[j] = k[j] << (27 - 4 * j);
}
k[7] = ((k[7] & 0x3e) >> 1) + ((k[7] & 0x1) << 31);
this.keys[i] = k;
}
};
/**
* Retrieve the key for a specified round
*
* @param i
* the round
* @returns the key
*/
KeySchedule.prototype.getKey = function(i) {
return this.keys[i];
};
/***************************************************************************
*
* DES Engine State
*
**************************************************************************/
var State;
/**
* The algorithm's state. DES operates on two sets of 32-bits, with each
* block of 32-bits treated as a single number.
*
* @class
*/
State = function() {
/** The LHS of the Feistel scheme */
this.lhs = 0;
/** The RHS of the Feistel scheme */
this.rhs = 0;
};
/**
* The masks that select the SBOX input. Each SBOX accepts 6 bits from the
* input.
*
* @constant
*/
State.SBOX_MASK = [ 0xf8000001, 0x1f800000, 0x01f80000, 0x001f8000,
0x0001f800, 0x00001f80, 0x000001f8, 0x8000001f ];
/**
* The SBOXes. The 8 SBOXes each map 6 bit masked bit of the input to 4 bits
* of output. These SBOXes include the post SBOX permutation and benefit
* from JavaScript's sparse arrays to make specifying the input match
* simple.
*
* @constant
*/
State.SBOX = new Array(8);
var SBOX = State.SBOX;
SBOX[0] = new Array();
SBOX[0][0] = 0x808200; // 0 (0, 0) = 14
SBOX[0][268435456] = 0x8000; // 10000000 (0, 1) = 4
SBOX[0][536870912] = 0x808002; // 20000000 (0, 2) = 13
SBOX[0][805306368] = 0x2; // 30000000 (0, 3) = 1
SBOX[0][1073741824] = 0x200; // 40000000 (0, 4) = 2
SBOX[0][1342177280] = 0x808202; // 50000000 (0, 5) = 15
SBOX[0][1610612736] = 0x800202; // 60000000 (0, 6) = 11
SBOX[0][1879048192] = 0x800000; // 70000000 (0, 7) = 8
SBOX[0][-2147483648] = 0x202; // 80000000 (0, 8) = 3
SBOX[0][-1879048192] = 0x800200; // 90000000 (0, 9) = 10
SBOX[0][-1610612736] = 0x8200; // a0000000 (0, 10) = 6
SBOX[0][-1342177280] = 0x808000; // b0000000 (0, 11) = 12
SBOX[0][-1073741824] = 0x8002; // c0000000 (0, 12) = 5
SBOX[0][-805306368] = 0x800002; // d0000000 (0, 13) = 9
SBOX[0][-536870912] = 0x0; // e0000000 (0, 14) = 0
SBOX[0][-268435456] = 0x8202; // f0000000 (0, 15) = 7
SBOX[0][134217728] = 0x0; // 8000000 (1, 0) = 0
SBOX[0][402653184] = 0x808202; // 18000000 (1, 1) = 15
SBOX[0][671088640] = 0x8202; // 28000000 (1, 2) = 7
SBOX[0][939524096] = 0x8000; // 38000000 (1, 3) = 4
SBOX[0][1207959552] = 0x808200; // 48000000 (1, 4) = 14
SBOX[0][1476395008] = 0x200; // 58000000 (1, 5) = 2
SBOX[0][1744830464] = 0x808002; // 68000000 (1, 6) = 13
SBOX[0][2013265920] = 0x2; // 78000000 (1, 7) = 1
SBOX[0][-2013265920] = 0x800200; // 88000000 (1, 8) = 10
SBOX[0][-1744830464] = 0x8200; // 98000000 (1, 9) = 6
SBOX[0][-1476395008] = 0x808000; // a8000000 (1, 10) = 12
SBOX[0][-1207959552] = 0x800202; // b8000000 (1, 11) = 11
SBOX[0][-939524096] = 0x800002; // c8000000 (1, 12) = 9
SBOX[0][-671088640] = 0x8002; // d8000000 (1, 13) = 5
SBOX[0][-402653184] = 0x202; // e8000000 (1, 14) = 3
SBOX[0][-134217728] = 0x800000; // f8000000 (1, 15) = 8
SBOX[0][1] = 0x8000; // 1 (2, 0) = 4
SBOX[0][268435457] = 0x2; // 10000001 (2, 1) = 1
SBOX[0][536870913] = 0x808200; // 20000001 (2, 2) = 14
SBOX[0][805306369] = 0x800000; // 30000001 (2, 3) = 8
SBOX[0][1073741825] = 0x808002; // 40000001 (2, 4) = 13
SBOX[0][1342177281] = 0x8200; // 50000001 (2, 5) = 6
SBOX[0][1610612737] = 0x200; // 60000001 (2, 6) = 2
SBOX[0][1879048193] = 0x800202; // 70000001 (2, 7) = 11
SBOX[0][-2147483647] = 0x808202; // 80000001 (2, 8) = 15
SBOX[0][-1879048191] = 0x808000; // 90000001 (2, 9) = 12
SBOX[0][-1610612735] = 0x800002; // a0000001 (2, 10) = 9
SBOX[0][-1342177279] = 0x8202; // b0000001 (2, 11) = 7
SBOX[0][-1073741823] = 0x202; // c0000001 (2, 12) = 3
SBOX[0][-805306367] = 0x800200; // d0000001 (2, 13) = 10
SBOX[0][-536870911] = 0x8002; // e0000001 (2, 14) = 5
SBOX[0][-268435455] = 0x0; // f0000001 (2, 15) = 0
SBOX[0][134217729] = 0x808202; // 8000001 (3, 0) = 15
SBOX[0][402653185] = 0x808000; // 18000001 (3, 1) = 12
SBOX[0][671088641] = 0x800000; // 28000001 (3, 2) = 8
SBOX[0][939524097] = 0x200; // 38000001 (3, 3) = 2
SBOX[0][1207959553] = 0x8000; // 48000001 (3, 4) = 4
SBOX[0][1476395009] = 0x800002; // 58000001 (3, 5) = 9
SBOX[0][1744830465] = 0x2; // 68000001 (3, 6) = 1
SBOX[0][2013265921] = 0x8202; // 78000001 (3, 7) = 7
SBOX[0][-2013265919] = 0x8002; // 88000001 (3, 8) = 5
SBOX[0][-1744830463] = 0x800202; // 98000001 (3, 9) = 11
SBOX[0][-1476395007] = 0x202; // a8000001 (3, 10) = 3
SBOX[0][-1207959551] = 0x808200; // b8000001 (3, 11) = 14
SBOX[0][-939524095] = 0x800200; // c8000001 (3, 12) = 10
SBOX[0][-671088639] = 0x0; // d8000001 (3, 13) = 0
SBOX[0][-402653183] = 0x8200; // e8000001 (3, 14) = 6
SBOX[0][-134217727] = 0x808002; // f8000001 (3, 15) = 13
SBOX[1] = new Array();
SBOX[1][0] = 0x40084010; // 0 (0, 0) = 15
SBOX[1][16777216] = 0x4000; // 1000000 (0, 1) = 1
SBOX[1][33554432] = 0x80000; // 2000000 (0, 2) = 8
SBOX[1][50331648] = 0x40080010; // 3000000 (0, 3) = 14
SBOX[1][67108864] = 0x40000010; // 4000000 (0, 4) = 6
SBOX[1][83886080] = 0x40084000; // 5000000 (0, 5) = 11
SBOX[1][100663296] = 0x40004000; // 6000000 (0, 6) = 3
SBOX[1][117440512] = 0x10; // 7000000 (0, 7) = 4
SBOX[1][134217728] = 0x84000; // 8000000 (0, 8) = 9
SBOX[1][150994944] = 0x40004010; // 9000000 (0, 9) = 7
SBOX[1][167772160] = 0x40000000; // a000000 (0, 10) = 2
SBOX[1][184549376] = 0x84010; // b000000 (0, 11) = 13
SBOX[1][201326592] = 0x80010; // c000000 (0, 12) = 12
SBOX[1][218103808] = 0x0; // d000000 (0, 13) = 0
SBOX[1][234881024] = 0x4010; // e000000 (0, 14) = 5
SBOX[1][251658240] = 0x40080000; // f000000 (0, 15) = 10
SBOX[1][8388608] = 0x40004000; // 800000 (1, 0) = 3
SBOX[1][25165824] = 0x84010; // 1800000 (1, 1) = 13
SBOX[1][41943040] = 0x10; // 2800000 (1, 2) = 4
SBOX[1][58720256] = 0x40004010; // 3800000 (1, 3) = 7
SBOX[1][75497472] = 0x40084010; // 4800000 (1, 4) = 15
SBOX[1][92274688] = 0x40000000; // 5800000 (1, 5) = 2
SBOX[1][109051904] = 0x80000; // 6800000 (1, 6) = 8
SBOX[1][125829120] = 0x40080010; // 7800000 (1, 7) = 14
SBOX[1][142606336] = 0x80010; // 8800000 (1, 8) = 12
SBOX[1][159383552] = 0x0; // 9800000 (1, 9) = 0
SBOX[1][176160768] = 0x4000; // a800000 (1, 10) = 1
SBOX[1][192937984] = 0x40080000; // b800000 (1, 11) = 10
SBOX[1][209715200] = 0x40000010; // c800000 (1, 12) = 6
SBOX[1][226492416] = 0x84000; // d800000 (1, 13) = 9
SBOX[1][243269632] = 0x40084000; // e800000 (1, 14) = 11
SBOX[1][260046848] = 0x4010; // f800000 (1, 15) = 5
SBOX[1][268435456] = 0x0; // 10000000 (2, 0) = 0
SBOX[1][285212672] = 0x40080010; // 11000000 (2, 1) = 14
SBOX[1][301989888] = 0x40004010; // 12000000 (2, 2) = 7
SBOX[1][318767104] = 0x40084000; // 13000000 (2, 3) = 11
SBOX[1][335544320] = 0x40080000; // 14000000 (2, 4) = 10
SBOX[1][352321536] = 0x10; // 15000000 (2, 5) = 4
SBOX[1][369098752] = 0x84010; // 16000000 (2, 6) = 13
SBOX[1][385875968] = 0x4000; // 17000000 (2, 7) = 1
SBOX[1][402653184] = 0x4010; // 18000000 (2, 8) = 5
SBOX[1][419430400] = 0x80000; // 19000000 (2, 9) = 8
SBOX[1][436207616] = 0x80010; // 1a000000 (2, 10) = 12
SBOX[1][452984832] = 0x40000010; // 1b000000 (2, 11) = 6
SBOX[1][469762048] = 0x84000; // 1c000000 (2, 12) = 9
SBOX[1][486539264] = 0x40004000; // 1d000000 (2, 13) = 3
SBOX[1][503316480] = 0x40000000; // 1e000000 (2, 14) = 2
SBOX[1][520093696] = 0x40084010; // 1f000000 (2, 15) = 15
SBOX[1][276824064] = 0x84010; // 10800000 (3, 0) = 13
SBOX[1][293601280] = 0x80000; // 11800000 (3, 1) = 8
SBOX[1][310378496] = 0x40080000; // 12800000 (3, 2) = 10
SBOX[1][327155712] = 0x4000; // 13800000 (3, 3) = 1
SBOX[1][343932928] = 0x40004000; // 14800000 (3, 4) = 3
SBOX[1][360710144] = 0x40084010; // 15800000 (3, 5) = 15
SBOX[1][377487360] = 0x10; // 16800000 (3, 6) = 4
SBOX[1][394264576] = 0x40000000; // 17800000 (3, 7) = 2
SBOX[1][411041792] = 0x40084000; // 18800000 (3, 8) = 11
SBOX[1][427819008] = 0x40000010; // 19800000 (3, 9) = 6
SBOX[1][444596224] = 0x40004010; // 1a800000 (3, 10) = 7
SBOX[1][461373440] = 0x80010; // 1b800000 (3, 11) = 12
SBOX[1][478150656] = 0x0; // 1c800000 (3, 12) = 0
SBOX[1][494927872] = 0x4010; // 1d800000 (3, 13) = 5
SBOX[1][511705088] = 0x40080010; // 1e800000 (3, 14) = 14
SBOX[1][528482304] = 0x84000; // 1f800000 (3, 15) = 9
SBOX[2] = new Array();
SBOX[2][0] = 0x104; // 0 (0, 0) = 10
SBOX[2][1048576] = 0x0; // 100000 (0, 1) = 0
SBOX[2][2097152] = 0x4000100; // 200000 (0, 2) = 9
SBOX[2][3145728] = 0x10104; // 300000 (0, 3) = 14
SBOX[2][4194304] = 0x10004; // 400000 (0, 4) = 6
SBOX[2][5242880] = 0x4000004; // 500000 (0, 5) = 3
SBOX[2][6291456] = 0x4010104; // 600000 (0, 6) = 15
SBOX[2][7340032] = 0x4010000; // 700000 (0, 7) = 5
SBOX[2][8388608] = 0x4000000; // 800000 (0, 8) = 1
SBOX[2][9437184] = 0x4010100; // 900000 (0, 9) = 13
SBOX[2][10485760] = 0x10100; // a00000 (0, 10) = 12
SBOX[2][11534336] = 0x4010004; // b00000 (0, 11) = 7
SBOX[2][12582912] = 0x4000104; // c00000 (0, 12) = 11
SBOX[2][13631488] = 0x10000; // d00000 (0, 13) = 4
SBOX[2][14680064] = 0x4; // e00000 (0, 14) = 2
SBOX[2][15728640] = 0x100; // f00000 (0, 15) = 8
SBOX[2][524288] = 0x4010100; // 80000 (1, 0) = 13
SBOX[2][1572864] = 0x4010004; // 180000 (1, 1) = 7
SBOX[2][2621440] = 0x0; // 280000 (1, 2) = 0
SBOX[2][3670016] = 0x4000100; // 380000 (1, 3) = 9
SBOX[2][4718592] = 0x4000004; // 480000 (1, 4) = 3
SBOX[2][5767168] = 0x10000; // 580000 (1, 5) = 4
SBOX[2][6815744] = 0x10004; // 680000 (1, 6) = 6
SBOX[2][7864320] = 0x104; // 780000 (1, 7) = 10
SBOX[2][8912896] = 0x4; // 880000 (1, 8) = 2
SBOX[2][9961472] = 0x100; // 980000 (1, 9) = 8
SBOX[2][11010048] = 0x4010000; // a80000 (1, 10) = 5
SBOX[2][12058624] = 0x10104; // b80000 (1, 11) = 14
SBOX[2][13107200] = 0x10100; // c80000 (1, 12) = 12
SBOX[2][14155776] = 0x4000104; // d80000 (1, 13) = 11
SBOX[2][15204352] = 0x4010104; // e80000 (1, 14) = 15
SBOX[2][16252928] = 0x4000000; // f80000 (1, 15) = 1
SBOX[2][16777216] = 0x4010100; // 1000000 (2, 0) = 13
SBOX[2][17825792] = 0x10004; // 1100000 (2, 1) = 6
SBOX[2][18874368] = 0x10000; // 1200000 (2, 2) = 4
SBOX[2][19922944] = 0x4000100; // 1300000 (2, 3) = 9
SBOX[2][20971520] = 0x100; // 1400000 (2, 4) = 8
SBOX[2][22020096] = 0x4010104; // 1500000 (2, 5) = 15
SBOX[2][23068672] = 0x4000004; // 1600000 (2, 6) = 3
SBOX[2][24117248] = 0x0; // 1700000 (2, 7) = 0
SBOX[2][25165824] = 0x4000104; // 1800000 (2, 8) = 11
SBOX[2][26214400] = 0x4000000; // 1900000 (2, 9) = 1
SBOX[2][27262976] = 0x4; // 1a00000 (2, 10) = 2
SBOX[2][28311552] = 0x10100; // 1b00000 (2, 11) = 12
SBOX[2][29360128] = 0x4010000; // 1c00000 (2, 12) = 5
SBOX[2][30408704] = 0x104; // 1d00000 (2, 13) = 10
SBOX[2][31457280] = 0x10104; // 1e00000 (2, 14) = 14
SBOX[2][32505856] = 0x4010004; // 1f00000 (2, 15) = 7
SBOX[2][17301504] = 0x4000000; // 1080000 (3, 0) = 1
SBOX[2][18350080] = 0x104; // 1180000 (3, 1) = 10
SBOX[2][19398656] = 0x4010100; // 1280000 (3, 2) = 13
SBOX[2][20447232] = 0x0; // 1380000 (3, 3) = 0
SBOX[2][21495808] = 0x10004; // 1480000 (3, 4) = 6
SBOX[2][22544384] = 0x4000100; // 1580000 (3, 5) = 9
SBOX[2][23592960] = 0x100; // 1680000 (3, 6) = 8
SBOX[2][24641536] = 0x4010004; // 1780000 (3, 7) = 7
SBOX[2][25690112] = 0x10000; // 1880000 (3, 8) = 4
SBOX[2][26738688] = 0x4010104; // 1980000 (3, 9) = 15
SBOX[2][27787264] = 0x10104; // 1a80000 (3, 10) = 14
SBOX[2][28835840] = 0x4000004; // 1b80000 (3, 11) = 3
SBOX[2][29884416] = 0x4000104; // 1c80000 (3, 12) = 11
SBOX[2][30932992] = 0x4010000; // 1d80000 (3, 13) = 5
SBOX[2][31981568] = 0x4; // 1e80000 (3, 14) = 2
SBOX[2][33030144] = 0x10100; // 1f80000 (3, 15) = 12
SBOX[3] = new Array();
SBOX[3][0] = 0x80401000; // 0 (0, 0) = 7
SBOX[3][65536] = 0x80001040; // 10000 (0, 1) = 13
SBOX[3][131072] = 0x401040; // 20000 (0, 2) = 14
SBOX[3][196608] = 0x80400000; // 30000 (0, 3) = 3
SBOX[3][262144] = 0x0; // 40000 (0, 4) = 0
SBOX[3][327680] = 0x401000; // 50000 (0, 5) = 6
SBOX[3][393216] = 0x80000040; // 60000 (0, 6) = 9
SBOX[3][458752] = 0x400040; // 70000 (0, 7) = 10
SBOX[3][524288] = 0x80000000; // 80000 (0, 8) = 1
SBOX[3][589824] = 0x400000; // 90000 (0, 9) = 2
SBOX[3][655360] = 0x40; // a0000 (0, 10) = 8
SBOX[3][720896] = 0x80001000; // b0000 (0, 11) = 5
SBOX[3][786432] = 0x80400040; // c0000 (0, 12) = 11
SBOX[3][851968] = 0x1040; // d0000 (0, 13) = 12
SBOX[3][917504] = 0x1000; // e0000 (0, 14) = 4
SBOX[3][983040] = 0x80401040; // f0000 (0, 15) = 15
SBOX[3][32768] = 0x80001040; // 8000 (1, 0) = 13
SBOX[3][98304] = 0x40; // 18000 (1, 1) = 8
SBOX[3][163840] = 0x80400040; // 28000 (1, 2) = 11
SBOX[3][229376] = 0x80001000; // 38000 (1, 3) = 5
SBOX[3][294912] = 0x401000; // 48000 (1, 4) = 6
SBOX[3][360448] = 0x80401040; // 58000 (1, 5) = 15
SBOX[3][425984] = 0x0; // 68000 (1, 6) = 0
SBOX[3][491520] = 0x80400000; // 78000 (1, 7) = 3
SBOX[3][557056] = 0x1000; // 88000 (1, 8) = 4
SBOX[3][622592] = 0x80401000; // 98000 (1, 9) = 7
SBOX[3][688128] = 0x400000; // a8000 (1, 10) = 2
SBOX[3][753664] = 0x1040; // b8000 (1, 11) = 12
SBOX[3][819200] = 0x80000000; // c8000 (1, 12) = 1
SBOX[3][884736] = 0x400040; // d8000 (1, 13) = 10
SBOX[3][950272] = 0x401040; // e8000 (1, 14) = 14
SBOX[3][1015808] = 0x80000040; // f8000 (1, 15) = 9
SBOX[3][1048576] = 0x400040; // 100000 (2, 0) = 10
SBOX[3][1114112] = 0x401000; // 110000 (2, 1) = 6
SBOX[3][1179648] = 0x80000040; // 120000 (2, 2) = 9
SBOX[3][1245184] = 0x0; // 130000 (2, 3) = 0
SBOX[3][1310720] = 0x1040; // 140000 (2, 4) = 12
SBOX[3][1376256] = 0x80400040; // 150000 (2, 5) = 11
SBOX[3][1441792] = 0x80401000; // 160000 (2, 6) = 7
SBOX[3][1507328] = 0x80001040; // 170000 (2, 7) = 13
SBOX[3][1572864] = 0x80401040; // 180000 (2, 8) = 15
SBOX[3][1638400] = 0x80000000; // 190000 (2, 9) = 1
SBOX[3][1703936] = 0x80400000; // 1a0000 (2, 10) = 3
SBOX[3][1769472] = 0x401040; // 1b0000 (2, 11) = 14
SBOX[3][1835008] = 0x80001000; // 1c0000 (2, 12) = 5
SBOX[3][1900544] = 0x400000; // 1d0000 (2, 13) = 2
SBOX[3][1966080] = 0x40; // 1e0000 (2, 14) = 8
SBOX[3][2031616] = 0x1000; // 1f0000 (2, 15) = 4
SBOX[3][1081344] = 0x80400000; // 108000 (3, 0) = 3
SBOX[3][1146880] = 0x80401040; // 118000 (3, 1) = 15
SBOX[3][1212416] = 0x0; // 128000 (3, 2) = 0
SBOX[3][1277952] = 0x401000; // 138000 (3, 3) = 6
SBOX[3][1343488] = 0x400040; // 148000 (3, 4) = 10
SBOX[3][1409024] = 0x80000000; // 158000 (3, 5) = 1
SBOX[3][1474560] = 0x80001040; // 168000 (3, 6) = 13
SBOX[3][1540096] = 0x40; // 178000 (3, 7) = 8
SBOX[3][1605632] = 0x80000040; // 188000 (3, 8) = 9
SBOX[3][1671168] = 0x1000; // 198000 (3, 9) = 4
SBOX[3][1736704] = 0x80001000; // 1a8000 (3, 10) = 5
SBOX[3][1802240] = 0x80400040; // 1b8000 (3, 11) = 11
SBOX[3][1867776] = 0x1040; // 1c8000 (3, 12) = 12
SBOX[3][1933312] = 0x80401000; // 1d8000 (3, 13) = 7
SBOX[3][1998848] = 0x400000; // 1e8000 (3, 14) = 2
SBOX[3][2064384] = 0x401040; // 1f8000 (3, 15) = 14
SBOX[4] = new Array();
SBOX[4][0] = 0x80; // 0 (0, 0) = 2
SBOX[4][4096] = 0x1040000; // 1000 (0, 1) = 12
SBOX[4][8192] = 0x40000; // 2000 (0, 2) = 4
SBOX[4][12288] = 0x20000000; // 3000 (0, 3) = 1
SBOX[4][16384] = 0x20040080; // 4000 (0, 4) = 7
SBOX[4][20480] = 0x1000080; // 5000 (0, 5) = 10
SBOX[4][24576] = 0x21000080; // 6000 (0, 6) = 11
SBOX[4][28672] = 0x40080; // 7000 (0, 7) = 6
SBOX[4][32768] = 0x1000000; // 8000 (0, 8) = 8
SBOX[4][36864] = 0x20040000; // 9000 (0, 9) = 5
SBOX[4][40960] = 0x20000080; // a000 (0, 10) = 3
SBOX[4][45056] = 0x21040080; // b000 (0, 11) = 15
SBOX[4][49152] = 0x21040000; // c000 (0, 12) = 13
SBOX[4][53248] = 0x0; // d000 (0, 13) = 0
SBOX[4][57344] = 0x1040080; // e000 (0, 14) = 14
SBOX[4][61440] = 0x21000000; // f000 (0, 15) = 9
SBOX[4][2048] = 0x1040080; // 800 (1, 0) = 14
SBOX[4][6144] = 0x21000080; // 1800 (1, 1) = 11
SBOX[4][10240] = 0x80; // 2800 (1, 2) = 2
SBOX[4][14336] = 0x1040000; // 3800 (1, 3) = 12
SBOX[4][18432] = 0x40000; // 4800 (1, 4) = 4
SBOX[4][22528] = 0x20040080; // 5800 (1, 5) = 7
SBOX[4][26624] = 0x21040000; // 6800 (1, 6) = 13
SBOX[4][30720] = 0x20000000; // 7800 (1, 7) = 1
SBOX[4][34816] = 0x20040000; // 8800 (1, 8) = 5
SBOX[4][38912] = 0x0; // 9800 (1, 9) = 0
SBOX[4][43008] = 0x21040080; // a800 (1, 10) = 15
SBOX[4][47104] = 0x1000080; // b800 (1, 11) = 10
SBOX[4][51200] = 0x20000080; // c800 (1, 12) = 3
SBOX[4][55296] = 0x21000000; // d800 (1, 13) = 9
SBOX[4][59392] = 0x1000000; // e800 (1, 14) = 8
SBOX[4][63488] = 0x40080; // f800 (1, 15) = 6
SBOX[4][65536] = 0x40000; // 10000 (2, 0) = 4
SBOX[4][69632] = 0x80; // 11000 (2, 1) = 2
SBOX[4][73728] = 0x20000000; // 12000 (2, 2) = 1
SBOX[4][77824] = 0x21000080; // 13000 (2, 3) = 11
SBOX[4][81920] = 0x1000080; // 14000 (2, 4) = 10
SBOX[4][86016] = 0x21040000; // 15000 (2, 5) = 13
SBOX[4][90112] = 0x20040080; // 16000 (2, 6) = 7
SBOX[4][94208] = 0x1000000; // 17000 (2, 7) = 8
SBOX[4][98304] = 0x21040080; // 18000 (2, 8) = 15
SBOX[4][102400] = 0x21000000; // 19000 (2, 9) = 9
SBOX[4][106496] = 0x1040000; // 1a000 (2, 10) = 12
SBOX[4][110592] = 0x20040000; // 1b000 (2, 11) = 5
SBOX[4][114688] = 0x40080; // 1c000 (2, 12) = 6
SBOX[4][118784] = 0x20000080; // 1d000 (2, 13) = 3
SBOX[4][122880] = 0x0; // 1e000 (2, 14) = 0
SBOX[4][126976] = 0x1040080; // 1f000 (2, 15) = 14
SBOX[4][67584] = 0x21000080; // 10800 (3, 0) = 11
SBOX[4][71680] = 0x1000000; // 11800 (3, 1) = 8
SBOX[4][75776] = 0x1040000; // 12800 (3, 2) = 12
SBOX[4][79872] = 0x20040080; // 13800 (3, 3) = 7
SBOX[4][83968] = 0x20000000; // 14800 (3, 4) = 1
SBOX[4][88064] = 0x1040080; // 15800 (3, 5) = 14
SBOX[4][92160] = 0x80; // 16800 (3, 6) = 2
SBOX[4][96256] = 0x21040000; // 17800 (3, 7) = 13
SBOX[4][100352] = 0x40080; // 18800 (3, 8) = 6
SBOX[4][104448] = 0x21040080; // 19800 (3, 9) = 15
SBOX[4][108544] = 0x0; // 1a800 (3, 10) = 0
SBOX[4][112640] = 0x21000000; // 1b800 (3, 11) = 9
SBOX[4][116736] = 0x1000080; // 1c800 (3, 12) = 10
SBOX[4][120832] = 0x40000; // 1d800 (3, 13) = 4
SBOX[4][124928] = 0x20040000; // 1e800 (3, 14) = 5
SBOX[4][129024] = 0x20000080; // 1f800 (3, 15) = 3
SBOX[5] = new Array();
SBOX[5][0] = 0x10000008; // 0 (0, 0) = 12
SBOX[5][256] = 0x2000; // 100 (0, 1) = 1
SBOX[5][512] = 0x10200000; // 200 (0, 2) = 10
SBOX[5][768] = 0x10202008; // 300 (0, 3) = 15
SBOX[5][1024] = 0x10002000; // 400 (0, 4) = 9
SBOX[5][1280] = 0x200000; // 500 (0, 5) = 2
SBOX[5][1536] = 0x200008; // 600 (0, 6) = 6
SBOX[5][1792] = 0x10000000; // 700 (0, 7) = 8
SBOX[5][2048] = 0x0; // 800 (0, 8) = 0
SBOX[5][2304] = 0x10002008; // 900 (0, 9) = 13
SBOX[5][2560] = 0x202000; // a00 (0, 10) = 3
SBOX[5][2816] = 0x8; // b00 (0, 11) = 4
SBOX[5][3072] = 0x10200008; // c00 (0, 12) = 14
SBOX[5][3328] = 0x202008; // d00 (0, 13) = 7
SBOX[5][3584] = 0x2008; // e00 (0, 14) = 5
SBOX[5][3840] = 0x10202000; // f00 (0, 15) = 11
SBOX[5][128] = 0x10200000; // 80 (1, 0) = 10
SBOX[5][384] = 0x10202008; // 180 (1, 1) = 15
SBOX[5][640] = 0x8; // 280 (1, 2) = 4
SBOX[5][896] = 0x200000; // 380 (1, 3) = 2
SBOX[5][1152] = 0x202008; // 480 (1, 4) = 7
SBOX[5][1408] = 0x10000008; // 580 (1, 5) = 12
SBOX[5][1664] = 0x10002000; // 680 (1, 6) = 9
SBOX[5][1920] = 0x2008; // 780 (1, 7) = 5
SBOX[5][2176] = 0x200008; // 880 (1, 8) = 6
SBOX[5][2432] = 0x2000; // 980 (1, 9) = 1
SBOX[5][2688] = 0x10002008; // a80 (1, 10) = 13
SBOX[5][2944] = 0x10200008; // b80 (1, 11) = 14
SBOX[5][3200] = 0x0; // c80 (1, 12) = 0
SBOX[5][3456] = 0x10202000; // d80 (1, 13) = 11
SBOX[5][3712] = 0x202000; // e80 (1, 14) = 3
SBOX[5][3968] = 0x10000000; // f80 (1, 15) = 8
SBOX[5][4096] = 0x10002000; // 1000 (2, 0) = 9
SBOX[5][4352] = 0x10200008; // 1100 (2, 1) = 14
SBOX[5][4608] = 0x10202008; // 1200 (2, 2) = 15
SBOX[5][4864] = 0x2008; // 1300 (2, 3) = 5
SBOX[5][5120] = 0x200000; // 1400 (2, 4) = 2
SBOX[5][5376] = 0x10000000; // 1500 (2, 5) = 8
SBOX[5][5632] = 0x10000008; // 1600 (2, 6) = 12
SBOX[5][5888] = 0x202000; // 1700 (2, 7) = 3
SBOX[5][6144] = 0x202008; // 1800 (2, 8) = 7
SBOX[5][6400] = 0x0; // 1900 (2, 9) = 0
SBOX[5][6656] = 0x8; // 1a00 (2, 10) = 4
SBOX[5][6912] = 0x10200000; // 1b00 (2, 11) = 10
SBOX[5][7168] = 0x2000; // 1c00 (2, 12) = 1
SBOX[5][7424] = 0x10002008; // 1d00 (2, 13) = 13
SBOX[5][7680] = 0x10202000; // 1e00 (2, 14) = 11
SBOX[5][7936] = 0x200008; // 1f00 (2, 15) = 6
SBOX[5][4224] = 0x8; // 1080 (3, 0) = 4
SBOX[5][4480] = 0x202000; // 1180 (3, 1) = 3
SBOX[5][4736] = 0x200000; // 1280 (3, 2) = 2
SBOX[5][4992] = 0x10000008; // 1380 (3, 3) = 12
SBOX[5][5248] = 0x10002000; // 1480 (3, 4) = 9
SBOX[5][5504] = 0x2008; // 1580 (3, 5) = 5
SBOX[5][5760] = 0x10202008; // 1680 (3, 6) = 15
SBOX[5][6016] = 0x10200000; // 1780 (3, 7) = 10
SBOX[5][6272] = 0x10202000; // 1880 (3, 8) = 11
SBOX[5][6528] = 0x10200008; // 1980 (3, 9) = 14
SBOX[5][6784] = 0x2000; // 1a80 (3, 10) = 1
SBOX[5][7040] = 0x202008; // 1b80 (3, 11) = 7
SBOX[5][7296] = 0x200008; // 1c80 (3, 12) = 6
SBOX[5][7552] = 0x0; // 1d80 (3, 13) = 0
SBOX[5][7808] = 0x10000000; // 1e80 (3, 14) = 8
SBOX[5][8064] = 0x10002008; // 1f80 (3, 15) = 13
SBOX[6] = new Array();
SBOX[6][0] = 0x100000; // 0 (0, 0) = 4
SBOX[6][16] = 0x2000401; // 10 (0, 1) = 11
SBOX[6][32] = 0x400; // 20 (0, 2) = 2
SBOX[6][48] = 0x100401; // 30 (0, 3) = 14
SBOX[6][64] = 0x2100401; // 40 (0, 4) = 15
SBOX[6][80] = 0x0; // 50 (0, 5) = 0
SBOX[6][96] = 0x1; // 60 (0, 6) = 8
SBOX[6][112] = 0x2100001; // 70 (0, 7) = 13
SBOX[6][128] = 0x2000400; // 80 (0, 8) = 3
SBOX[6][144] = 0x100001; // 90 (0, 9) = 12
SBOX[6][160] = 0x2000001; // a0 (0, 10) = 9
SBOX[6][176] = 0x2100400; // b0 (0, 11) = 7
SBOX[6][192] = 0x2100000; // c0 (0, 12) = 5
SBOX[6][208] = 0x401; // d0 (0, 13) = 10
SBOX[6][224] = 0x100400; // e0 (0, 14) = 6
SBOX[6][240] = 0x2000000; // f0 (0, 15) = 1
SBOX[6][8] = 0x2100001; // 8 (1, 0) = 13
SBOX[6][24] = 0x0; // 18 (1, 1) = 0
SBOX[6][40] = 0x2000401; // 28 (1, 2) = 11
SBOX[6][56] = 0x2100400; // 38 (1, 3) = 7
SBOX[6][72] = 0x100000; // 48 (1, 4) = 4
SBOX[6][88] = 0x2000001; // 58 (1, 5) = 9
SBOX[6][104] = 0x2000000; // 68 (1, 6) = 1
SBOX[6][120] = 0x401; // 78 (1, 7) = 10
SBOX[6][136] = 0x100401; // 88 (1, 8) = 14
SBOX[6][152] = 0x2000400; // 98 (1, 9) = 3
SBOX[6][168] = 0x2100000; // a8 (1, 10) = 5
SBOX[6][184] = 0x100001; // b8 (1, 11) = 12
SBOX[6][200] = 0x400; // c8 (1, 12) = 2
SBOX[6][216] = 0x2100401; // d8 (1, 13) = 15
SBOX[6][232] = 0x1; // e8 (1, 14) = 8
SBOX[6][248] = 0x100400; // f8 (1, 15) = 6
SBOX[6][256] = 0x2000000; // 100 (2, 0) = 1
SBOX[6][272] = 0x100000; // 110 (2, 1) = 4
SBOX[6][288] = 0x2000401; // 120 (2, 2) = 11
SBOX[6][304] = 0x2100001; // 130 (2, 3) = 13
SBOX[6][320] = 0x100001; // 140 (2, 4) = 12
SBOX[6][336] = 0x2000400; // 150 (2, 5) = 3
SBOX[6][352] = 0x2100400; // 160 (2, 6) = 7
SBOX[6][368] = 0x100401; // 170 (2, 7) = 14
SBOX[6][384] = 0x401; // 180 (2, 8) = 10
SBOX[6][400] = 0x2100401; // 190 (2, 9) = 15
SBOX[6][416] = 0x100400; // 1a0 (2, 10) = 6
SBOX[6][432] = 0x1; // 1b0 (2, 11) = 8
SBOX[6][448] = 0x0; // 1c0 (2, 12) = 0
SBOX[6][464] = 0x2100000; // 1d0 (2, 13) = 5
SBOX[6][480] = 0x2000001; // 1e0 (2, 14) = 9
SBOX[6][496] = 0x400; // 1f0 (2, 15) = 2
SBOX[6][264] = 0x100400; // 108 (3, 0) = 6
SBOX[6][280] = 0x2000401; // 118 (3, 1) = 11
SBOX[6][296] = 0x2100001; // 128 (3, 2) = 13
SBOX[6][312] = 0x1; // 138 (3, 3) = 8
SBOX[6][328] = 0x2000000; // 148 (3, 4) = 1
SBOX[6][344] = 0x100000; // 158 (3, 5) = 4
SBOX[6][360] = 0x401; // 168 (3, 6) = 10
SBOX[6][376] = 0x2100400; // 178 (3, 7) = 7
SBOX[6][392] = 0x2000001; // 188 (3, 8) = 9
SBOX[6][408] = 0x2100000; // 198 (3, 9) = 5
SBOX[6][424] = 0x0; // 1a8 (3, 10) = 0
SBOX[6][440] = 0x2100401; // 1b8 (3, 11) = 15
SBOX[6][456] = 0x100401; // 1c8 (3, 12) = 14
SBOX[6][472] = 0x400; // 1d8 (3, 13) = 2
SBOX[6][488] = 0x2000400; // 1e8 (3, 14) = 3
SBOX[6][504] = 0x100001; // 1f8 (3, 15) = 12
SBOX[7] = new Array();
SBOX[7][0] = 0x8000820; // 0 (0, 0) = 13
SBOX[7][1] = 0x20000; // 1 (0, 1) = 2
SBOX[7][2] = 0x8000000; // 2 (0, 2) = 8
SBOX[7][3] = 0x20; // 3 (0, 3) = 4
SBOX[7][4] = 0x20020; // 4 (0, 4) = 6
SBOX[7][5] = 0x8020820; // 5 (0, 5) = 15
SBOX[7][6] = 0x8020800; // 6 (0, 6) = 11
SBOX[7][7] = 0x800; // 7 (0, 7) = 1
SBOX[7][8] = 0x8020000; // 8 (0, 8) = 10
SBOX[7][9] = 0x8000800; // 9 (0, 9) = 9
SBOX[7][10] = 0x20800; // a (0, 10) = 3
SBOX[7][11] = 0x8020020; // b (0, 11) = 14
SBOX[7][12] = 0x820; // c (0, 12) = 5
SBOX[7][13] = 0x0; // d (0, 13) = 0
SBOX[7][14] = 0x8000020; // e (0, 14) = 12
SBOX[7][15] = 0x20820; // f (0, 15) = 7
SBOX[7][-2147483648] = 0x800; // 80000000 (1, 0) = 1
SBOX[7][-2147483647] = 0x8020820; // 80000001 (1, 1) = 15
SBOX[7][-2147483646] = 0x8000820; // 80000002 (1, 2) = 13
SBOX[7][-2147483645] = 0x8000000; // 80000003 (1, 3) = 8
SBOX[7][-2147483644] = 0x8020000; // 80000004 (1, 4) = 10
SBOX[7][-2147483643] = 0x20800; // 80000005 (1, 5) = 3
SBOX[7][-2147483642] = 0x20820; // 80000006 (1, 6) = 7
SBOX[7][-2147483641] = 0x20; // 80000007 (1, 7) = 4
SBOX[7][-2147483640] = 0x8000020; // 80000008 (1, 8) = 12
SBOX[7][-2147483639] = 0x820; // 80000009 (1, 9) = 5
SBOX[7][-2147483638] = 0x20020; // 8000000a (1, 10) = 6
SBOX[7][-2147483637] = 0x8020800; // 8000000b (1, 11) = 11
SBOX[7][-2147483636] = 0x0; // 8000000c (1, 12) = 0
SBOX[7][-2147483635] = 0x8020020; // 8000000d (1, 13) = 14
SBOX[7][-2147483634] = 0x8000800; // 8000000e (1, 14) = 9
SBOX[7][-2147483633] = 0x20000; // 8000000f (1, 15) = 2
SBOX[7][16] = 0x20820; // 10 (2, 0) = 7
SBOX[7][17] = 0x8020800; // 11 (2, 1) = 11
SBOX[7][18] = 0x20; // 12 (2, 2) = 4
SBOX[7][19] = 0x800; // 13 (2, 3) = 1
SBOX[7][20] = 0x8000800; // 14 (2, 4) = 9
SBOX[7][21] = 0x8000020; // 15 (2, 5) = 12
SBOX[7][22] = 0x8020020; // 16 (2, 6) = 14
SBOX[7][23] = 0x20000; // 17 (2, 7) = 2
SBOX[7][24] = 0x0; // 18 (2, 8) = 0
SBOX[7][25] = 0x20020; // 19 (2, 9) = 6
SBOX[7][26] = 0x8020000; // 1a (2, 10) = 10
SBOX[7][27] = 0x8000820; // 1b (2, 11) = 13
SBOX[7][28] = 0x8020820; // 1c (2, 12) = 15
SBOX[7][29] = 0x20800; // 1d (2, 13) = 3
SBOX[7][30] = 0x820; // 1e (2, 14) = 5
SBOX[7][31] = 0x8000000; // 1f (2, 15) = 8
SBOX[7][-2147483632] = 0x20000; // 80000010 (3, 0) = 2
SBOX[7][-2147483631] = 0x800; // 80000011 (3, 1) = 1
SBOX[7][-2147483630] = 0x8020020; // 80000012 (3, 2) = 14
SBOX[7][-2147483629] = 0x20820; // 80000013 (3, 3) = 7
SBOX[7][-2147483628] = 0x20; // 80000014 (3, 4) = 4
SBOX[7][-2147483627] = 0x8020000; // 80000015 (3, 5) = 10
SBOX[7][-2147483626] = 0x8000000; // 80000016 (3, 6) = 8
SBOX[7][-2147483625] = 0x8000820; // 80000017 (3, 7) = 13
SBOX[7][-2147483624] = 0x8020820; // 80000018 (3, 8) = 15
SBOX[7][-2147483623] = 0x8000020; // 80000019 (3, 9) = 12
SBOX[7][-2147483622] = 0x8000800; // 8000001a (3, 10) = 9
SBOX[7][-2147483621] = 0x0; // 8000001b (3, 11) = 0
SBOX[7][-2147483620] = 0x20800; // 8000001c (3, 12) = 3
SBOX[7][-2147483619] = 0x820; // 8000001d (3, 13) = 5
SBOX[7][-2147483618] = 0x20020; // 8000001e (3, 14) = 6
SBOX[7][-2147483617] = 0x8020800; // 8000001f (3, 15) = 11
State.prototype._exchangeLR = function(v, m) {
var t = ((this.lhs >> v) ^ this.rhs) & m;
this.rhs ^= t;
this.lhs ^= (t << v);
};
State.prototype._exchangeRL = function(v, m) {
var t = ((this.rhs >> v) ^ this.lhs) & m;
this.lhs ^= t;
this.rhs ^= (t << v);
};
/**
* Perform the initial permutation of the input to create the starting state
* of the algorithm. The initial permutation maps each consecutive bit of
* the input into a different byte of the state.
*
* <pre>
* The initial permutation is defined to be:
*
* 58 50 42 34 26 18 10 2
* 60 52 44 36 28 20 12 4
* 62 54 46 38 30 22 14 6
* 64 56 48 40 32 24 16 8
* 57 49 41 33 25 17 9 1
* 59 51 43 35 27 19 11 3
* 61 53 45 37 29 21 13 5
* 63 55 47 39 31 23 15 7
* </pre>
*
*
* @param message
* The message as an array of unsigned bytes.
* @param offset
* The offset into the message that the current 64-bit block
* begins.
* @returns the initial engine state
*/
State.prototype.initialPerm = function(message, offset) {
var input = message.slice(offset, offset + 8);
this.lhs = (input[0] << 24) + (input[1] << 16) + (input[2] << 8)
+ input[3];
this.rhs = (input[4] << 24) + (input[5] << 16) + (input[6] << 8)
+ input[7];
this._exchangeLR(4, 0x0f0f0f0f);
this._exchangeLR(16, 0x0000ffff);
this._exchangeRL(2, 0x33333333);
this._exchangeRL(8, 0x00ff00ff);
this._exchangeLR(1, 0x55555555);
};
/**
* Perform one round of the DES algorithm using the given key. A round is
* defined as:
*
* <pre>
* L&amp;rsquo = R
* R&amp;rsquo = L &circ; f(R, k)
* </pre>
*
* where f consists of expanding, XORing with the key and contracting back
* with the SBOXes.
*
* Note that the final round is defined slightly differently as:
*
* <pre>
* L&amp;rsquo = L &circ; f(R, k)
* R&amp;rsquo = R
* </pre>
*
* Therefore in the final round this function produces LHS and RHS the wrong
* way around.
*
* @param k
* the key
*/
State.prototype.round = function(k) {
var r = this.rhs, l = this.lhs;
var f = 0;
for ( var i = 0; i < 8; i++) {
var v = (r ^ k[i]) & State.SBOX_MASK[i];
f += State.SBOX[i][v];
}
this.lhs = r;
this.rhs = l ^ f;
};
/**
* Apply the inverse of the initial permutation.
*
* <pre>
* The inverse is defined to be:
*
* 40 8 48 16 56 24 64 32
* 39 7 47 15 55 23 63 31
* 38 6 46 14 54 22 62 30
* 37 5 45 13 53 21 61 29
* 36 4 44 12 52 20 60 28
* 35 3 43 11 51 19 59 27
* 34 2 42 10 50 18 58 26
* 33 1 41 9 49 17 57 25
* </pre>
*
* @param cipherText
* @param offset
*/
State.prototype.finalPerm = function(cipherText, offset) {
var t = this.lhs;
this.lhs = this.rhs;
this.rhs = t;
this._exchangeLR(1, 0x55555555);
this._exchangeRL(8, 0x00ff00ff);
this._exchangeRL(2, 0x33333333);
this._exchangeLR(16, 0x0000ffff);
this._exchangeLR(4, 0x0f0f0f0f);
cipherText[offset] = (this.lhs >> 24) & 0xff;
cipherText[offset + 1] = (this.lhs >> 16) & 0xff;
cipherText[offset + 2] = (this.lhs >> 8) & 0xff;
cipherText[offset + 3] = (this.lhs) & 0xff;
cipherText[offset + 4] = (this.rhs >> 24) & 0xff;
cipherText[offset + 5] = (this.rhs >> 16) & 0xff;
cipherText[offset + 6] = (this.rhs >> 8) & 0xff;
cipherText[offset + 7] = (this.rhs) & 0xff;
};
/**
* DES cipher
*/
var DES = C.DES = {
_blocksize : 2,
_keyschedule : null,
_state : new State(),
_init : function(k) {
this._keyschedule = new KeySchedule(k);
},
encrypt : function(message, password, options) {
options = options || {};
// Determine mode
var mode = options.mode || new C.mode.OFB;
// Allow mode to override options
if (mode.fixOptions)
mode.fixOptions(options);
var
// Convert to bytes if message is a string
m = (message.constructor == String ? UTF8.stringToBytes(message)
: message),
// Generate random IV
iv = options.iv || util.randomBytes(8),
// Generate key
k = (password.constructor == String ?
// Derive key from passphrase
C.PBKDF2(password, iv, 8, {
asBytes : true
}) :
// else, assume byte array representing cryptographic key
password);
// Create key schedule
this._keyschedule = new KeySchedule(k);
// Encrypt
mode.encrypt(DES, m, iv);
// Return ciphertext
m = options.iv ? m : iv.concat(m);
return (options && options.asBytes) ? m : util.bytesToBase64(m);
},
_encryptblock : function(message, offset) {
this._state.initialPerm(message, offset);
for ( var i = 0; i <= 15; i++) {
this._state.round(this._keyschedule.getKey(i));
}
this._state.finalPerm(message, offset);
},
decrypt : function(ciphertext, password, options) {
options = options || {};
// Determine mode
var mode = options.mode || new C.mode.OFB;
// Allow mode to override options
if (mode.fixOptions)
mode.fixOptions(options);
var
// Convert to bytes if ciphertext is a string
c = (ciphertext.constructor == String ? util
.base64ToBytes(ciphertext) : ciphertext),
// Separate IV and message
iv = options.iv || c.splice(0, 8),
// Generate key
k = (password.constructor == String ?
// Derive key from passphrase
C.PBKDF2(password, iv, 32, {
asBytes : true
}) :
// else, assume byte array representing cryptographic key
password);
// Create key schedule
this._keyschedule = new KeySchedule(k);
mode.decrypt(DES, c, iv);
// Return plaintext
return (options && options.asBytes) ? c : UTF8.bytesToString(c);
},
_decryptblock : function(message, offset) {
this._state.initialPerm(message, offset);
for ( var i = 15; i >= 0; i--) {
this._state.round(this._keyschedule.getKey(i));
}
this._state.finalPerm(message, offset);
}
};
})();

/base/000_base/node_modules/cryptojs/lib/HMAC.js
@@ -0,0 +1,38 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util,
charenc = C.charenc,
UTF8 = charenc.UTF8,
Binary = charenc.Binary;
C.HMAC = function (hasher, message, key, options) {
// Convert to byte arrays
if (message.constructor == String) message = UTF8.stringToBytes(message);
if (key.constructor == String) key = UTF8.stringToBytes(key);
/* else, assume byte arrays already */
// Allow arbitrary length keys
if (key.length > hasher._blocksize * 4)
key = hasher(key, { asBytes: true });
// XOR keys with pad constants
var okey = key.slice(0),
ikey = key.slice(0);
for (var i = 0; i < hasher._blocksize * 4; i++) {
okey[i] ^= 0x5C;
ikey[i] ^= 0x36;
}
var hmacbytes = hasher(okey.concat(hasher(ikey.concat(message), { asBytes: true })), { asBytes: true });
return options && options.asBytes ? hmacbytes :
options && options.asString ? Binary.bytesToString(hmacbytes) :
util.bytesToHex(hmacbytes);
};
})();

/base/000_base/node_modules/cryptojs/lib/MARC4.js
@@ -0,0 +1,117 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util,
charenc = C.charenc,
UTF8 = charenc.UTF8,
Binary = charenc.Binary;
var MARC4 = C.MARC4 = {
/**
* Public API
*/
encrypt: function (message, password) {
var
// Convert to bytes
m = UTF8.stringToBytes(message),
// Generate random IV
iv = util.randomBytes(16),
// Generate key
k = password.constructor == String ?
// Derive key from passphrase
C.PBKDF2(password, iv, 32, { asBytes: true }) :
// else, assume byte array representing cryptographic key
password;
// Encrypt
MARC4._marc4(m, k, 1536);
// Return ciphertext
return util.bytesToBase64(iv.concat(m));
},
decrypt: function (ciphertext, password) {
var
// Convert to bytes
c = util.base64ToBytes(ciphertext),
// Separate IV and message
iv = c.splice(0, 16),
// Generate key
k = password.constructor == String ?
// Derive key from passphrase
C.PBKDF2(password, iv, 32, { asBytes: true }) :
// else, assume byte array representing cryptographic key
password;
// Decrypt
MARC4._marc4(c, k, 1536);
// Return plaintext
return UTF8.bytesToString(c);
},
/**
* Internal methods
*/
// The core
_marc4: function (m, k, drop) {
// State variables
var i, j, s, temp;
// Key setup
for (i = 0, s = []; i < 256; i++) s[i] = i;
for (i = 0, j = 0; i < 256; i++) {
j = (j + s[i] + k[i % k.length]) % 256;
// Swap
temp = s[i];
s[i] = s[j];
s[j] = temp;
}
// Clear counters
i = j = 0;
// Encryption
for (var k = -drop; k < m.length; k++) {
i = (i + 1) % 256;
j = (j + s[i]) % 256;
// Swap
temp = s[i];
s[i] = s[j];
s[j] = temp;
// Stop here if we're still dropping keystream
if (k < 0) continue;
// Encrypt
m[k] ^= s[(s[i] + s[j]) % 256];
}
}
};
})();

/base/000_base/node_modules/cryptojs/lib/MD5.js
@@ -0,0 +1,158 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util,
charenc = C.charenc,
UTF8 = charenc.UTF8,
Binary = charenc.Binary;
// Public API
var MD5 = C.MD5 = function (message, options) {
var digestbytes = util.wordsToBytes(MD5._md5(message));
return options && options.asBytes ? digestbytes :
options && options.asString ? Binary.bytesToString(digestbytes) :
util.bytesToHex(digestbytes);
};
// The core
MD5._md5 = function (message) {
// Convert to byte array
if (message.constructor == String) message = UTF8.stringToBytes(message);
/* else, assume byte array already */
var m = util.bytesToWords(message),
l = message.length * 8,
a = 1732584193,
b = -271733879,
c = -1732584194,
d = 271733878;
// Swap endian
for (var i = 0; i < m.length; i++) {
m[i] = ((m[i] << 8) | (m[i] >>> 24)) & 0x00FF00FF |
((m[i] << 24) | (m[i] >>> 8)) & 0xFF00FF00;
}
// Padding
m[l >>> 5] |= 0x80 << (l % 32);
m[(((l + 64) >>> 9) << 4) + 14] = l;
// Method shortcuts
var FF = MD5._ff,
GG = MD5._gg,
HH = MD5._hh,
II = MD5._ii;
for (var i = 0; i < m.length; i += 16) {
var aa = a,
bb = b,
cc = c,
dd = d;
a = FF(a, b, c, d, m[i+ 0], 7, -680876936);
d = FF(d, a, b, c, m[i+ 1], 12, -389564586);
c = FF(c, d, a, b, m[i+ 2], 17, 606105819);
b = FF(b, c, d, a, m[i+ 3], 22, -1044525330);
a = FF(a, b, c, d, m[i+ 4], 7, -176418897);
d = FF(d, a, b, c, m[i+ 5], 12, 1200080426);
c = FF(c, d, a, b, m[i+ 6], 17, -1473231341);
b = FF(b, c, d, a, m[i+ 7], 22, -45705983);
a = FF(a, b, c, d, m[i+ 8], 7, 1770035416);
d = FF(d, a, b, c, m[i+ 9], 12, -1958414417);
c = FF(c, d, a, b, m[i+10], 17, -42063);
b = FF(b, c, d, a, m[i+11], 22, -1990404162);
a = FF(a, b, c, d, m[i+12], 7, 1804603682);
d = FF(d, a, b, c, m[i+13], 12, -40341101);
c = FF(c, d, a, b, m[i+14], 17, -1502002290);
b = FF(b, c, d, a, m[i+15], 22, 1236535329);
a = GG(a, b, c, d, m[i+ 1], 5, -165796510);
d = GG(d, a, b, c, m[i+ 6], 9, -1069501632);
c = GG(c, d, a, b, m[i+11], 14, 643717713);
b = GG(b, c, d, a, m[i+ 0], 20, -373897302);
a = GG(a, b, c, d, m[i+ 5], 5, -701558691);
d = GG(d, a, b, c, m[i+10], 9, 38016083);
c = GG(c, d, a, b, m[i+15], 14, -660478335);
b = GG(b, c, d, a, m[i+ 4], 20, -405537848);
a = GG(a, b, c, d, m[i+ 9], 5, 568446438);
d = GG(d, a, b, c, m[i+14], 9, -1019803690);
c = GG(c, d, a, b, m[i+ 3], 14, -187363961);
b = GG(b, c, d, a, m[i+ 8], 20, 1163531501);
a = GG(a, b, c, d, m[i+13], 5, -1444681467);
d = GG(d, a, b, c, m[i+ 2], 9, -51403784);
c = GG(c, d, a, b, m[i+ 7], 14, 1735328473);
b = GG(b, c, d, a, m[i+12], 20, -1926607734);
a = HH(a, b, c, d, m[i+ 5], 4, -378558);
d = HH(d, a, b, c, m[i+ 8], 11, -2022574463);
c = HH(c, d, a, b, m[i+11], 16, 1839030562);
b = HH(b, c, d, a, m[i+14], 23, -35309556);
a = HH(a, b, c, d, m[i+ 1], 4, -1530992060);
d = HH(d, a, b, c, m[i+ 4], 11, 1272893353);
c = HH(c, d, a, b, m[i+ 7], 16, -155497632);
b = HH(b, c, d, a, m[i+10], 23, -1094730640);
a = HH(a, b, c, d, m[i+13], 4, 681279174);
d = HH(d, a, b, c, m[i+ 0], 11, -358537222);
c = HH(c, d, a, b, m[i+ 3], 16, -722521979);
b = HH(b, c, d, a, m[i+ 6], 23, 76029189);
a = HH(a, b, c, d, m[i+ 9], 4, -640364487);
d = HH(d, a, b, c, m[i+12], 11, -421815835);
c = HH(c, d, a, b, m[i+15], 16, 530742520);
b = HH(b, c, d, a, m[i+ 2], 23, -995338651);
a = II(a, b, c, d, m[i+ 0], 6, -198630844);
d = II(d, a, b, c, m[i+ 7], 10, 1126891415);
c = II(c, d, a, b, m[i+14], 15, -1416354905);
b = II(b, c, d, a, m[i+ 5], 21, -57434055);
a = II(a, b, c, d, m[i+12], 6, 1700485571);
d = II(d, a, b, c, m[i+ 3], 10, -1894986606);
c = II(c, d, a, b, m[i+10], 15, -1051523);
b = II(b, c, d, a, m[i+ 1], 21, -2054922799);
a = II(a, b, c, d, m[i+ 8], 6, 1873313359);
d = II(d, a, b, c, m[i+15], 10, -30611744);
c = II(c, d, a, b, m[i+ 6], 15, -1560198380);
b = II(b, c, d, a, m[i+13], 21, 1309151649);
a = II(a, b, c, d, m[i+ 4], 6, -145523070);
d = II(d, a, b, c, m[i+11], 10, -1120210379);
c = II(c, d, a, b, m[i+ 2], 15, 718787259);
b = II(b, c, d, a, m[i+ 9], 21, -343485551);
a = (a + aa) >>> 0;
b = (b + bb) >>> 0;
c = (c + cc) >>> 0;
d = (d + dd) >>> 0;
}
return util.endian([a, b, c, d]);
};
// Auxiliary functions
MD5._ff = function (a, b, c, d, x, s, t) {
var n = a + (b & c | ~b & d) + (x >>> 0) + t;
return ((n << s) | (n >>> (32 - s))) + b;
};
MD5._gg = function (a, b, c, d, x, s, t) {
var n = a + (b & d | c & ~d) + (x >>> 0) + t;
return ((n << s) | (n >>> (32 - s))) + b;
};
MD5._hh = function (a, b, c, d, x, s, t) {
var n = a + (b ^ c ^ d) + (x >>> 0) + t;
return ((n << s) | (n >>> (32 - s))) + b;
};
MD5._ii = function (a, b, c, d, x, s, t) {
var n = a + (c ^ (b | ~d)) + (x >>> 0) + t;
return ((n << s) | (n >>> (32 - s))) + b;
};
// Package private blocksize
MD5._blocksize = 16;
MD5._digestsize = 16;
})();

/base/000_base/node_modules/cryptojs/lib/PBKDF2.js
@@ -0,0 +1,49 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util,
charenc = C.charenc,
UTF8 = charenc.UTF8,
Binary = charenc.Binary;
C.PBKDF2 = function (password, salt, keylen, options) {
// Convert to byte arrays
if (password.constructor == String) password = UTF8.stringToBytes(password);
if (salt.constructor == String) salt = UTF8.stringToBytes(salt);
/* else, assume byte arrays already */
// Defaults
var hasher = options && options.hasher || C.SHA1,
iterations = options && options.iterations || 1;
// Pseudo-random function
function PRF(password, salt) {
return C.HMAC(hasher, salt, password, { asBytes: true });
}
// Generate key
var derivedKeyBytes = [],
blockindex = 1;
while (derivedKeyBytes.length < keylen) {
var block = PRF(password, salt.concat(util.wordsToBytes([blockindex])));
for (var u = block, i = 1; i < iterations; i++) {
u = PRF(password, u);
for (var j = 0; j < block.length; j++) block[j] ^= u[j];
}
derivedKeyBytes = derivedKeyBytes.concat(block);
blockindex++;
}
// Truncate excess bytes
derivedKeyBytes.length = keylen;
return options && options.asBytes ? derivedKeyBytes :
options && options.asString ? Binary.bytesToString(derivedKeyBytes) :
util.bytesToHex(derivedKeyBytes);
};
})();

/base/000_base/node_modules/cryptojs/lib/PBKDF2Async.js
@@ -0,0 +1,88 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util,
charenc = C.charenc,
UTF8 = charenc.UTF8,
Binary = charenc.Binary;
if (!C.nextTick) {
// node.js has setTime out but prefer process.nextTick
if (typeof process != 'undefined' && typeof process.nextTick !== 'undefined') {
C.nextTick = process.nextTick;
} else if (typeof setTimeout !== 'undefined') {
C.nextTick = function (callback) {
setTimeout(callback, 0);
};
}
}
C.PBKDF2Async = function (password, salt, keylen, callback, options) {
// Convert to byte arrays
if (password.constructor == String) password = UTF8.stringToBytes(password);
if (salt.constructor == String) salt = UTF8.stringToBytes(salt);
/* else, assume byte arrays already */
// Defaults
var hasher = options && options.hasher || C.SHA1,
iterations = options && options.iterations || 1;
// Progress callback option
var progressChangeHandler = options && options.onProgressChange;
var totalIterations = Math.ceil(keylen / hasher._digestsize) * iterations;
function fireProgressChange(currentIteration) {
if (progressChangeHandler) {
var iterationsSoFar = derivedKeyBytes.length / hasher._digestsize * iterations + currentIteration;
setTimeout(function () {
progressChangeHandler(Math.round(iterationsSoFar / totalIterations * 100));
}, 0);
}
}
// Pseudo-random function
function PRF(password, salt) {
return C.HMAC(hasher, salt, password, { asBytes: true });
}
var nextTick = C.nextTick;
// Generate key
var derivedKeyBytes = [],
blockindex = 1;
var outer, inner;
nextTick(outer = function () {
if (derivedKeyBytes.length < keylen) {
var block = PRF(password, salt.concat(util.wordsToBytes([blockindex])));
fireProgressChange(1);
var u = block, i = 1;
nextTick(inner = function () {
if (i < iterations) {
u = PRF(password, u);
for (var j = 0; j < block.length; j++) block[j] ^= u[j];
i++;
fireProgressChange(i);
nextTick(inner);
} else {
derivedKeyBytes = derivedKeyBytes.concat(block);
blockindex++;
nextTick(outer);
}
});
} else {
// Truncate excess bytes
derivedKeyBytes.length = keylen;
callback(
options && options.asBytes ? derivedKeyBytes :
options && options.asString ? Binary.bytesToString(derivedKeyBytes) :
util.bytesToHex(derivedKeyBytes));
}
});
};
})();

/base/000_base/node_modules/cryptojs/lib/Rabbit.js
@@ -0,0 +1,221 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util,
charenc = C.charenc,
UTF8 = charenc.UTF8,
Binary = charenc.Binary;
// Inner state
var x = [],
c = [],
b;
var Rabbit = C.Rabbit = {
/**
* Public API
*/
encrypt: function (message, password) {
var
// Convert to bytes
m = UTF8.stringToBytes(message),
// Generate random IV
iv = util.randomBytes(8),
// Generate key
k = password.constructor == String ?
// Derive key from passphrase
C.PBKDF2(password, iv, 32, { asBytes: true }) :
// else, assume byte array representing cryptographic key
password;
// Encrypt
Rabbit._rabbit(m, k, util.bytesToWords(iv));
// Return ciphertext
return util.bytesToBase64(iv.concat(m));
},
decrypt: function (ciphertext, password) {
var
// Convert to bytes
c = util.base64ToBytes(ciphertext),
// Separate IV and message
iv = c.splice(0, 8),
// Generate key
k = password.constructor == String ?
// Derive key from passphrase
C.PBKDF2(password, iv, 32, { asBytes: true }) :
// else, assume byte array representing cryptographic key
password;
// Decrypt
Rabbit._rabbit(c, k, util.bytesToWords(iv));
// Return plaintext
return UTF8.bytesToString(c);
},
/**
* Internal methods
*/
// Encryption/decryption scheme
_rabbit: function (m, k, iv) {
Rabbit._keysetup(k);
if (iv) Rabbit._ivsetup(iv);
for (var s = [], i = 0; i < m.length; i++) {
if (i % 16 == 0) {
// Iterate the system
Rabbit._nextstate();
// Generate 16 bytes of pseudo-random data
s[0] = x[0] ^ (x[5] >>> 16) ^ (x[3] << 16);
s[1] = x[2] ^ (x[7] >>> 16) ^ (x[5] << 16);
s[2] = x[4] ^ (x[1] >>> 16) ^ (x[7] << 16);
s[3] = x[6] ^ (x[3] >>> 16) ^ (x[1] << 16);
// Swap endian
for (var j = 0; j < 4; j++) {
s[j] = ((s[j] << 8) | (s[j] >>> 24)) & 0x00FF00FF |
((s[j] << 24) | (s[j] >>> 8)) & 0xFF00FF00;
}
// Convert words to bytes
for (var b = 120; b >= 0; b -= 8)
s[b / 8] = (s[b >>> 5] >>> (24 - b % 32)) & 0xFF;
}
m[i] ^= s[i % 16];
}
},
// Key setup scheme
_keysetup: function (k) {
// Generate initial state values
x[0] = k[0];
x[2] = k[1];
x[4] = k[2];
x[6] = k[3];
x[1] = (k[3] << 16) | (k[2] >>> 16);
x[3] = (k[0] << 16) | (k[3] >>> 16);
x[5] = (k[1] << 16) | (k[0] >>> 16);
x[7] = (k[2] << 16) | (k[1] >>> 16);
// Generate initial counter values
c[0] = util.rotl(k[2], 16);
c[2] = util.rotl(k[3], 16);
c[4] = util.rotl(k[0], 16);
c[6] = util.rotl(k[1], 16);
c[1] = (k[0] & 0xFFFF0000) | (k[1] & 0xFFFF);
c[3] = (k[1] & 0xFFFF0000) | (k[2] & 0xFFFF);
c[5] = (k[2] & 0xFFFF0000) | (k[3] & 0xFFFF);
c[7] = (k[3] & 0xFFFF0000) | (k[0] & 0xFFFF);
// Clear carry bit
b = 0;
// Iterate the system four times
for (var i = 0; i < 4; i++) Rabbit._nextstate();
// Modify the counters
for (var i = 0; i < 8; i++) c[i] ^= x[(i + 4) & 7];
},
// IV setup scheme
_ivsetup: function (iv) {
// Generate four subvectors
var i0 = util.endian(iv[0]),
i2 = util.endian(iv[1]),
i1 = (i0 >>> 16) | (i2 & 0xFFFF0000),
i3 = (i2 << 16) | (i0 & 0x0000FFFF);
// Modify counter values
c[0] ^= i0;
c[1] ^= i1;
c[2] ^= i2;
c[3] ^= i3;
c[4] ^= i0;
c[5] ^= i1;
c[6] ^= i2;
c[7] ^= i3;
// Iterate the system four times
for (var i = 0; i < 4; i++) Rabbit._nextstate();
},
// Next-state function
_nextstate: function () {
// Save old counter values
for (var c_old = [], i = 0; i < 8; i++) c_old[i] = c[i];
// Calculate new counter values
c[0] = (c[0] + 0x4D34D34D + b) >>> 0;
c[1] = (c[1] + 0xD34D34D3 + ((c[0] >>> 0) < (c_old[0] >>> 0) ? 1 : 0)) >>> 0;
c[2] = (c[2] + 0x34D34D34 + ((c[1] >>> 0) < (c_old[1] >>> 0) ? 1 : 0)) >>> 0;
c[3] = (c[3] + 0x4D34D34D + ((c[2] >>> 0) < (c_old[2] >>> 0) ? 1 : 0)) >>> 0;
c[4] = (c[4] + 0xD34D34D3 + ((c[3] >>> 0) < (c_old[3] >>> 0) ? 1 : 0)) >>> 0;
c[5] = (c[5] + 0x34D34D34 + ((c[4] >>> 0) < (c_old[4] >>> 0) ? 1 : 0)) >>> 0;
c[6] = (c[6] + 0x4D34D34D + ((c[5] >>> 0) < (c_old[5] >>> 0) ? 1 : 0)) >>> 0;
c[7] = (c[7] + 0xD34D34D3 + ((c[6] >>> 0) < (c_old[6] >>> 0) ? 1 : 0)) >>> 0;
b = (c[7] >>> 0) < (c_old[7] >>> 0) ? 1 : 0;
// Calculate the g-values
for (var g = [], i = 0; i < 8; i++) {
var gx = (x[i] + c[i]) >>> 0;
// Construct high and low argument for squaring
var ga = gx & 0xFFFF,
gb = gx >>> 16;
// Calculate high and low result of squaring
var gh = ((((ga * ga) >>> 17) + ga * gb) >>> 15) + gb * gb,
gl = (((gx & 0xFFFF0000) * gx) >>> 0) + (((gx & 0x0000FFFF) * gx) >>> 0) >>> 0;
// High XOR low
g[i] = gh ^ gl;
}
// Calculate new state values
x[0] = g[0] + ((g[7] << 16) | (g[7] >>> 16)) + ((g[6] << 16) | (g[6] >>> 16));
x[1] = g[1] + ((g[0] << 8) | (g[0] >>> 24)) + g[7];
x[2] = g[2] + ((g[1] << 16) | (g[1] >>> 16)) + ((g[0] << 16) | (g[0] >>> 16));
x[3] = g[3] + ((g[2] << 8) | (g[2] >>> 24)) + g[1];
x[4] = g[4] + ((g[3] << 16) | (g[3] >>> 16)) + ((g[2] << 16) | (g[2] >>> 16));
x[5] = g[5] + ((g[4] << 8) | (g[4] >>> 24)) + g[3];
x[6] = g[6] + ((g[5] << 16) | (g[5] >>> 16)) + ((g[4] << 16) | (g[4] >>> 16));
x[7] = g[7] + ((g[6] << 8) | (g[6] >>> 24)) + g[5];
}
};
})();

/base/000_base/node_modules/cryptojs/lib/SHA1.js
@@ -0,0 +1,86 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util,
charenc = C.charenc,
UTF8 = charenc.UTF8,
Binary = charenc.Binary;
// Public API
var SHA1 = C.SHA1 = function (message, options) {
var digestbytes = util.wordsToBytes(SHA1._sha1(message));
return options && options.asBytes ? digestbytes :
options && options.asString ? Binary.bytesToString(digestbytes) :
util.bytesToHex(digestbytes);
};
// The core
SHA1._sha1 = function (message) {
// Convert to byte array
if (message.constructor == String) message = UTF8.stringToBytes(message);
/* else, assume byte array already */
var m = util.bytesToWords(message),
l = message.length * 8,
w = [],
H0 = 1732584193,
H1 = -271733879,
H2 = -1732584194,
H3 = 271733878,
H4 = -1009589776;
// Padding
m[l >> 5] |= 0x80 << (24 - l % 32);
m[((l + 64 >>> 9) << 4) + 15] = l;
for (var i = 0; i < m.length; i += 16) {
var a = H0,
b = H1,
c = H2,
d = H3,
e = H4;
for (var j = 0; j < 80; j++) {
if (j < 16) w[j] = m[i + j];
else {
var n = w[j-3] ^ w[j-8] ^ w[j-14] ^ w[j-16];
w[j] = (n << 1) | (n >>> 31);
}
var t = ((H0 << 5) | (H0 >>> 27)) + H4 + (w[j] >>> 0) + (
j < 20 ? (H1 & H2 | ~H1 & H3) + 1518500249 :
j < 40 ? (H1 ^ H2 ^ H3) + 1859775393 :
j < 60 ? (H1 & H2 | H1 & H3 | H2 & H3) - 1894007588 :
(H1 ^ H2 ^ H3) - 899497514);
H4 = H3;
H3 = H2;
H2 = (H1 << 30) | (H1 >>> 2);
H1 = H0;
H0 = t;
}
H0 += a;
H1 += b;
H2 += c;
H3 += d;
H4 += e;
}
return [H0, H1, H2, H3, H4];
};
// Package private blocksize
SHA1._blocksize = 16;
SHA1._digestsize = 20;
})();

/base/000_base/node_modules/cryptojs/lib/SHA256.js
@@ -0,0 +1,130 @@
(function(){
var C = (typeof window === 'undefined') ? require('./Crypto').Crypto : window.Crypto;
// Shortcuts
var util = C.util,
charenc = C.charenc,
UTF8 = charenc.UTF8,
Binary = charenc.Binary;
// Constants
var K = [ 0x428A2F98, 0x71374491, 0xB5C0FBCF, 0xE9B5DBA5,
0x3956C25B, 0x59F111F1, 0x923F82A4, 0xAB1C5ED5,
0xD807AA98, 0x12835B01, 0x243185BE, 0x550C7DC3,
0x72BE5D74, 0x80DEB1FE, 0x9BDC06A7, 0xC19BF174,
0xE49B69C1, 0xEFBE4786, 0x0FC19DC6, 0x240CA1CC,
0x2DE92C6F, 0x4A7484AA, 0x5CB0A9DC, 0x76F988DA,
0x983E5152, 0xA831C66D, 0xB00327C8, 0xBF597FC7,
0xC6E00BF3, 0xD5A79147, 0x06CA6351, 0x14292967,
0x27B70A85, 0x2E1B2138, 0x4D2C6DFC, 0x53380D13,
0x650A7354, 0x766A0ABB, 0x81C2C92E, 0x92722C85,
0xA2BFE8A1, 0xA81A664B, 0xC24B8B70, 0xC76C51A3,
0xD192E819, 0xD6990624, 0xF40E3585, 0x106AA070,
0x19A4C116, 0x1E376C08, 0x2748774C, 0x34B0BCB5,
0x391C0CB3, 0x4ED8AA4A, 0x5B9CCA4F, 0x682E6FF3,
0x748F82EE, 0x78A5636F, 0x84C87814, 0x8CC70208,
0x90BEFFFA, 0xA4506CEB, 0xBEF9A3F7, 0xC67178F2 ];
// Public API
var SHA256 = C.SHA256 = function (message, options) {
var digestbytes = util.wordsToBytes(SHA256._sha256(message));
return options && options.asBytes ? digestbytes :
options && options.asString ? Binary.bytesToString(digestbytes) :
util.bytesToHex(digestbytes);
};
// The core
SHA256._sha256 = function (message) {
// Convert to byte array
if (message.constructor == String) message = UTF8.stringToBytes(message);
/* else, assume byte array already */
var m = util.bytesToWords(message),
l = message.length * 8,
H = [ 0x6A09E667, 0xBB67AE85, 0x3C6EF372, 0xA54FF53A,
0x510E527F, 0x9B05688C, 0x1F83D9AB, 0x5BE0CD19 ],
w = [],
a, b, c, d, e, f, g, h, i, j,
t1, t2;
// Padding
m[l >> 5] |= 0x80 << (24 - l % 32);
m[((l + 64 >> 9) << 4) + 15] = l;
for (var i = 0; i < m.length; i += 16) {
a = H[0];
b = H[1];
c = H[2];
d = H[3];
e = H[4];
f = H[5];
g = H[6];
h = H[7];
for (var j = 0; j < 64; j++) {
if (j < 16) w[j] = m[j + i];
else {
var gamma0x = w[j - 15],
gamma1x = w[j - 2],
gamma0 = ((gamma0x << 25) | (gamma0x >>> 7)) ^
((gamma0x << 14) | (gamma0x >>> 18)) ^
(gamma0x >>> 3),
gamma1 = ((gamma1x << 15) | (gamma1x >>> 17)) ^
((gamma1x << 13) | (gamma1x >>> 19)) ^
(gamma1x >>> 10);
w[j] = gamma0 + (w[j - 7] >>> 0) +
gamma1 + (w[j - 16] >>> 0);
}
var ch = e & f ^ ~e & g,
maj = a & b ^ a & c ^ b & c,
sigma0 = ((a << 30) | (a >>> 2)) ^
((a << 19) | (a >>> 13)) ^
((a << 10) | (a >>> 22)),
sigma1 = ((e << 26) | (e >>> 6)) ^
((e << 21) | (e >>> 11)) ^
((e << 7) | (e >>> 25));
t1 = (h >>> 0) + sigma1 + ch + (K[j]) + (w[j] >>> 0);
t2 = sigma0 + maj;
h = g;
g = f;
f = e;
e = (d + t1) >>> 0;
d = c;
c = b;
b = a;
a = (t1 + t2) >>> 0;
}
H[0] += a;
H[1] += b;
H[2] += c;
H[3] += d;
H[4] += e;
H[5] += f;
H[6] += g;
H[7] += h;
}
return H;
};
// Package private blocksize
SHA256._blocksize = 16;
SHA256._digestsize = 32;
})();

/base/000_base/node_modules/cryptojs/package.json
@@ -0,0 +1,100 @@
{
"_args": [
[
{
"raw": "cryptojs",
"scope": null,
"escapedName": "cryptojs",
"name": "cryptojs",
"rawSpec": "",
"spec": "latest",
"type": "tag"
},
"/Users/evacomaroski/Documents/Development/corrade-nucleus-nucleons/base/000_base"
]
],
"_defaultsLoaded": true,
"_engineSupported": true,
"_from": "cryptojs@latest",
"_id": "cryptojs@2.5.3",
"_inCache": true,
"_location": "/cryptojs",
"_nodeVersion": "v0.6.7",
"_npmUser": {
"name": "gwjjeff",
"email": "gwjjeff@gmail.com"
},
"_npmVersion": "1.1.0-beta-10",
"_phantomChildren": {},
"_requested": {
"raw": "cryptojs",
"scope": null,
"escapedName": "cryptojs",
"name": "cryptojs",
"rawSpec": "",
"spec": "latest",
"type": "tag"
},
"_requiredBy": [
"#USER",
"/"
],
"_resolved": "https://registry.npmjs.org/cryptojs/-/cryptojs-2.5.3.tgz",
"_shasum": "909547ecf15bac456e275459b39f2ef45d7fcbb9",
"_shrinkwrap": null,
"_spec": "cryptojs",
"_where": "/Users/evacomaroski/Documents/Development/corrade-nucleus-nucleons/base/000_base",
"author": {
"name": "Jeff Guo",
"email": "gwjjeff@gmail.com"
},
"bugs": {
"url": "https://github.com/gwjjeff/cryptojs/issues"
},
"dependencies": {},
"description": "Following googlecode project crypto-js, provide standard and secure cryptographic algorithms for NodeJS. Support MD5, SHA-1, SHA-256, RC4, Rabbit, AES, DES, PBKDF2, HMAC, OFB, CFB, CTR, CBC, Base64",
"devDependencies": {},
"directories": {},
"dist": {
"shasum": "909547ecf15bac456e275459b39f2ef45d7fcbb9",
"tarball": "https://registry.npmjs.org/cryptojs/-/cryptojs-2.5.3.tgz"
},
"engines": {
"node": "*"
},
"homepage": "https://github.com/gwjjeff/cryptojs",
"main": "cryptojs.js",
"maintainers": [
{
"name": "gwjjeff",
"email": "gwjjeff@gmail.com"
}
],
"name": "cryptojs",
"optionalDependencies": {},
"readme": "ERROR: No README data found!",
"repository": {
"type": "git",
"url": "git://github.com/gwjjeff/cryptojs.git"
},
"tags": [
"Hash",
"MD5",
"SHA1",
"SHA-1",
"SHA256",
"SHA-256",
"RC4",
"Rabbit",
"AES",
"DES",
"PBKDF2",
"HMAC",
"OFB",
"CFB",
"CTR",
"CBC",
"Base64"
],
"version": "2.5.3"
}

/base/000_base/node_modules/cryptojs/test/test.coffee
@@ -0,0 +1,13 @@
Crypto = (require '../cryptojs').Crypto
key = '12345678'
us = 'Hello, 世界!'
mode = new Crypto.mode.ECB Crypto.pad.pkcs7
console.log "ub = #{ub = Crypto.charenc.UTF8.stringToBytes us}"
console.log "eb = #{eb = Crypto.DES.encrypt ub, key, {asBytes: true, mode: mode}}"
console.log "ehs= #{ehs= Crypto.util.bytesToHex eb}"
console.log "eb2= #{eb2= Crypto.util.hexToBytes ehs}"
console.log "ub2= #{ub2= Crypto.DES.decrypt eb2, key, {asBytes: true, mode: mode}}"
console.log "us2= #{us2= Crypto.charenc.UTF8.bytesToString ub2}"

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