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Forge ChangeLog
===============
## 0.7.4 - 2018-03-07
### Fixed
- Potential regex denial of service in form.js.
### Added
- Support for ED25519.
- Support for baseN/base58.
## 0.7.3 - 2018-03-05
- Re-publish with npm 5.6.0 due to file timestamp issues.
## 0.7.2 - 2018-02-27
### Added
- Support verification of SHA-384 certificates.
- `1.2.840.10040.4.3'`/`dsa-with-sha1` OID.
### Fixed
- Support importing PKCS#7 data with no certificates. RFC 2315 sec 9.1 states
certificates are optional.
- `asn1.equals` loop bug.
- Fortuna implementation bugs.
## 0.7.1 - 2017-03-27
### Fixed
- Fix digestLength for hashes based on SHA-512.
## 0.7.0 - 2017-02-07
### Fixed
- Fix test looping bugs so all tests are run.
- Improved ASN.1 parsing. Many failure cases eliminated. More sanity checks.
Better behavior in default mode of parsing BIT STRINGs. Better handling of
parsed BIT STRINGs in `toDer()`. More tests.
- Improve X.509 BIT STRING handling by using new capture modes.
### Changed
- Major refactor to use CommonJS plus a browser build system.
- Updated tests, examples, docs.
- Updated dependencies.
- Updated flash build system.
- Improve OID mapping code.
- Change test servers from Python to JavaScript.
- Improve PhantomJS support.
- Move Bower/bundle support to
[forge-dist](https://github.com/digitalbazaar/forge-dist).
- **BREAKING**: Require minimal digest algorithm dependencies from individual
modules.
- Enforce currently supported bit param values for byte buffer access. May be
**BREAKING** for code that depended on unspecified and/or incorrect behavior.
- Improve `asn1.prettyPrint()` BIT STRING display.
### Added
- webpack bundler support via `npm run build`:
- Builds `.js`, `.min.js`, and basic sourcemaps.
- Basic build: `forge.js`.
- Build with extra utils and networking support: `forge.all.js`.
- Build WebWorker support: `prime.worker.js`.
- Browserify support in package.json.
- Karma browser testing.
- `forge.options` field.
- `forge.options.usePureJavaScript` flag.
- `forge.util.isNodejs` flag (used to select "native" APIs).
- Run PhantomJS tests in Travis-CI.
- Add "Donations" section to README.
- Add IRC to "Contact" section of README.
- Add "Security Considerations" section to README.
- Add pbkdf2 usePureJavaScript test.
- Add rsa.generateKeyPair async and usePureJavaScript tests.
- Add .editorconfig support.
- Add `md.all.js` which includes all digest algorithms.
- Add asn1 `equals()` and `copy()`.
- Add asn1 `validate()` capture options for BIT STRING contents and value.
### Removed
- **BREAKING**: Can no longer call `forge({...})` to create new instances.
- Remove a large amount of old cruft.
### Migration from 0.6.x to 0.7.x
- (all) If you used the feature to create a new forge instance with new
configuration options you will need to rework your code. That ability has
been removed due to implementation complexity. The main rare use was to set
the option to use pure JavaScript. That is now available as a library global
flag `forge.options.usePureJavaScript`.
- (npm,bower) If you used the default main file there is little to nothing to
change.
- (npm) If you accessed a sub-resource like `forge/js/pki` you should either
switch to just using the main `forge` and access `forge.pki` or update to
`forge/lib/pki`.
- (bower) If you used a sub-resource like `forge/js/pki` you should switch to
just using `forge` and access `forge.pki`. The bower release bundles
everything in one minified file.
- (bower) A configured workerScript like
`/bower_components/forge/js/prime.worker.js` will need to change to
`/bower_components/forge/dist/prime.worker.min.js`.
- (all) If you used the networking support or flash socket support, you will
need to use a custom build and/or adjust where files are loaded from. This
functionality is not included in the bower distribution by default and is
also now in a different directory.
- (all) The library should now directly support building custom bundles with
webpack, browserify, or similar.
- (all) If building a custom bundle ensure the correct dependencies are
included. In particular, note there is now a `md.all.js` file to include all
digest algorithms. Individual files limit what they include by default to
allow smaller custom builds. For instance, `pbdkf2.js` has a `sha1` default
but does not include any algorithm files by default. This allows the
possibility to include only `sha256` without the overhead of `sha1` and
`sha512`.
### Notes
- This major update requires updating the version to 0.7.x. The existing
work-in-progress "0.7.x" branch will be painfully rebased on top of this new
0.7.x and moved forward to 0.8.x or later as needed.
- 0.7.x is a start of simplifying forge based on common issues and what has
appeared to be the most common usage. Please file issues with feedback if the
changes are problematic for your use cases.
## 0.6.x - 2016 and earlier
- See Git commit log or https://github.com/digitalbazaar/forge.

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You may use the Forge project under the terms of either the BSD License or the
GNU General Public License (GPL) Version 2.
The BSD License is recommended for most projects. It is simple and easy to
understand and it places almost no restrictions on what you can do with the
Forge project.
If the GPL suits your project better you are also free to use Forge under
that license.
You don't have to do anything special to choose one license or the other and
you don't have to notify anyone which license you are using. You are free to
use this project in commercial projects as long as the copyright header is
left intact.
If you are a commercial entity and use this set of libraries in your
commercial software then reasonable payment to Digital Bazaar, if you can
afford it, is not required but is expected and would be appreciated. If this
library saves you time, then it's saving you money. The cost of developing
the Forge software was on the order of several hundred hours and tens of
thousands of dollars. We are attempting to strike a balance between helping
the development community while not being taken advantage of by lucrative
commercial entities for our efforts.
-------------------------------------------------------------------------------
New BSD License (3-clause)
Copyright (c) 2010, Digital Bazaar, Inc.
All rights reserved.
Redistribution and use in source and binary forms, with or without
modification, are permitted provided that the following conditions are met:
* Redistributions of source code must retain the above copyright
notice, this list of conditions and the following disclaimer.
* Redistributions in binary form must reproduce the above copyright
notice, this list of conditions and the following disclaimer in the
documentation and/or other materials provided with the distribution.
* Neither the name of Digital Bazaar, Inc. nor the
names of its contributors may be used to endorse or promote products
derived from this software without specific prior written permission.
THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND
ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
DISCLAIMED. IN NO EVENT SHALL DIGITAL BAZAAR BE LIABLE FOR ANY
DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
(INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
-------------------------------------------------------------------------------
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Forge Flash Support
===================
SocketPool.swf
--------------
Some special networking features can optionally use a Flash component.
Building the output SWF file requires the [Flex SDK][]. A pre-built component
is included: `swf/SocketPool.swf`.
Building the output SWF requires the `mxmlc` tool from the [Flex SDK][]. If
that tools is already installed then look in the `package.json` file for the
commands to rebuild it. If you need the SDK installed, there is a npm module that installs it:
npm install
To build a regular component:
npm run build
Additional debug support can be built in with the following:
npm run build-debug
Policy Server
-------------
Flash support requires the use of a Policy Server.
### Apache Flash Socket Policy Module
[mod_fsp](./mod_fsp) provides an [Apache][] module that can serve up a Flash
Socket Policy. See `mod_fsp/README` for more details. This module makes it easy
to modify an [Apache][] server to allow cross domain requests to be made to it.
### Simple Python Policy Server
`policyserver.py` provides a very simple test policy server.
### Simple Node.js Policy Server
`policyserver.js` provides a very simple test policy server. If a server is
needed for production environments, please use another option such as perhaps
[nodejs_socket_policy_server][].
[Apache]: http://httpd.apache.org/
[Flex SDK]: https://flex.apache.org/
[nodejs_socket_policy_server]: https://github.com/bichinger/nodejs_socket_policy_server

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/**
* A Javascript implementation of AES Cipher Suites for TLS.
*
* @author Dave Longley
*
* Copyright (c) 2009-2015 Digital Bazaar, Inc.
*
*/
var forge = require('./forge');
require('./aes');
require('./tls');
var tls = module.exports = forge.tls;
/**
* Supported cipher suites.
*/
tls.CipherSuites['TLS_RSA_WITH_AES_128_CBC_SHA'] = {
id: [0x00,0x2f],
name: 'TLS_RSA_WITH_AES_128_CBC_SHA',
initSecurityParameters: function(sp) {
sp.bulk_cipher_algorithm = tls.BulkCipherAlgorithm.aes;
sp.cipher_type = tls.CipherType.block;
sp.enc_key_length = 16;
sp.block_length = 16;
sp.fixed_iv_length = 16;
sp.record_iv_length = 16;
sp.mac_algorithm = tls.MACAlgorithm.hmac_sha1;
sp.mac_length = 20;
sp.mac_key_length = 20;
},
initConnectionState: initConnectionState
};
tls.CipherSuites['TLS_RSA_WITH_AES_256_CBC_SHA'] = {
id: [0x00,0x35],
name: 'TLS_RSA_WITH_AES_256_CBC_SHA',
initSecurityParameters: function(sp) {
sp.bulk_cipher_algorithm = tls.BulkCipherAlgorithm.aes;
sp.cipher_type = tls.CipherType.block;
sp.enc_key_length = 32;
sp.block_length = 16;
sp.fixed_iv_length = 16;
sp.record_iv_length = 16;
sp.mac_algorithm = tls.MACAlgorithm.hmac_sha1;
sp.mac_length = 20;
sp.mac_key_length = 20;
},
initConnectionState: initConnectionState
};
function initConnectionState(state, c, sp) {
var client = (c.entity === forge.tls.ConnectionEnd.client);
// cipher setup
state.read.cipherState = {
init: false,
cipher: forge.cipher.createDecipher('AES-CBC', client ?
sp.keys.server_write_key : sp.keys.client_write_key),
iv: client ? sp.keys.server_write_IV : sp.keys.client_write_IV
};
state.write.cipherState = {
init: false,
cipher: forge.cipher.createCipher('AES-CBC', client ?
sp.keys.client_write_key : sp.keys.server_write_key),
iv: client ? sp.keys.client_write_IV : sp.keys.server_write_IV
};
state.read.cipherFunction = decrypt_aes_cbc_sha1;
state.write.cipherFunction = encrypt_aes_cbc_sha1;
// MAC setup
state.read.macLength = state.write.macLength = sp.mac_length;
state.read.macFunction = state.write.macFunction = tls.hmac_sha1;
}
/**
* Encrypts the TLSCompressed record into a TLSCipherText record using AES
* in CBC mode.
*
* @param record the TLSCompressed record to encrypt.
* @param s the ConnectionState to use.
*
* @return true on success, false on failure.
*/
function encrypt_aes_cbc_sha1(record, s) {
var rval = false;
// append MAC to fragment, update sequence number
var mac = s.macFunction(s.macKey, s.sequenceNumber, record);
record.fragment.putBytes(mac);
s.updateSequenceNumber();
// TLS 1.1+ use an explicit IV every time to protect against CBC attacks
var iv;
if(record.version.minor === tls.Versions.TLS_1_0.minor) {
// use the pre-generated IV when initializing for TLS 1.0, otherwise use
// the residue from the previous encryption
iv = s.cipherState.init ? null : s.cipherState.iv;
} else {
iv = forge.random.getBytesSync(16);
}
s.cipherState.init = true;
// start cipher
var cipher = s.cipherState.cipher;
cipher.start({iv: iv});
// TLS 1.1+ write IV into output
if(record.version.minor >= tls.Versions.TLS_1_1.minor) {
cipher.output.putBytes(iv);
}
// do encryption (default padding is appropriate)
cipher.update(record.fragment);
if(cipher.finish(encrypt_aes_cbc_sha1_padding)) {
// set record fragment to encrypted output
record.fragment = cipher.output;
record.length = record.fragment.length();
rval = true;
}
return rval;
}
/**
* Handles padding for aes_cbc_sha1 in encrypt mode.
*
* @param blockSize the block size.
* @param input the input buffer.
* @param decrypt true in decrypt mode, false in encrypt mode.
*
* @return true on success, false on failure.
*/
function encrypt_aes_cbc_sha1_padding(blockSize, input, decrypt) {
/* The encrypted data length (TLSCiphertext.length) is one more than the sum
of SecurityParameters.block_length, TLSCompressed.length,
SecurityParameters.mac_length, and padding_length.
The padding may be any length up to 255 bytes long, as long as it results in
the TLSCiphertext.length being an integral multiple of the block length.
Lengths longer than necessary might be desirable to frustrate attacks on a
protocol based on analysis of the lengths of exchanged messages. Each uint8
in the padding data vector must be filled with the padding length value.
The padding length should be such that the total size of the
GenericBlockCipher structure is a multiple of the cipher's block length.
Legal values range from zero to 255, inclusive. This length specifies the
length of the padding field exclusive of the padding_length field itself.
This is slightly different from PKCS#7 because the padding value is 1
less than the actual number of padding bytes if you include the
padding_length uint8 itself as a padding byte. */
if(!decrypt) {
// get the number of padding bytes required to reach the blockSize and
// subtract 1 for the padding value (to make room for the padding_length
// uint8)
var padding = blockSize - (input.length() % blockSize);
input.fillWithByte(padding - 1, padding);
}
return true;
}
/**
* Handles padding for aes_cbc_sha1 in decrypt mode.
*
* @param blockSize the block size.
* @param output the output buffer.
* @param decrypt true in decrypt mode, false in encrypt mode.
*
* @return true on success, false on failure.
*/
function decrypt_aes_cbc_sha1_padding(blockSize, output, decrypt) {
var rval = true;
if(decrypt) {
/* The last byte in the output specifies the number of padding bytes not
including itself. Each of the padding bytes has the same value as that
last byte (known as the padding_length). Here we check all padding
bytes to ensure they have the value of padding_length even if one of
them is bad in order to ward-off timing attacks. */
var len = output.length();
var paddingLength = output.last();
for(var i = len - 1 - paddingLength; i < len - 1; ++i) {
rval = rval && (output.at(i) == paddingLength);
}
if(rval) {
// trim off padding bytes and last padding length byte
output.truncate(paddingLength + 1);
}
}
return rval;
}
/**
* Decrypts a TLSCipherText record into a TLSCompressed record using
* AES in CBC mode.
*
* @param record the TLSCipherText record to decrypt.
* @param s the ConnectionState to use.
*
* @return true on success, false on failure.
*/
var count = 0;
function decrypt_aes_cbc_sha1(record, s) {
var rval = false;
++count;
var iv;
if(record.version.minor === tls.Versions.TLS_1_0.minor) {
// use pre-generated IV when initializing for TLS 1.0, otherwise use the
// residue from the previous decryption
iv = s.cipherState.init ? null : s.cipherState.iv;
} else {
// TLS 1.1+ use an explicit IV every time to protect against CBC attacks
// that is appended to the record fragment
iv = record.fragment.getBytes(16);
}
s.cipherState.init = true;
// start cipher
var cipher = s.cipherState.cipher;
cipher.start({iv: iv});
// do decryption
cipher.update(record.fragment);
rval = cipher.finish(decrypt_aes_cbc_sha1_padding);
// even if decryption fails, keep going to minimize timing attacks
// decrypted data:
// first (len - 20) bytes = application data
// last 20 bytes = MAC
var macLen = s.macLength;
// create a random MAC to check against should the mac length check fail
// Note: do this regardless of the failure to keep timing consistent
var mac = forge.random.getBytesSync(macLen);
// get fragment and mac
var len = cipher.output.length();
if(len >= macLen) {
record.fragment = cipher.output.getBytes(len - macLen);
mac = cipher.output.getBytes(macLen);
} else {
// bad data, but get bytes anyway to try to keep timing consistent
record.fragment = cipher.output.getBytes();
}
record.fragment = forge.util.createBuffer(record.fragment);
record.length = record.fragment.length();
// see if data integrity checks out, update sequence number
var mac2 = s.macFunction(s.macKey, s.sequenceNumber, record);
s.updateSequenceNumber();
rval = compareMacs(s.macKey, mac, mac2) && rval;
return rval;
}
/**
* Safely compare two MACs. This function will compare two MACs in a way
* that protects against timing attacks.
*
* TODO: Expose elsewhere as a utility API.
*
* See: https://www.nccgroup.trust/us/about-us/newsroom-and-events/blog/2011/february/double-hmac-verification/
*
* @param key the MAC key to use.
* @param mac1 as a binary-encoded string of bytes.
* @param mac2 as a binary-encoded string of bytes.
*
* @return true if the MACs are the same, false if not.
*/
function compareMacs(key, mac1, mac2) {
var hmac = forge.hmac.create();
hmac.start('SHA1', key);
hmac.update(mac1);
mac1 = hmac.digest().getBytes();
hmac.start(null, null);
hmac.update(mac2);
mac2 = hmac.digest().getBytes();
return mac1 === mac2;
}

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node_modules/node-forge/lib/asn1.js generated vendored Normal file

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node_modules/node-forge/lib/baseN.js generated vendored Normal file
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/**
* Base-N/Base-X encoding/decoding functions.
*
* Original implementation from base-x:
* https://github.com/cryptocoinjs/base-x
*
* Which is MIT licensed:
*
* The MIT License (MIT)
*
* Copyright base-x contributors (c) 2016
*
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
* copies of the Software, and to permit persons to whom the Software is
* furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING
* FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER
* DEALINGS IN THE SOFTWARE.
*/
var api = {};
module.exports = api;
// baseN alphabet indexes
var _reverseAlphabets = {};
/**
* BaseN-encodes a Uint8Array using the given alphabet.
*
* @param input the Uint8Array to encode.
* @param maxline the maximum number of encoded characters per line to use,
* defaults to none.
*
* @return the baseN-encoded output string.
*/
api.encode = function(input, alphabet, maxline) {
if(typeof alphabet !== 'string') {
throw new TypeError('"alphabet" must be a string.');
}
if(maxline !== undefined && typeof maxline !== 'number') {
throw new TypeError('"maxline" must be a number.');
}
var output = '';
if(!(input instanceof Uint8Array)) {
// assume forge byte buffer
output = _encodeWithByteBuffer(input, alphabet);
} else {
var i = 0;
var base = alphabet.length;
var first = alphabet.charAt(0);
var digits = [0];
for(i = 0; i < input.length; ++i) {
for(var j = 0, carry = input[i]; j < digits.length; ++j) {
carry += digits[j] << 8;
digits[j] = carry % base;
carry = (carry / base) | 0;
}
while(carry > 0) {
digits.push(carry % base);
carry = (carry / base) | 0;
}
}
// deal with leading zeros
for(i = 0; input[i] === 0 && i < input.length - 1; ++i) {
output += first;
}
// convert digits to a string
for(i = digits.length - 1; i >= 0; --i) {
output += alphabet[digits[i]];
}
}
if(maxline) {
var regex = new RegExp('.{1,' + maxline + '}', 'g');
output = output.match(regex).join('\r\n');
}
return output;
};
/**
* Decodes a baseN-encoded (using the given alphabet) string to a
* Uint8Array.
*
* @param input the baseN-encoded input string.
*
* @return the Uint8Array.
*/
api.decode = function(input, alphabet) {
if(typeof input !== 'string') {
throw new TypeError('"input" must be a string.');
}
if(typeof alphabet !== 'string') {
throw new TypeError('"alphabet" must be a string.');
}
var table = _reverseAlphabets[alphabet];
if(!table) {
// compute reverse alphabet
table = _reverseAlphabets[alphabet] = [];
for(var i = 0; i < alphabet.length; ++i) {
table[alphabet.charCodeAt(i)] = i;
}
}
// remove whitespace characters
input = input.replace(/\s/g, '');
var base = alphabet.length;
var first = alphabet.charAt(0);
var bytes = [0];
for(var i = 0; i < input.length; i++) {
var value = table[input.charCodeAt(i)];
if(value === undefined) {
return;
}
for(var j = 0, carry = value; j < bytes.length; ++j) {
carry += bytes[j] * base;
bytes[j] = carry & 0xff;
carry >>= 8;
}
while(carry > 0) {
bytes.push(carry & 0xff);
carry >>= 8;
}
}
// deal with leading zeros
for(var k = 0; input[k] === first && k < input.length - 1; ++k) {
bytes.push(0);
}
if(typeof Buffer !== 'undefined') {
return Buffer.from(bytes.reverse());
}
return new Uint8Array(bytes.reverse());
};
function _encodeWithByteBuffer(input, alphabet) {
var i = 0;
var base = alphabet.length;
var first = alphabet.charAt(0);
var digits = [0];
for(i = 0; i < input.length(); ++i) {
for(var j = 0, carry = input.at(i); j < digits.length; ++j) {
carry += digits[j] << 8;
digits[j] = carry % base;
carry = (carry / base) | 0;
}
while(carry > 0) {
digits.push(carry % base);
carry = (carry / base) | 0;
}
}
var output = '';
// deal with leading zeros
for(i = 0; input.at(i) === 0 && i < input.length() - 1; ++i) {
output += first;
}
// convert digits to a string
for(i = digits.length - 1; i >= 0; --i) {
output += alphabet[digits[i]];
}
return output;
}

230
node_modules/node-forge/lib/cipher.js generated vendored Normal file
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/**
* Cipher base API.
*
* @author Dave Longley
*
* Copyright (c) 2010-2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./util');
module.exports = forge.cipher = forge.cipher || {};
// registered algorithms
forge.cipher.algorithms = forge.cipher.algorithms || {};
/**
* Creates a cipher object that can be used to encrypt data using the given
* algorithm and key. The algorithm may be provided as a string value for a
* previously registered algorithm or it may be given as a cipher algorithm
* API object.
*
* @param algorithm the algorithm to use, either a string or an algorithm API
* object.
* @param key the key to use, as a binary-encoded string of bytes or a
* byte buffer.
*
* @return the cipher.
*/
forge.cipher.createCipher = function(algorithm, key) {
var api = algorithm;
if(typeof api === 'string') {
api = forge.cipher.getAlgorithm(api);
if(api) {
api = api();
}
}
if(!api) {
throw new Error('Unsupported algorithm: ' + algorithm);
}
// assume block cipher
return new forge.cipher.BlockCipher({
algorithm: api,
key: key,
decrypt: false
});
};
/**
* Creates a decipher object that can be used to decrypt data using the given
* algorithm and key. The algorithm may be provided as a string value for a
* previously registered algorithm or it may be given as a cipher algorithm
* API object.
*
* @param algorithm the algorithm to use, either a string or an algorithm API
* object.
* @param key the key to use, as a binary-encoded string of bytes or a
* byte buffer.
*
* @return the cipher.
*/
forge.cipher.createDecipher = function(algorithm, key) {
var api = algorithm;
if(typeof api === 'string') {
api = forge.cipher.getAlgorithm(api);
if(api) {
api = api();
}
}
if(!api) {
throw new Error('Unsupported algorithm: ' + algorithm);
}
// assume block cipher
return new forge.cipher.BlockCipher({
algorithm: api,
key: key,
decrypt: true
});
};
/**
* Registers an algorithm by name. If the name was already registered, the
* algorithm API object will be overwritten.
*
* @param name the name of the algorithm.
* @param algorithm the algorithm API object.
*/
forge.cipher.registerAlgorithm = function(name, algorithm) {
name = name.toUpperCase();
forge.cipher.algorithms[name] = algorithm;
};
/**
* Gets a registered algorithm by name.
*
* @param name the name of the algorithm.
*
* @return the algorithm, if found, null if not.
*/
forge.cipher.getAlgorithm = function(name) {
name = name.toUpperCase();
if(name in forge.cipher.algorithms) {
return forge.cipher.algorithms[name];
}
return null;
};
var BlockCipher = forge.cipher.BlockCipher = function(options) {
this.algorithm = options.algorithm;
this.mode = this.algorithm.mode;
this.blockSize = this.mode.blockSize;
this._finish = false;
this._input = null;
this.output = null;
this._op = options.decrypt ? this.mode.decrypt : this.mode.encrypt;
this._decrypt = options.decrypt;
this.algorithm.initialize(options);
};
/**
* Starts or restarts the encryption or decryption process, whichever
* was previously configured.
*
* For non-GCM mode, the IV may be a binary-encoded string of bytes, an array
* of bytes, a byte buffer, or an array of 32-bit integers. If the IV is in
* bytes, then it must be Nb (16) bytes in length. If the IV is given in as
* 32-bit integers, then it must be 4 integers long.
*
* Note: an IV is not required or used in ECB mode.
*
* For GCM-mode, the IV must be given as a binary-encoded string of bytes or
* a byte buffer. The number of bytes should be 12 (96 bits) as recommended
* by NIST SP-800-38D but another length may be given.
*
* @param options the options to use:
* iv the initialization vector to use as a binary-encoded string of
* bytes, null to reuse the last ciphered block from a previous
* update() (this "residue" method is for legacy support only).
* additionalData additional authentication data as a binary-encoded
* string of bytes, for 'GCM' mode, (default: none).
* tagLength desired length of authentication tag, in bits, for
* 'GCM' mode (0-128, default: 128).
* tag the authentication tag to check if decrypting, as a
* binary-encoded string of bytes.
* output the output the buffer to write to, null to create one.
*/
BlockCipher.prototype.start = function(options) {
options = options || {};
var opts = {};
for(var key in options) {
opts[key] = options[key];
}
opts.decrypt = this._decrypt;
this._finish = false;
this._input = forge.util.createBuffer();
this.output = options.output || forge.util.createBuffer();
this.mode.start(opts);
};
/**
* Updates the next block according to the cipher mode.
*
* @param input the buffer to read from.
*/
BlockCipher.prototype.update = function(input) {
if(input) {
// input given, so empty it into the input buffer
this._input.putBuffer(input);
}
// do cipher operation until it needs more input and not finished
while(!this._op.call(this.mode, this._input, this.output, this._finish) &&
!this._finish) {}
// free consumed memory from input buffer
this._input.compact();
};
/**
* Finishes encrypting or decrypting.
*
* @param pad a padding function to use in CBC mode, null for default,
* signature(blockSize, buffer, decrypt).
*
* @return true if successful, false on error.
*/
BlockCipher.prototype.finish = function(pad) {
// backwards-compatibility w/deprecated padding API
// Note: will overwrite padding functions even after another start() call
if(pad && (this.mode.name === 'ECB' || this.mode.name === 'CBC')) {
this.mode.pad = function(input) {
return pad(this.blockSize, input, false);
};
this.mode.unpad = function(output) {
return pad(this.blockSize, output, true);
};
}
// build options for padding and afterFinish functions
var options = {};
options.decrypt = this._decrypt;
// get # of bytes that won't fill a block
options.overflow = this._input.length() % this.blockSize;
if(!this._decrypt && this.mode.pad) {
if(!this.mode.pad(this._input, options)) {
return false;
}
}
// do final update
this._finish = true;
this.update();
if(this._decrypt && this.mode.unpad) {
if(!this.mode.unpad(this.output, options)) {
return false;
}
}
if(this.mode.afterFinish) {
if(!this.mode.afterFinish(this.output, options)) {
return false;
}
}
return true;
};

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/**
* Supported cipher modes.
*
* @author Dave Longley
*
* Copyright (c) 2010-2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./util');
forge.cipher = forge.cipher || {};
// supported cipher modes
var modes = module.exports = forge.cipher.modes = forge.cipher.modes || {};
/** Electronic codebook (ECB) (Don't use this; it's not secure) **/
modes.ecb = function(options) {
options = options || {};
this.name = 'ECB';
this.cipher = options.cipher;
this.blockSize = options.blockSize || 16;
this._ints = this.blockSize / 4;
this._inBlock = new Array(this._ints);
this._outBlock = new Array(this._ints);
};
modes.ecb.prototype.start = function(options) {};
modes.ecb.prototype.encrypt = function(input, output, finish) {
// not enough input to encrypt
if(input.length() < this.blockSize && !(finish && input.length() > 0)) {
return true;
}
// get next block
for(var i = 0; i < this._ints; ++i) {
this._inBlock[i] = input.getInt32();
}
// encrypt block
this.cipher.encrypt(this._inBlock, this._outBlock);
// write output
for(var i = 0; i < this._ints; ++i) {
output.putInt32(this._outBlock[i]);
}
};
modes.ecb.prototype.decrypt = function(input, output, finish) {
// not enough input to decrypt
if(input.length() < this.blockSize && !(finish && input.length() > 0)) {
return true;
}
// get next block
for(var i = 0; i < this._ints; ++i) {
this._inBlock[i] = input.getInt32();
}
// decrypt block
this.cipher.decrypt(this._inBlock, this._outBlock);
// write output
for(var i = 0; i < this._ints; ++i) {
output.putInt32(this._outBlock[i]);
}
};
modes.ecb.prototype.pad = function(input, options) {
// add PKCS#7 padding to block (each pad byte is the
// value of the number of pad bytes)
var padding = (input.length() === this.blockSize ?
this.blockSize : (this.blockSize - input.length()));
input.fillWithByte(padding, padding);
return true;
};
modes.ecb.prototype.unpad = function(output, options) {
// check for error: input data not a multiple of blockSize
if(options.overflow > 0) {
return false;
}
// ensure padding byte count is valid
var len = output.length();
var count = output.at(len - 1);
if(count > (this.blockSize << 2)) {
return false;
}
// trim off padding bytes
output.truncate(count);
return true;
};
/** Cipher-block Chaining (CBC) **/
modes.cbc = function(options) {
options = options || {};
this.name = 'CBC';
this.cipher = options.cipher;
this.blockSize = options.blockSize || 16;
this._ints = this.blockSize / 4;
this._inBlock = new Array(this._ints);
this._outBlock = new Array(this._ints);
};
modes.cbc.prototype.start = function(options) {
// Note: legacy support for using IV residue (has security flaws)
// if IV is null, reuse block from previous processing
if(options.iv === null) {
// must have a previous block
if(!this._prev) {
throw new Error('Invalid IV parameter.');
}
this._iv = this._prev.slice(0);
} else if(!('iv' in options)) {
throw new Error('Invalid IV parameter.');
} else {
// save IV as "previous" block
this._iv = transformIV(options.iv);
this._prev = this._iv.slice(0);
}
};
modes.cbc.prototype.encrypt = function(input, output, finish) {
// not enough input to encrypt
if(input.length() < this.blockSize && !(finish && input.length() > 0)) {
return true;
}
// get next block
// CBC XOR's IV (or previous block) with plaintext
for(var i = 0; i < this._ints; ++i) {
this._inBlock[i] = this._prev[i] ^ input.getInt32();
}
// encrypt block
this.cipher.encrypt(this._inBlock, this._outBlock);
// write output, save previous block
for(var i = 0; i < this._ints; ++i) {
output.putInt32(this._outBlock[i]);
}
this._prev = this._outBlock;
};
modes.cbc.prototype.decrypt = function(input, output, finish) {
// not enough input to decrypt
if(input.length() < this.blockSize && !(finish && input.length() > 0)) {
return true;
}
// get next block
for(var i = 0; i < this._ints; ++i) {
this._inBlock[i] = input.getInt32();
}
// decrypt block
this.cipher.decrypt(this._inBlock, this._outBlock);
// write output, save previous ciphered block
// CBC XOR's IV (or previous block) with ciphertext
for(var i = 0; i < this._ints; ++i) {
output.putInt32(this._prev[i] ^ this._outBlock[i]);
}
this._prev = this._inBlock.slice(0);
};
modes.cbc.prototype.pad = function(input, options) {
// add PKCS#7 padding to block (each pad byte is the
// value of the number of pad bytes)
var padding = (input.length() === this.blockSize ?
this.blockSize : (this.blockSize - input.length()));
input.fillWithByte(padding, padding);
return true;
};
modes.cbc.prototype.unpad = function(output, options) {
// check for error: input data not a multiple of blockSize
if(options.overflow > 0) {
return false;
}
// ensure padding byte count is valid
var len = output.length();
var count = output.at(len - 1);
if(count > (this.blockSize << 2)) {
return false;
}
// trim off padding bytes
output.truncate(count);
return true;
};
/** Cipher feedback (CFB) **/
modes.cfb = function(options) {
options = options || {};
this.name = 'CFB';
this.cipher = options.cipher;
this.blockSize = options.blockSize || 16;
this._ints = this.blockSize / 4;
this._inBlock = null;
this._outBlock = new Array(this._ints);
this._partialBlock = new Array(this._ints);
this._partialOutput = forge.util.createBuffer();
this._partialBytes = 0;
};
modes.cfb.prototype.start = function(options) {
if(!('iv' in options)) {
throw new Error('Invalid IV parameter.');
}
// use IV as first input
this._iv = transformIV(options.iv);
this._inBlock = this._iv.slice(0);
this._partialBytes = 0;
};
modes.cfb.prototype.encrypt = function(input, output, finish) {
// not enough input to encrypt
var inputLength = input.length();
if(inputLength === 0) {
return true;
}
// encrypt block
this.cipher.encrypt(this._inBlock, this._outBlock);
// handle full block
if(this._partialBytes === 0 && inputLength >= this.blockSize) {
// XOR input with output, write input as output
for(var i = 0; i < this._ints; ++i) {
this._inBlock[i] = input.getInt32() ^ this._outBlock[i];
output.putInt32(this._inBlock[i]);
}
return;
}
// handle partial block
var partialBytes = (this.blockSize - inputLength) % this.blockSize;
if(partialBytes > 0) {
partialBytes = this.blockSize - partialBytes;
}
// XOR input with output, write input as partial output
this._partialOutput.clear();
for(var i = 0; i < this._ints; ++i) {
this._partialBlock[i] = input.getInt32() ^ this._outBlock[i];
this._partialOutput.putInt32(this._partialBlock[i]);
}
if(partialBytes > 0) {
// block still incomplete, restore input buffer
input.read -= this.blockSize;
} else {
// block complete, update input block
for(var i = 0; i < this._ints; ++i) {
this._inBlock[i] = this._partialBlock[i];
}
}
// skip any previous partial bytes
if(this._partialBytes > 0) {
this._partialOutput.getBytes(this._partialBytes);
}
if(partialBytes > 0 && !finish) {
output.putBytes(this._partialOutput.getBytes(
partialBytes - this._partialBytes));
this._partialBytes = partialBytes;
return true;
}
output.putBytes(this._partialOutput.getBytes(
inputLength - this._partialBytes));
this._partialBytes = 0;
};
modes.cfb.prototype.decrypt = function(input, output, finish) {
// not enough input to decrypt
var inputLength = input.length();
if(inputLength === 0) {
return true;
}
// encrypt block (CFB always uses encryption mode)
this.cipher.encrypt(this._inBlock, this._outBlock);
// handle full block
if(this._partialBytes === 0 && inputLength >= this.blockSize) {
// XOR input with output, write input as output
for(var i = 0; i < this._ints; ++i) {
this._inBlock[i] = input.getInt32();
output.putInt32(this._inBlock[i] ^ this._outBlock[i]);
}
return;
}
// handle partial block
var partialBytes = (this.blockSize - inputLength) % this.blockSize;
if(partialBytes > 0) {
partialBytes = this.blockSize - partialBytes;
}
// XOR input with output, write input as partial output
this._partialOutput.clear();
for(var i = 0; i < this._ints; ++i) {
this._partialBlock[i] = input.getInt32();
this._partialOutput.putInt32(this._partialBlock[i] ^ this._outBlock[i]);
}
if(partialBytes > 0) {
// block still incomplete, restore input buffer
input.read -= this.blockSize;
} else {
// block complete, update input block
for(var i = 0; i < this._ints; ++i) {
this._inBlock[i] = this._partialBlock[i];
}
}
// skip any previous partial bytes
if(this._partialBytes > 0) {
this._partialOutput.getBytes(this._partialBytes);
}
if(partialBytes > 0 && !finish) {
output.putBytes(this._partialOutput.getBytes(
partialBytes - this._partialBytes));
this._partialBytes = partialBytes;
return true;
}
output.putBytes(this._partialOutput.getBytes(
inputLength - this._partialBytes));
this._partialBytes = 0;
};
/** Output feedback (OFB) **/
modes.ofb = function(options) {
options = options || {};
this.name = 'OFB';
this.cipher = options.cipher;
this.blockSize = options.blockSize || 16;
this._ints = this.blockSize / 4;
this._inBlock = null;
this._outBlock = new Array(this._ints);
this._partialOutput = forge.util.createBuffer();
this._partialBytes = 0;
};
modes.ofb.prototype.start = function(options) {
if(!('iv' in options)) {
throw new Error('Invalid IV parameter.');
}
// use IV as first input
this._iv = transformIV(options.iv);
this._inBlock = this._iv.slice(0);
this._partialBytes = 0;
};
modes.ofb.prototype.encrypt = function(input, output, finish) {
// not enough input to encrypt
var inputLength = input.length();
if(input.length() === 0) {
return true;
}
// encrypt block (OFB always uses encryption mode)
this.cipher.encrypt(this._inBlock, this._outBlock);
// handle full block
if(this._partialBytes === 0 && inputLength >= this.blockSize) {
// XOR input with output and update next input
for(var i = 0; i < this._ints; ++i) {
output.putInt32(input.getInt32() ^ this._outBlock[i]);
this._inBlock[i] = this._outBlock[i];
}
return;
}
// handle partial block
var partialBytes = (this.blockSize - inputLength) % this.blockSize;
if(partialBytes > 0) {
partialBytes = this.blockSize - partialBytes;
}
// XOR input with output
this._partialOutput.clear();
for(var i = 0; i < this._ints; ++i) {
this._partialOutput.putInt32(input.getInt32() ^ this._outBlock[i]);
}
if(partialBytes > 0) {
// block still incomplete, restore input buffer
input.read -= this.blockSize;
} else {
// block complete, update input block
for(var i = 0; i < this._ints; ++i) {
this._inBlock[i] = this._outBlock[i];
}
}
// skip any previous partial bytes
if(this._partialBytes > 0) {
this._partialOutput.getBytes(this._partialBytes);
}
if(partialBytes > 0 && !finish) {
output.putBytes(this._partialOutput.getBytes(
partialBytes - this._partialBytes));
this._partialBytes = partialBytes;
return true;
}
output.putBytes(this._partialOutput.getBytes(
inputLength - this._partialBytes));
this._partialBytes = 0;
};
modes.ofb.prototype.decrypt = modes.ofb.prototype.encrypt;
/** Counter (CTR) **/
modes.ctr = function(options) {
options = options || {};
this.name = 'CTR';
this.cipher = options.cipher;
this.blockSize = options.blockSize || 16;
this._ints = this.blockSize / 4;
this._inBlock = null;
this._outBlock = new Array(this._ints);
this._partialOutput = forge.util.createBuffer();
this._partialBytes = 0;
};
modes.ctr.prototype.start = function(options) {
if(!('iv' in options)) {
throw new Error('Invalid IV parameter.');
}
// use IV as first input
this._iv = transformIV(options.iv);
this._inBlock = this._iv.slice(0);
this._partialBytes = 0;
};
modes.ctr.prototype.encrypt = function(input, output, finish) {
// not enough input to encrypt
var inputLength = input.length();
if(inputLength === 0) {
return true;
}
// encrypt block (CTR always uses encryption mode)
this.cipher.encrypt(this._inBlock, this._outBlock);
// handle full block
if(this._partialBytes === 0 && inputLength >= this.blockSize) {
// XOR input with output
for(var i = 0; i < this._ints; ++i) {
output.putInt32(input.getInt32() ^ this._outBlock[i]);
}
} else {
// handle partial block
var partialBytes = (this.blockSize - inputLength) % this.blockSize;
if(partialBytes > 0) {
partialBytes = this.blockSize - partialBytes;
}
// XOR input with output
this._partialOutput.clear();
for(var i = 0; i < this._ints; ++i) {
this._partialOutput.putInt32(input.getInt32() ^ this._outBlock[i]);
}
if(partialBytes > 0) {
// block still incomplete, restore input buffer
input.read -= this.blockSize;
}
// skip any previous partial bytes
if(this._partialBytes > 0) {
this._partialOutput.getBytes(this._partialBytes);
}
if(partialBytes > 0 && !finish) {
output.putBytes(this._partialOutput.getBytes(
partialBytes - this._partialBytes));
this._partialBytes = partialBytes;
return true;
}
output.putBytes(this._partialOutput.getBytes(
inputLength - this._partialBytes));
this._partialBytes = 0;
}
// block complete, increment counter (input block)
inc32(this._inBlock);
};
modes.ctr.prototype.decrypt = modes.ctr.prototype.encrypt;
/** Galois/Counter Mode (GCM) **/
modes.gcm = function(options) {
options = options || {};
this.name = 'GCM';
this.cipher = options.cipher;
this.blockSize = options.blockSize || 16;
this._ints = this.blockSize / 4;
this._inBlock = new Array(this._ints);
this._outBlock = new Array(this._ints);
this._partialOutput = forge.util.createBuffer();
this._partialBytes = 0;
// R is actually this value concatenated with 120 more zero bits, but
// we only XOR against R so the other zeros have no effect -- we just
// apply this value to the first integer in a block
this._R = 0xE1000000;
};
modes.gcm.prototype.start = function(options) {
if(!('iv' in options)) {
throw new Error('Invalid IV parameter.');
}
// ensure IV is a byte buffer
var iv = forge.util.createBuffer(options.iv);
// no ciphered data processed yet
this._cipherLength = 0;
// default additional data is none
var additionalData;
if('additionalData' in options) {
additionalData = forge.util.createBuffer(options.additionalData);
} else {
additionalData = forge.util.createBuffer();
}
// default tag length is 128 bits
if('tagLength' in options) {
this._tagLength = options.tagLength;
} else {
this._tagLength = 128;
}
// if tag is given, ensure tag matches tag length
this._tag = null;
if(options.decrypt) {
// save tag to check later
this._tag = forge.util.createBuffer(options.tag).getBytes();
if(this._tag.length !== (this._tagLength / 8)) {
throw new Error('Authentication tag does not match tag length.');
}
}
// create tmp storage for hash calculation
this._hashBlock = new Array(this._ints);
// no tag generated yet
this.tag = null;
// generate hash subkey
// (apply block cipher to "zero" block)
this._hashSubkey = new Array(this._ints);
this.cipher.encrypt([0, 0, 0, 0], this._hashSubkey);
// generate table M
// use 4-bit tables (32 component decomposition of a 16 byte value)
// 8-bit tables take more space and are known to have security
// vulnerabilities (in native implementations)
this.componentBits = 4;
this._m = this.generateHashTable(this._hashSubkey, this.componentBits);
// Note: support IV length different from 96 bits? (only supporting
// 96 bits is recommended by NIST SP-800-38D)
// generate J_0
var ivLength = iv.length();
if(ivLength === 12) {
// 96-bit IV
this._j0 = [iv.getInt32(), iv.getInt32(), iv.getInt32(), 1];
} else {
// IV is NOT 96-bits
this._j0 = [0, 0, 0, 0];
while(iv.length() > 0) {
this._j0 = this.ghash(
this._hashSubkey, this._j0,
[iv.getInt32(), iv.getInt32(), iv.getInt32(), iv.getInt32()]);
}
this._j0 = this.ghash(
this._hashSubkey, this._j0, [0, 0].concat(from64To32(ivLength * 8)));
}
// generate ICB (initial counter block)
this._inBlock = this._j0.slice(0);
inc32(this._inBlock);
this._partialBytes = 0;
// consume authentication data
additionalData = forge.util.createBuffer(additionalData);
// save additional data length as a BE 64-bit number
this._aDataLength = from64To32(additionalData.length() * 8);
// pad additional data to 128 bit (16 byte) block size
var overflow = additionalData.length() % this.blockSize;
if(overflow) {
additionalData.fillWithByte(0, this.blockSize - overflow);
}
this._s = [0, 0, 0, 0];
while(additionalData.length() > 0) {
this._s = this.ghash(this._hashSubkey, this._s, [
additionalData.getInt32(),
additionalData.getInt32(),
additionalData.getInt32(),
additionalData.getInt32()
]);
}
};
modes.gcm.prototype.encrypt = function(input, output, finish) {
// not enough input to encrypt
var inputLength = input.length();
if(inputLength === 0) {
return true;
}
// encrypt block
this.cipher.encrypt(this._inBlock, this._outBlock);
// handle full block
if(this._partialBytes === 0 && inputLength >= this.blockSize) {
// XOR input with output
for(var i = 0; i < this._ints; ++i) {
output.putInt32(this._outBlock[i] ^= input.getInt32());
}
this._cipherLength += this.blockSize;
} else {
// handle partial block
var partialBytes = (this.blockSize - inputLength) % this.blockSize;
if(partialBytes > 0) {
partialBytes = this.blockSize - partialBytes;
}
// XOR input with output
this._partialOutput.clear();
for(var i = 0; i < this._ints; ++i) {
this._partialOutput.putInt32(input.getInt32() ^ this._outBlock[i]);
}
if(partialBytes === 0 || finish) {
// handle overflow prior to hashing
if(finish) {
// get block overflow
var overflow = inputLength % this.blockSize;
this._cipherLength += overflow;
// truncate for hash function
this._partialOutput.truncate(this.blockSize - overflow);
} else {
this._cipherLength += this.blockSize;
}
// get output block for hashing
for(var i = 0; i < this._ints; ++i) {
this._outBlock[i] = this._partialOutput.getInt32();
}
this._partialOutput.read -= this.blockSize;
}
// skip any previous partial bytes
if(this._partialBytes > 0) {
this._partialOutput.getBytes(this._partialBytes);
}
if(partialBytes > 0 && !finish) {
// block still incomplete, restore input buffer, get partial output,
// and return early
input.read -= this.blockSize;
output.putBytes(this._partialOutput.getBytes(
partialBytes - this._partialBytes));
this._partialBytes = partialBytes;
return true;
}
output.putBytes(this._partialOutput.getBytes(
inputLength - this._partialBytes));
this._partialBytes = 0;
}
// update hash block S
this._s = this.ghash(this._hashSubkey, this._s, this._outBlock);
// increment counter (input block)
inc32(this._inBlock);
};
modes.gcm.prototype.decrypt = function(input, output, finish) {
// not enough input to decrypt
var inputLength = input.length();
if(inputLength < this.blockSize && !(finish && inputLength > 0)) {
return true;
}
// encrypt block (GCM always uses encryption mode)
this.cipher.encrypt(this._inBlock, this._outBlock);
// increment counter (input block)
inc32(this._inBlock);
// update hash block S
this._hashBlock[0] = input.getInt32();
this._hashBlock[1] = input.getInt32();
this._hashBlock[2] = input.getInt32();
this._hashBlock[3] = input.getInt32();
this._s = this.ghash(this._hashSubkey, this._s, this._hashBlock);
// XOR hash input with output
for(var i = 0; i < this._ints; ++i) {
output.putInt32(this._outBlock[i] ^ this._hashBlock[i]);
}
// increment cipher data length
if(inputLength < this.blockSize) {
this._cipherLength += inputLength % this.blockSize;
} else {
this._cipherLength += this.blockSize;
}
};
modes.gcm.prototype.afterFinish = function(output, options) {
var rval = true;
// handle overflow
if(options.decrypt && options.overflow) {
output.truncate(this.blockSize - options.overflow);
}
// handle authentication tag
this.tag = forge.util.createBuffer();
// concatenate additional data length with cipher length
var lengths = this._aDataLength.concat(from64To32(this._cipherLength * 8));
// include lengths in hash
this._s = this.ghash(this._hashSubkey, this._s, lengths);
// do GCTR(J_0, S)
var tag = [];
this.cipher.encrypt(this._j0, tag);
for(var i = 0; i < this._ints; ++i) {
this.tag.putInt32(this._s[i] ^ tag[i]);
}
// trim tag to length
this.tag.truncate(this.tag.length() % (this._tagLength / 8));
// check authentication tag
if(options.decrypt && this.tag.bytes() !== this._tag) {
rval = false;
}
return rval;
};
/**
* See NIST SP-800-38D 6.3 (Algorithm 1). This function performs Galois
* field multiplication. The field, GF(2^128), is defined by the polynomial:
*
* x^128 + x^7 + x^2 + x + 1
*
* Which is represented in little-endian binary form as: 11100001 (0xe1). When
* the value of a coefficient is 1, a bit is set. The value R, is the
* concatenation of this value and 120 zero bits, yielding a 128-bit value
* which matches the block size.
*
* This function will multiply two elements (vectors of bytes), X and Y, in
* the field GF(2^128). The result is initialized to zero. For each bit of
* X (out of 128), x_i, if x_i is set, then the result is multiplied (XOR'd)
* by the current value of Y. For each bit, the value of Y will be raised by
* a power of x (multiplied by the polynomial x). This can be achieved by
* shifting Y once to the right. If the current value of Y, prior to being
* multiplied by x, has 0 as its LSB, then it is a 127th degree polynomial.
* Otherwise, we must divide by R after shifting to find the remainder.
*
* @param x the first block to multiply by the second.
* @param y the second block to multiply by the first.
*
* @return the block result of the multiplication.
*/
modes.gcm.prototype.multiply = function(x, y) {
var z_i = [0, 0, 0, 0];
var v_i = y.slice(0);
// calculate Z_128 (block has 128 bits)
for(var i = 0; i < 128; ++i) {
// if x_i is 0, Z_{i+1} = Z_i (unchanged)
// else Z_{i+1} = Z_i ^ V_i
// get x_i by finding 32-bit int position, then left shift 1 by remainder
var x_i = x[(i / 32) | 0] & (1 << (31 - i % 32));
if(x_i) {
z_i[0] ^= v_i[0];
z_i[1] ^= v_i[1];
z_i[2] ^= v_i[2];
z_i[3] ^= v_i[3];
}
// if LSB(V_i) is 1, V_i = V_i >> 1
// else V_i = (V_i >> 1) ^ R
this.pow(v_i, v_i);
}
return z_i;
};
modes.gcm.prototype.pow = function(x, out) {
// if LSB(x) is 1, x = x >>> 1
// else x = (x >>> 1) ^ R
var lsb = x[3] & 1;
// always do x >>> 1:
// starting with the rightmost integer, shift each integer to the right
// one bit, pulling in the bit from the integer to the left as its top
// most bit (do this for the last 3 integers)
for(var i = 3; i > 0; --i) {
out[i] = (x[i] >>> 1) | ((x[i - 1] & 1) << 31);
}
// shift the first integer normally
out[0] = x[0] >>> 1;
// if lsb was not set, then polynomial had a degree of 127 and doesn't
// need to divided; otherwise, XOR with R to find the remainder; we only
// need to XOR the first integer since R technically ends w/120 zero bits
if(lsb) {
out[0] ^= this._R;
}
};
modes.gcm.prototype.tableMultiply = function(x) {
// assumes 4-bit tables are used
var z = [0, 0, 0, 0];
for(var i = 0; i < 32; ++i) {
var idx = (i / 8) | 0;
var x_i = (x[idx] >>> ((7 - (i % 8)) * 4)) & 0xF;
var ah = this._m[i][x_i];
z[0] ^= ah[0];
z[1] ^= ah[1];
z[2] ^= ah[2];
z[3] ^= ah[3];
}
return z;
};
/**
* A continuing version of the GHASH algorithm that operates on a single
* block. The hash block, last hash value (Ym) and the new block to hash
* are given.
*
* @param h the hash block.
* @param y the previous value for Ym, use [0, 0, 0, 0] for a new hash.
* @param x the block to hash.
*
* @return the hashed value (Ym).
*/
modes.gcm.prototype.ghash = function(h, y, x) {
y[0] ^= x[0];
y[1] ^= x[1];
y[2] ^= x[2];
y[3] ^= x[3];
return this.tableMultiply(y);
//return this.multiply(y, h);
};
/**
* Precomputes a table for multiplying against the hash subkey. This
* mechanism provides a substantial speed increase over multiplication
* performed without a table. The table-based multiplication this table is
* for solves X * H by multiplying each component of X by H and then
* composing the results together using XOR.
*
* This function can be used to generate tables with different bit sizes
* for the components, however, this implementation assumes there are
* 32 components of X (which is a 16 byte vector), therefore each component
* takes 4-bits (so the table is constructed with bits=4).
*
* @param h the hash subkey.
* @param bits the bit size for a component.
*/
modes.gcm.prototype.generateHashTable = function(h, bits) {
// TODO: There are further optimizations that would use only the
// first table M_0 (or some variant) along with a remainder table;
// this can be explored in the future
var multiplier = 8 / bits;
var perInt = 4 * multiplier;
var size = 16 * multiplier;
var m = new Array(size);
for(var i = 0; i < size; ++i) {
var tmp = [0, 0, 0, 0];
var idx = (i / perInt) | 0;
var shft = ((perInt - 1 - (i % perInt)) * bits);
tmp[idx] = (1 << (bits - 1)) << shft;
m[i] = this.generateSubHashTable(this.multiply(tmp, h), bits);
}
return m;
};
/**
* Generates a table for multiplying against the hash subkey for one
* particular component (out of all possible component values).
*
* @param mid the pre-multiplied value for the middle key of the table.
* @param bits the bit size for a component.
*/
modes.gcm.prototype.generateSubHashTable = function(mid, bits) {
// compute the table quickly by minimizing the number of
// POW operations -- they only need to be performed for powers of 2,
// all other entries can be composed from those powers using XOR
var size = 1 << bits;
var half = size >>> 1;
var m = new Array(size);
m[half] = mid.slice(0);
var i = half >>> 1;
while(i > 0) {
// raise m0[2 * i] and store in m0[i]
this.pow(m[2 * i], m[i] = []);
i >>= 1;
}
i = 2;
while(i < half) {
for(var j = 1; j < i; ++j) {
var m_i = m[i];
var m_j = m[j];
m[i + j] = [
m_i[0] ^ m_j[0],
m_i[1] ^ m_j[1],
m_i[2] ^ m_j[2],
m_i[3] ^ m_j[3]
];
}
i *= 2;
}
m[0] = [0, 0, 0, 0];
/* Note: We could avoid storing these by doing composition during multiply
calculate top half using composition by speed is preferred. */
for(i = half + 1; i < size; ++i) {
var c = m[i ^ half];
m[i] = [mid[0] ^ c[0], mid[1] ^ c[1], mid[2] ^ c[2], mid[3] ^ c[3]];
}
return m;
};
/** Utility functions */
function transformIV(iv) {
if(typeof iv === 'string') {
// convert iv string into byte buffer
iv = forge.util.createBuffer(iv);
}
if(forge.util.isArray(iv) && iv.length > 4) {
// convert iv byte array into byte buffer
var tmp = iv;
iv = forge.util.createBuffer();
for(var i = 0; i < tmp.length; ++i) {
iv.putByte(tmp[i]);
}
}
if(!forge.util.isArray(iv)) {
// convert iv byte buffer into 32-bit integer array
iv = [iv.getInt32(), iv.getInt32(), iv.getInt32(), iv.getInt32()];
}
return iv;
}
function inc32(block) {
// increment last 32 bits of block only
block[block.length - 1] = (block[block.length - 1] + 1) & 0xFFFFFFFF;
}
function from64To32(num) {
// convert 64-bit number to two BE Int32s
return [(num / 0x100000000) | 0, num & 0xFFFFFFFF];
}

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node_modules/node-forge/lib/debug.js generated vendored Normal file
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/**
* Debugging support for web applications.
*
* @author David I. Lehn <dlehn@digitalbazaar.com>
*
* Copyright 2008-2013 Digital Bazaar, Inc.
*/
var forge = require('./forge');
/* DEBUG API */
module.exports = forge.debug = forge.debug || {};
// Private storage for debugging.
// Useful to expose data that is otherwise unviewable behind closures.
// NOTE: remember that this can hold references to data and cause leaks!
// format is "forge._debug.<modulename>.<dataname> = data"
// Example:
// (function() {
// var cat = 'forge.test.Test'; // debugging category
// var sState = {...}; // local state
// forge.debug.set(cat, 'sState', sState);
// })();
forge.debug.storage = {};
/**
* Gets debug data. Omit name for all cat data Omit name and cat for
* all data.
*
* @param cat name of debugging category.
* @param name name of data to get (optional).
* @return object with requested debug data or undefined.
*/
forge.debug.get = function(cat, name) {
var rval;
if(typeof(cat) === 'undefined') {
rval = forge.debug.storage;
} else if(cat in forge.debug.storage) {
if(typeof(name) === 'undefined') {
rval = forge.debug.storage[cat];
} else {
rval = forge.debug.storage[cat][name];
}
}
return rval;
};
/**
* Sets debug data.
*
* @param cat name of debugging category.
* @param name name of data to set.
* @param data data to set.
*/
forge.debug.set = function(cat, name, data) {
if(!(cat in forge.debug.storage)) {
forge.debug.storage[cat] = {};
}
forge.debug.storage[cat][name] = data;
};
/**
* Clears debug data. Omit name for all cat data. Omit name and cat for
* all data.
*
* @param cat name of debugging category.
* @param name name of data to clear or omit to clear entire category.
*/
forge.debug.clear = function(cat, name) {
if(typeof(cat) === 'undefined') {
forge.debug.storage = {};
} else if(cat in forge.debug.storage) {
if(typeof(name) === 'undefined') {
delete forge.debug.storage[cat];
} else {
delete forge.debug.storage[cat][name];
}
}
};

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/**
* DES (Data Encryption Standard) implementation.
*
* This implementation supports DES as well as 3DES-EDE in ECB and CBC mode.
* It is based on the BSD-licensed implementation by Paul Tero:
*
* Paul Tero, July 2001
* http://www.tero.co.uk/des/
*
* Optimised for performance with large blocks by Michael Hayworth, November 2001
* http://www.netdealing.com
*
* THIS SOFTWARE IS PROVIDED "AS IS" AND
* ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
* IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
* ARE DISCLAIMED. IN NO EVENT SHALL THE AUTHOR OR CONTRIBUTORS BE LIABLE
* FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
* DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
* OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
* HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
* LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
* OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
* SUCH DAMAGE.
*
* @author Stefan Siegl
* @author Dave Longley
*
* Copyright (c) 2012 Stefan Siegl <stesie@brokenpipe.de>
* Copyright (c) 2012-2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./cipher');
require('./cipherModes');
require('./util');
/* DES API */
module.exports = forge.des = forge.des || {};
/**
* Deprecated. Instead, use:
*
* var cipher = forge.cipher.createCipher('DES-<mode>', key);
* cipher.start({iv: iv});
*
* Creates an DES cipher object to encrypt data using the given symmetric key.
* The output will be stored in the 'output' member of the returned cipher.
*
* The key and iv may be given as binary-encoded strings of bytes or
* byte buffers.
*
* @param key the symmetric key to use (64 or 192 bits).
* @param iv the initialization vector to use.
* @param output the buffer to write to, null to create one.
* @param mode the cipher mode to use (default: 'CBC' if IV is
* given, 'ECB' if null).
*
* @return the cipher.
*/
forge.des.startEncrypting = function(key, iv, output, mode) {
var cipher = _createCipher({
key: key,
output: output,
decrypt: false,
mode: mode || (iv === null ? 'ECB' : 'CBC')
});
cipher.start(iv);
return cipher;
};
/**
* Deprecated. Instead, use:
*
* var cipher = forge.cipher.createCipher('DES-<mode>', key);
*
* Creates an DES cipher object to encrypt data using the given symmetric key.
*
* The key may be given as a binary-encoded string of bytes or a byte buffer.
*
* @param key the symmetric key to use (64 or 192 bits).
* @param mode the cipher mode to use (default: 'CBC').
*
* @return the cipher.
*/
forge.des.createEncryptionCipher = function(key, mode) {
return _createCipher({
key: key,
output: null,
decrypt: false,
mode: mode
});
};
/**
* Deprecated. Instead, use:
*
* var decipher = forge.cipher.createDecipher('DES-<mode>', key);
* decipher.start({iv: iv});
*
* Creates an DES cipher object to decrypt data using the given symmetric key.
* The output will be stored in the 'output' member of the returned cipher.
*
* The key and iv may be given as binary-encoded strings of bytes or
* byte buffers.
*
* @param key the symmetric key to use (64 or 192 bits).
* @param iv the initialization vector to use.
* @param output the buffer to write to, null to create one.
* @param mode the cipher mode to use (default: 'CBC' if IV is
* given, 'ECB' if null).
*
* @return the cipher.
*/
forge.des.startDecrypting = function(key, iv, output, mode) {
var cipher = _createCipher({
key: key,
output: output,
decrypt: true,
mode: mode || (iv === null ? 'ECB' : 'CBC')
});
cipher.start(iv);
return cipher;
};
/**
* Deprecated. Instead, use:
*
* var decipher = forge.cipher.createDecipher('DES-<mode>', key);
*
* Creates an DES cipher object to decrypt data using the given symmetric key.
*
* The key may be given as a binary-encoded string of bytes or a byte buffer.
*
* @param key the symmetric key to use (64 or 192 bits).
* @param mode the cipher mode to use (default: 'CBC').
*
* @return the cipher.
*/
forge.des.createDecryptionCipher = function(key, mode) {
return _createCipher({
key: key,
output: null,
decrypt: true,
mode: mode
});
};
/**
* Creates a new DES cipher algorithm object.
*
* @param name the name of the algorithm.
* @param mode the mode factory function.
*
* @return the DES algorithm object.
*/
forge.des.Algorithm = function(name, mode) {
var self = this;
self.name = name;
self.mode = new mode({
blockSize: 8,
cipher: {
encrypt: function(inBlock, outBlock) {
return _updateBlock(self._keys, inBlock, outBlock, false);
},
decrypt: function(inBlock, outBlock) {
return _updateBlock(self._keys, inBlock, outBlock, true);
}
}
});
self._init = false;
};
/**
* Initializes this DES algorithm by expanding its key.
*
* @param options the options to use.
* key the key to use with this algorithm.
* decrypt true if the algorithm should be initialized for decryption,
* false for encryption.
*/
forge.des.Algorithm.prototype.initialize = function(options) {
if(this._init) {
return;
}
var key = forge.util.createBuffer(options.key);
if(this.name.indexOf('3DES') === 0) {
if(key.length() !== 24) {
throw new Error('Invalid Triple-DES key size: ' + key.length() * 8);
}
}
// do key expansion to 16 or 48 subkeys (single or triple DES)
this._keys = _createKeys(key);
this._init = true;
};
/** Register DES algorithms **/
registerAlgorithm('DES-ECB', forge.cipher.modes.ecb);
registerAlgorithm('DES-CBC', forge.cipher.modes.cbc);
registerAlgorithm('DES-CFB', forge.cipher.modes.cfb);
registerAlgorithm('DES-OFB', forge.cipher.modes.ofb);
registerAlgorithm('DES-CTR', forge.cipher.modes.ctr);
registerAlgorithm('3DES-ECB', forge.cipher.modes.ecb);
registerAlgorithm('3DES-CBC', forge.cipher.modes.cbc);
registerAlgorithm('3DES-CFB', forge.cipher.modes.cfb);
registerAlgorithm('3DES-OFB', forge.cipher.modes.ofb);
registerAlgorithm('3DES-CTR', forge.cipher.modes.ctr);
function registerAlgorithm(name, mode) {
var factory = function() {
return new forge.des.Algorithm(name, mode);
};
forge.cipher.registerAlgorithm(name, factory);
}
/** DES implementation **/
var spfunction1 = [0x1010400,0,0x10000,0x1010404,0x1010004,0x10404,0x4,0x10000,0x400,0x1010400,0x1010404,0x400,0x1000404,0x1010004,0x1000000,0x4,0x404,0x1000400,0x1000400,0x10400,0x10400,0x1010000,0x1010000,0x1000404,0x10004,0x1000004,0x1000004,0x10004,0,0x404,0x10404,0x1000000,0x10000,0x1010404,0x4,0x1010000,0x1010400,0x1000000,0x1000000,0x400,0x1010004,0x10000,0x10400,0x1000004,0x400,0x4,0x1000404,0x10404,0x1010404,0x10004,0x1010000,0x1000404,0x1000004,0x404,0x10404,0x1010400,0x404,0x1000400,0x1000400,0,0x10004,0x10400,0,0x1010004];
var spfunction2 = [-0x7fef7fe0,-0x7fff8000,0x8000,0x108020,0x100000,0x20,-0x7fefffe0,-0x7fff7fe0,-0x7fffffe0,-0x7fef7fe0,-0x7fef8000,-0x80000000,-0x7fff8000,0x100000,0x20,-0x7fefffe0,0x108000,0x100020,-0x7fff7fe0,0,-0x80000000,0x8000,0x108020,-0x7ff00000,0x100020,-0x7fffffe0,0,0x108000,0x8020,-0x7fef8000,-0x7ff00000,0x8020,0,0x108020,-0x7fefffe0,0x100000,-0x7fff7fe0,-0x7ff00000,-0x7fef8000,0x8000,-0x7ff00000,-0x7fff8000,0x20,-0x7fef7fe0,0x108020,0x20,0x8000,-0x80000000,0x8020,-0x7fef8000,0x100000,-0x7fffffe0,0x100020,-0x7fff7fe0,-0x7fffffe0,0x100020,0x108000,0,-0x7fff8000,0x8020,-0x80000000,-0x7fefffe0,-0x7fef7fe0,0x108000];
var spfunction3 = [0x208,0x8020200,0,0x8020008,0x8000200,0,0x20208,0x8000200,0x20008,0x8000008,0x8000008,0x20000,0x8020208,0x20008,0x8020000,0x208,0x8000000,0x8,0x8020200,0x200,0x20200,0x8020000,0x8020008,0x20208,0x8000208,0x20200,0x20000,0x8000208,0x8,0x8020208,0x200,0x8000000,0x8020200,0x8000000,0x20008,0x208,0x20000,0x8020200,0x8000200,0,0x200,0x20008,0x8020208,0x8000200,0x8000008,0x200,0,0x8020008,0x8000208,0x20000,0x8000000,0x8020208,0x8,0x20208,0x20200,0x8000008,0x8020000,0x8000208,0x208,0x8020000,0x20208,0x8,0x8020008,0x20200];
var spfunction4 = [0x802001,0x2081,0x2081,0x80,0x802080,0x800081,0x800001,0x2001,0,0x802000,0x802000,0x802081,0x81,0,0x800080,0x800001,0x1,0x2000,0x800000,0x802001,0x80,0x800000,0x2001,0x2080,0x800081,0x1,0x2080,0x800080,0x2000,0x802080,0x802081,0x81,0x800080,0x800001,0x802000,0x802081,0x81,0,0,0x802000,0x2080,0x800080,0x800081,0x1,0x802001,0x2081,0x2081,0x80,0x802081,0x81,0x1,0x2000,0x800001,0x2001,0x802080,0x800081,0x2001,0x2080,0x800000,0x802001,0x80,0x800000,0x2000,0x802080];
var spfunction5 = [0x100,0x2080100,0x2080000,0x42000100,0x80000,0x100,0x40000000,0x2080000,0x40080100,0x80000,0x2000100,0x40080100,0x42000100,0x42080000,0x80100,0x40000000,0x2000000,0x40080000,0x40080000,0,0x40000100,0x42080100,0x42080100,0x2000100,0x42080000,0x40000100,0,0x42000000,0x2080100,0x2000000,0x42000000,0x80100,0x80000,0x42000100,0x100,0x2000000,0x40000000,0x2080000,0x42000100,0x40080100,0x2000100,0x40000000,0x42080000,0x2080100,0x40080100,0x100,0x2000000,0x42080000,0x42080100,0x80100,0x42000000,0x42080100,0x2080000,0,0x40080000,0x42000000,0x80100,0x2000100,0x40000100,0x80000,0,0x40080000,0x2080100,0x40000100];
var spfunction6 = [0x20000010,0x20400000,0x4000,0x20404010,0x20400000,0x10,0x20404010,0x400000,0x20004000,0x404010,0x400000,0x20000010,0x400010,0x20004000,0x20000000,0x4010,0,0x400010,0x20004010,0x4000,0x404000,0x20004010,0x10,0x20400010,0x20400010,0,0x404010,0x20404000,0x4010,0x404000,0x20404000,0x20000000,0x20004000,0x10,0x20400010,0x404000,0x20404010,0x400000,0x4010,0x20000010,0x400000,0x20004000,0x20000000,0x4010,0x20000010,0x20404010,0x404000,0x20400000,0x404010,0x20404000,0,0x20400010,0x10,0x4000,0x20400000,0x404010,0x4000,0x400010,0x20004010,0,0x20404000,0x20000000,0x400010,0x20004010];
var spfunction7 = [0x200000,0x4200002,0x4000802,0,0x800,0x4000802,0x200802,0x4200800,0x4200802,0x200000,0,0x4000002,0x2,0x4000000,0x4200002,0x802,0x4000800,0x200802,0x200002,0x4000800,0x4000002,0x4200000,0x4200800,0x200002,0x4200000,0x800,0x802,0x4200802,0x200800,0x2,0x4000000,0x200800,0x4000000,0x200800,0x200000,0x4000802,0x4000802,0x4200002,0x4200002,0x2,0x200002,0x4000000,0x4000800,0x200000,0x4200800,0x802,0x200802,0x4200800,0x802,0x4000002,0x4200802,0x4200000,0x200800,0,0x2,0x4200802,0,0x200802,0x4200000,0x800,0x4000002,0x4000800,0x800,0x200002];
var spfunction8 = [0x10001040,0x1000,0x40000,0x10041040,0x10000000,0x10001040,0x40,0x10000000,0x40040,0x10040000,0x10041040,0x41000,0x10041000,0x41040,0x1000,0x40,0x10040000,0x10000040,0x10001000,0x1040,0x41000,0x40040,0x10040040,0x10041000,0x1040,0,0,0x10040040,0x10000040,0x10001000,0x41040,0x40000,0x41040,0x40000,0x10041000,0x1000,0x40,0x10040040,0x1000,0x41040,0x10001000,0x40,0x10000040,0x10040000,0x10040040,0x10000000,0x40000,0x10001040,0,0x10041040,0x40040,0x10000040,0x10040000,0x10001000,0x10001040,0,0x10041040,0x41000,0x41000,0x1040,0x1040,0x40040,0x10000000,0x10041000];
/**
* Create necessary sub keys.
*
* @param key the 64-bit or 192-bit key.
*
* @return the expanded keys.
*/
function _createKeys(key) {
var pc2bytes0 = [0,0x4,0x20000000,0x20000004,0x10000,0x10004,0x20010000,0x20010004,0x200,0x204,0x20000200,0x20000204,0x10200,0x10204,0x20010200,0x20010204],
pc2bytes1 = [0,0x1,0x100000,0x100001,0x4000000,0x4000001,0x4100000,0x4100001,0x100,0x101,0x100100,0x100101,0x4000100,0x4000101,0x4100100,0x4100101],
pc2bytes2 = [0,0x8,0x800,0x808,0x1000000,0x1000008,0x1000800,0x1000808,0,0x8,0x800,0x808,0x1000000,0x1000008,0x1000800,0x1000808],
pc2bytes3 = [0,0x200000,0x8000000,0x8200000,0x2000,0x202000,0x8002000,0x8202000,0x20000,0x220000,0x8020000,0x8220000,0x22000,0x222000,0x8022000,0x8222000],
pc2bytes4 = [0,0x40000,0x10,0x40010,0,0x40000,0x10,0x40010,0x1000,0x41000,0x1010,0x41010,0x1000,0x41000,0x1010,0x41010],
pc2bytes5 = [0,0x400,0x20,0x420,0,0x400,0x20,0x420,0x2000000,0x2000400,0x2000020,0x2000420,0x2000000,0x2000400,0x2000020,0x2000420],
pc2bytes6 = [0,0x10000000,0x80000,0x10080000,0x2,0x10000002,0x80002,0x10080002,0,0x10000000,0x80000,0x10080000,0x2,0x10000002,0x80002,0x10080002],
pc2bytes7 = [0,0x10000,0x800,0x10800,0x20000000,0x20010000,0x20000800,0x20010800,0x20000,0x30000,0x20800,0x30800,0x20020000,0x20030000,0x20020800,0x20030800],
pc2bytes8 = [0,0x40000,0,0x40000,0x2,0x40002,0x2,0x40002,0x2000000,0x2040000,0x2000000,0x2040000,0x2000002,0x2040002,0x2000002,0x2040002],
pc2bytes9 = [0,0x10000000,0x8,0x10000008,0,0x10000000,0x8,0x10000008,0x400,0x10000400,0x408,0x10000408,0x400,0x10000400,0x408,0x10000408],
pc2bytes10 = [0,0x20,0,0x20,0x100000,0x100020,0x100000,0x100020,0x2000,0x2020,0x2000,0x2020,0x102000,0x102020,0x102000,0x102020],
pc2bytes11 = [0,0x1000000,0x200,0x1000200,0x200000,0x1200000,0x200200,0x1200200,0x4000000,0x5000000,0x4000200,0x5000200,0x4200000,0x5200000,0x4200200,0x5200200],
pc2bytes12 = [0,0x1000,0x8000000,0x8001000,0x80000,0x81000,0x8080000,0x8081000,0x10,0x1010,0x8000010,0x8001010,0x80010,0x81010,0x8080010,0x8081010],
pc2bytes13 = [0,0x4,0x100,0x104,0,0x4,0x100,0x104,0x1,0x5,0x101,0x105,0x1,0x5,0x101,0x105];
// how many iterations (1 for des, 3 for triple des)
// changed by Paul 16/6/2007 to use Triple DES for 9+ byte keys
var iterations = key.length() > 8 ? 3 : 1;
// stores the return keys
var keys = [];
// now define the left shifts which need to be done
var shifts = [0, 0, 1, 1, 1, 1, 1, 1, 0, 1, 1, 1, 1, 1, 1, 0];
var n = 0, tmp;
for(var j = 0; j < iterations; j++) {
var left = key.getInt32();
var right = key.getInt32();
tmp = ((left >>> 4) ^ right) & 0x0f0f0f0f;
right ^= tmp;
left ^= (tmp << 4);
tmp = ((right >>> -16) ^ left) & 0x0000ffff;
left ^= tmp;
right ^= (tmp << -16);
tmp = ((left >>> 2) ^ right) & 0x33333333;
right ^= tmp;
left ^= (tmp << 2);
tmp = ((right >>> -16) ^ left) & 0x0000ffff;
left ^= tmp;
right ^= (tmp << -16);
tmp = ((left >>> 1) ^ right) & 0x55555555;
right ^= tmp;
left ^= (tmp << 1);
tmp = ((right >>> 8) ^ left) & 0x00ff00ff;
left ^= tmp;
right ^= (tmp << 8);
tmp = ((left >>> 1) ^ right) & 0x55555555;
right ^= tmp;
left ^= (tmp << 1);
// right needs to be shifted and OR'd with last four bits of left
tmp = (left << 8) | ((right >>> 20) & 0x000000f0);
// left needs to be put upside down
left = ((right << 24) | ((right << 8) & 0xff0000) |
((right >>> 8) & 0xff00) | ((right >>> 24) & 0xf0));
right = tmp;
// now go through and perform these shifts on the left and right keys
for(var i = 0; i < shifts.length; ++i) {
//shift the keys either one or two bits to the left
if(shifts[i]) {
left = (left << 2) | (left >>> 26);
right = (right << 2) | (right >>> 26);
} else {
left = (left << 1) | (left >>> 27);
right = (right << 1) | (right >>> 27);
}
left &= -0xf;
right &= -0xf;
// now apply PC-2, in such a way that E is easier when encrypting or
// decrypting this conversion will look like PC-2 except only the last 6
// bits of each byte are used rather than 48 consecutive bits and the
// order of lines will be according to how the S selection functions will
// be applied: S2, S4, S6, S8, S1, S3, S5, S7
var lefttmp = (
pc2bytes0[left >>> 28] | pc2bytes1[(left >>> 24) & 0xf] |
pc2bytes2[(left >>> 20) & 0xf] | pc2bytes3[(left >>> 16) & 0xf] |
pc2bytes4[(left >>> 12) & 0xf] | pc2bytes5[(left >>> 8) & 0xf] |
pc2bytes6[(left >>> 4) & 0xf]);
var righttmp = (
pc2bytes7[right >>> 28] | pc2bytes8[(right >>> 24) & 0xf] |
pc2bytes9[(right >>> 20) & 0xf] | pc2bytes10[(right >>> 16) & 0xf] |
pc2bytes11[(right >>> 12) & 0xf] | pc2bytes12[(right >>> 8) & 0xf] |
pc2bytes13[(right >>> 4) & 0xf]);
tmp = ((righttmp >>> 16) ^ lefttmp) & 0x0000ffff;
keys[n++] = lefttmp ^ tmp;
keys[n++] = righttmp ^ (tmp << 16);
}
}
return keys;
}
/**
* Updates a single block (1 byte) using DES. The update will either
* encrypt or decrypt the block.
*
* @param keys the expanded keys.
* @param input the input block (an array of 32-bit words).
* @param output the updated output block.
* @param decrypt true to decrypt the block, false to encrypt it.
*/
function _updateBlock(keys, input, output, decrypt) {
// set up loops for single or triple DES
var iterations = keys.length === 32 ? 3 : 9;
var looping;
if(iterations === 3) {
looping = decrypt ? [30, -2, -2] : [0, 32, 2];
} else {
looping = (decrypt ?
[94, 62, -2, 32, 64, 2, 30, -2, -2] :
[0, 32, 2, 62, 30, -2, 64, 96, 2]);
}
var tmp;
var left = input[0];
var right = input[1];
// first each 64 bit chunk of the message must be permuted according to IP
tmp = ((left >>> 4) ^ right) & 0x0f0f0f0f;
right ^= tmp;
left ^= (tmp << 4);
tmp = ((left >>> 16) ^ right) & 0x0000ffff;
right ^= tmp;
left ^= (tmp << 16);
tmp = ((right >>> 2) ^ left) & 0x33333333;
left ^= tmp;
right ^= (tmp << 2);
tmp = ((right >>> 8) ^ left) & 0x00ff00ff;
left ^= tmp;
right ^= (tmp << 8);
tmp = ((left >>> 1) ^ right) & 0x55555555;
right ^= tmp;
left ^= (tmp << 1);
// rotate left 1 bit
left = ((left << 1) | (left >>> 31));
right = ((right << 1) | (right >>> 31));
for(var j = 0; j < iterations; j += 3) {
var endloop = looping[j + 1];
var loopinc = looping[j + 2];
// now go through and perform the encryption or decryption
for(var i = looping[j]; i != endloop; i += loopinc) {
var right1 = right ^ keys[i];
var right2 = ((right >>> 4) | (right << 28)) ^ keys[i + 1];
// passing these bytes through the S selection functions
tmp = left;
left = right;
right = tmp ^ (
spfunction2[(right1 >>> 24) & 0x3f] |
spfunction4[(right1 >>> 16) & 0x3f] |
spfunction6[(right1 >>> 8) & 0x3f] |
spfunction8[right1 & 0x3f] |
spfunction1[(right2 >>> 24) & 0x3f] |
spfunction3[(right2 >>> 16) & 0x3f] |
spfunction5[(right2 >>> 8) & 0x3f] |
spfunction7[right2 & 0x3f]);
}
// unreverse left and right
tmp = left;
left = right;
right = tmp;
}
// rotate right 1 bit
left = ((left >>> 1) | (left << 31));
right = ((right >>> 1) | (right << 31));
// now perform IP-1, which is IP in the opposite direction
tmp = ((left >>> 1) ^ right) & 0x55555555;
right ^= tmp;
left ^= (tmp << 1);
tmp = ((right >>> 8) ^ left) & 0x00ff00ff;
left ^= tmp;
right ^= (tmp << 8);
tmp = ((right >>> 2) ^ left) & 0x33333333;
left ^= tmp;
right ^= (tmp << 2);
tmp = ((left >>> 16) ^ right) & 0x0000ffff;
right ^= tmp;
left ^= (tmp << 16);
tmp = ((left >>> 4) ^ right) & 0x0f0f0f0f;
right ^= tmp;
left ^= (tmp << 4);
output[0] = left;
output[1] = right;
}
/**
* Deprecated. Instead, use:
*
* forge.cipher.createCipher('DES-<mode>', key);
* forge.cipher.createDecipher('DES-<mode>', key);
*
* Creates a deprecated DES cipher object. This object's mode will default to
* CBC (cipher-block-chaining).
*
* The key may be given as a binary-encoded string of bytes or a byte buffer.
*
* @param options the options to use.
* key the symmetric key to use (64 or 192 bits).
* output the buffer to write to.
* decrypt true for decryption, false for encryption.
* mode the cipher mode to use (default: 'CBC').
*
* @return the cipher.
*/
function _createCipher(options) {
options = options || {};
var mode = (options.mode || 'CBC').toUpperCase();
var algorithm = 'DES-' + mode;
var cipher;
if(options.decrypt) {
cipher = forge.cipher.createDecipher(algorithm, options.key);
} else {
cipher = forge.cipher.createCipher(algorithm, options.key);
}
// backwards compatible start API
var start = cipher.start;
cipher.start = function(iv, options) {
// backwards compatibility: support second arg as output buffer
var output = null;
if(options instanceof forge.util.ByteBuffer) {
output = options;
options = {};
}
options = options || {};
options.output = output;
options.iv = iv;
start.call(cipher, options);
};
return cipher;
}

996
node_modules/node-forge/lib/ed25519.js generated vendored Normal file
View File

@ -0,0 +1,996 @@
/**
* JavaScript implementation of Ed25519.
*
* Copyright (c) 2017-2018 Digital Bazaar, Inc.
*
* This implementation is based on the most excellent TweetNaCl which is
* in the public domain. Many thanks to its contributors:
*
* https://github.com/dchest/tweetnacl-js
*/
var forge = require('./forge');
require('./jsbn');
require('./random');
require('./sha512');
require('./util');
if(typeof BigInteger === 'undefined') {
var BigInteger = forge.jsbn.BigInteger;
}
var ByteBuffer = forge.util.ByteBuffer;
var NativeBuffer = typeof Buffer === 'undefined' ? Uint8Array : Buffer;
/*
* Ed25519 algorithms, see RFC 8032:
* https://tools.ietf.org/html/rfc8032
*/
forge.pki = forge.pki || {};
module.exports = forge.pki.ed25519 = forge.ed25519 = forge.ed25519 || {};
var ed25519 = forge.ed25519;
ed25519.constants = {};
ed25519.constants.PUBLIC_KEY_BYTE_LENGTH = 32;
ed25519.constants.PRIVATE_KEY_BYTE_LENGTH = 64;
ed25519.constants.SEED_BYTE_LENGTH = 32;
ed25519.constants.SIGN_BYTE_LENGTH = 64;
ed25519.constants.HASH_BYTE_LENGTH = 64;
ed25519.generateKeyPair = function(options) {
options = options || {};
var seed = options.seed;
if(seed === undefined) {
// generate seed
seed = forge.random.getBytesSync(ed25519.constants.SEED_BYTE_LENGTH);
} else if(typeof seed === 'string') {
if(seed.length !== ed25519.constants.SEED_BYTE_LENGTH) {
throw new TypeError(
'"seed" must be ' + ed25519.constants.SEED_BYTE_LENGTH +
' bytes in length.');
}
} else if(!(seed instanceof Uint8Array)) {
throw new TypeError(
'"seed" must be a node.js Buffer, Uint8Array, or a binary string.');
}
seed = messageToNativeBuffer({message: seed, encoding: 'binary'});
var pk = new NativeBuffer(ed25519.constants.PUBLIC_KEY_BYTE_LENGTH);
var sk = new NativeBuffer(ed25519.constants.PRIVATE_KEY_BYTE_LENGTH);
for(var i = 0; i < 32; ++i) {
sk[i] = seed[i];
}
crypto_sign_keypair(pk, sk);
return {publicKey: pk, privateKey: sk};
};
ed25519.publicKeyFromPrivateKey = function(options) {
options = options || {};
var privateKey = messageToNativeBuffer({
message: options.privateKey, encoding: 'binary'
});
if(privateKey.length !== ed25519.constants.PRIVATE_KEY_BYTE_LENGTH) {
throw new TypeError(
'"options.privateKey" must have a byte length of ' +
ed25519.constants.PRIVATE_KEY_BYTE_LENGTH);
}
var pk = new NativeBuffer(ed25519.constants.PUBLIC_KEY_BYTE_LENGTH);
for(var i = 0; i < pk.length; ++i) {
pk[i] = privateKey[32 + i];
}
return pk;
};
ed25519.sign = function(options) {
options = options || {};
var msg = messageToNativeBuffer(options);
var privateKey = messageToNativeBuffer({
message: options.privateKey,
encoding: 'binary'
});
if(privateKey.length !== ed25519.constants.PRIVATE_KEY_BYTE_LENGTH) {
throw new TypeError(
'"options.privateKey" must have a byte length of ' +
ed25519.constants.PRIVATE_KEY_BYTE_LENGTH);
}
var signedMsg = new NativeBuffer(
ed25519.constants.SIGN_BYTE_LENGTH + msg.length);
crypto_sign(signedMsg, msg, msg.length, privateKey);
var sig = new NativeBuffer(ed25519.constants.SIGN_BYTE_LENGTH);
for(var i = 0; i < sig.length; ++i) {
sig[i] = signedMsg[i];
}
return sig;
};
ed25519.verify = function(options) {
options = options || {};
var msg = messageToNativeBuffer(options);
if(options.signature === undefined) {
throw new TypeError(
'"options.signature" must be a node.js Buffer, a Uint8Array, a forge ' +
'ByteBuffer, or a binary string.');
}
var sig = messageToNativeBuffer({
message: options.signature,
encoding: 'binary'
});
if(sig.length !== ed25519.constants.SIGN_BYTE_LENGTH) {
throw new TypeError(
'"options.signature" must have a byte length of ' +
ed25519.constants.SIGN_BYTE_LENGTH);
}
var publicKey = messageToNativeBuffer({
message: options.publicKey,
encoding: 'binary'
});
if(publicKey.length !== ed25519.constants.PUBLIC_KEY_BYTE_LENGTH) {
throw new TypeError(
'"options.publicKey" must have a byte length of ' +
ed25519.constants.PUBLIC_KEY_BYTE_LENGTH);
}
var sm = new NativeBuffer(ed25519.constants.SIGN_BYTE_LENGTH + msg.length);
var m = new NativeBuffer(ed25519.constants.SIGN_BYTE_LENGTH + msg.length);
var i;
for(i = 0; i < ed25519.constants.SIGN_BYTE_LENGTH; ++i) {
sm[i] = sig[i];
}
for(i = 0; i < msg.length; ++i) {
sm[i + ed25519.constants.SIGN_BYTE_LENGTH] = msg[i];
}
return (crypto_sign_open(m, sm, sm.length, publicKey) >= 0);
};
function messageToNativeBuffer(options) {
var message = options.message;
if(message instanceof Uint8Array) {
return message;
}
var encoding = options.encoding;
if(message === undefined) {
if(options.md) {
// TODO: more rigorous validation that `md` is a MessageDigest
message = options.md.digest().getBytes();
encoding = 'binary';
} else {
throw new TypeError('"options.message" or "options.md" not specified.');
}
}
if(typeof message === 'string' && !encoding) {
throw new TypeError('"options.encoding" must be "binary" or "utf8".');
}
if(typeof message === 'string') {
if(typeof Buffer !== 'undefined') {
return new Buffer(message, encoding);
}
message = new ByteBuffer(message, encoding);
} else if(!(message instanceof ByteBuffer)) {
throw new TypeError(
'"options.message" must be a node.js Buffer, a Uint8Array, a forge ' +
'ByteBuffer, or a string with "options.encoding" specifying its ' +
'encoding.');
}
// convert to native buffer
var buffer = new NativeBuffer(message.length());
for(var i = 0; i < buffer.length; ++i) {
buffer[i] = message.at(i);
}
return buffer;
}
var gf0 = gf();
var gf1 = gf([1]);
var D = gf([
0x78a3, 0x1359, 0x4dca, 0x75eb, 0xd8ab, 0x4141, 0x0a4d, 0x0070,
0xe898, 0x7779, 0x4079, 0x8cc7, 0xfe73, 0x2b6f, 0x6cee, 0x5203]);
var D2 = gf([
0xf159, 0x26b2, 0x9b94, 0xebd6, 0xb156, 0x8283, 0x149a, 0x00e0,
0xd130, 0xeef3, 0x80f2, 0x198e, 0xfce7, 0x56df, 0xd9dc, 0x2406]);
var X = gf([
0xd51a, 0x8f25, 0x2d60, 0xc956, 0xa7b2, 0x9525, 0xc760, 0x692c,
0xdc5c, 0xfdd6, 0xe231, 0xc0a4, 0x53fe, 0xcd6e, 0x36d3, 0x2169]);
var Y = gf([
0x6658, 0x6666, 0x6666, 0x6666, 0x6666, 0x6666, 0x6666, 0x6666,
0x6666, 0x6666, 0x6666, 0x6666, 0x6666, 0x6666, 0x6666, 0x6666]);
var L = new Float64Array([
0xed, 0xd3, 0xf5, 0x5c, 0x1a, 0x63, 0x12, 0x58,
0xd6, 0x9c, 0xf7, 0xa2, 0xde, 0xf9, 0xde, 0x14,
0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0x10]);
var I = gf([
0xa0b0, 0x4a0e, 0x1b27, 0xc4ee, 0xe478, 0xad2f, 0x1806, 0x2f43,
0xd7a7, 0x3dfb, 0x0099, 0x2b4d, 0xdf0b, 0x4fc1, 0x2480, 0x2b83]);
// TODO: update forge buffer implementation to use `Buffer` or `Uint8Array`,
// whichever is available, to improve performance
function sha512(msg, msgLen) {
// Note: `out` and `msg` are NativeBuffer
var md = forge.md.sha512.create();
var buffer = new ByteBuffer(msg);
md.update(buffer.getBytes(msgLen), 'binary');
const hash = md.digest().getBytes();
if(typeof Buffer !== 'undefined') {
return new Buffer(hash, 'binary');
}
var out = new NativeBuffer(ed25519.constants.HASH_BYTE_LENGTH);
for(var i = 0; i < 64; ++i) {
out[i] = hash.charCodeAt(i);
}
return out;
}
function crypto_sign_keypair(pk, sk) {
var p = [gf(), gf(), gf(), gf()];
var i;
var d = sha512(sk, 32);
d[0] &= 248;
d[31] &= 127;
d[31] |= 64;
scalarbase(p, d);
pack(pk, p);
for(i = 0; i < 32; ++i) {
sk[i + 32] = pk[i];
}
return 0;
}
// Note: difference from C - smlen returned, not passed as argument.
function crypto_sign(sm, m, n, sk) {
var i, j, x = new Float64Array(64);
var p = [gf(), gf(), gf(), gf()];
var d = sha512(sk, 32);
d[0] &= 248;
d[31] &= 127;
d[31] |= 64;
var smlen = n + 64;
for(i = 0; i < n; ++i) {
sm[64 + i] = m[i];
}
for(i = 0; i < 32; ++i) {
sm[32 + i] = d[32 + i];
}
var r = sha512(sm.subarray(32), n + 32);
reduce(r);
scalarbase(p, r);
pack(sm, p);
for(i = 32; i < 64; ++i) {
sm[i] = sk[i];
}
var h = sha512(sm, n + 64);
reduce(h);
for(i = 32; i < 64; ++i) {
x[i] = 0;
}
for(i = 0; i < 32; ++i) {
x[i] = r[i];
}
for(i = 0; i < 32; ++i) {
for(j = 0; j < 32; j++) {
x[i + j] += h[i] * d[j];
}
}
modL(sm.subarray(32), x);
return smlen;
}
function crypto_sign_open(m, sm, n, pk) {
var i, mlen;
var t = new NativeBuffer(32);
var p = [gf(), gf(), gf(), gf()],
q = [gf(), gf(), gf(), gf()];
mlen = -1;
if(n < 64) {
return -1;
}
if(unpackneg(q, pk)) {
return -1;
}
for(i = 0; i < n; ++i) {
m[i] = sm[i];
}
for(i = 0; i < 32; ++i) {
m[i + 32] = pk[i];
}
var h = sha512(m, n);
reduce(h);
scalarmult(p, q, h);
scalarbase(q, sm.subarray(32));
add(p, q);
pack(t, p);
n -= 64;
if(crypto_verify_32(sm, 0, t, 0)) {
for(i = 0; i < n; ++i) {
m[i] = 0;
}
return -1;
}
for(i = 0; i < n; ++i) {
m[i] = sm[i + 64];
}
mlen = n;
return mlen;
}
function modL(r, x) {
var carry, i, j, k;
for(i = 63; i >= 32; --i) {
carry = 0;
for(j = i - 32, k = i - 12; j < k; ++j) {
x[j] += carry - 16 * x[i] * L[j - (i - 32)];
carry = (x[j] + 128) >> 8;
x[j] -= carry * 256;
}
x[j] += carry;
x[i] = 0;
}
carry = 0;
for(j = 0; j < 32; ++j) {
x[j] += carry - (x[31] >> 4) * L[j];
carry = x[j] >> 8;
x[j] &= 255;
}
for(j = 0; j < 32; ++j) {
x[j] -= carry * L[j];
}
for(i = 0; i < 32; ++i) {
x[i + 1] += x[i] >> 8;
r[i] = x[i] & 255;
}
}
function reduce(r) {
var x = new Float64Array(64);
for(var i = 0; i < 64; ++i) {
x[i] = r[i];
r[i] = 0;
}
modL(r, x);
}
function add(p, q) {
var a = gf(), b = gf(), c = gf(),
d = gf(), e = gf(), f = gf(),
g = gf(), h = gf(), t = gf();
Z(a, p[1], p[0]);
Z(t, q[1], q[0]);
M(a, a, t);
A(b, p[0], p[1]);
A(t, q[0], q[1]);
M(b, b, t);
M(c, p[3], q[3]);
M(c, c, D2);
M(d, p[2], q[2]);
A(d, d, d);
Z(e, b, a);
Z(f, d, c);
A(g, d, c);
A(h, b, a);
M(p[0], e, f);
M(p[1], h, g);
M(p[2], g, f);
M(p[3], e, h);
}
function cswap(p, q, b) {
for(var i = 0; i < 4; ++i) {
sel25519(p[i], q[i], b);
}
}
function pack(r, p) {
var tx = gf(), ty = gf(), zi = gf();
inv25519(zi, p[2]);
M(tx, p[0], zi);
M(ty, p[1], zi);
pack25519(r, ty);
r[31] ^= par25519(tx) << 7;
}
function pack25519(o, n) {
var i, j, b;
var m = gf(), t = gf();
for(i = 0; i < 16; ++i) {
t[i] = n[i];
}
car25519(t);
car25519(t);
car25519(t);
for(j = 0; j < 2; ++j) {
m[0] = t[0] - 0xffed;
for(i = 1; i < 15; ++i) {
m[i] = t[i] - 0xffff - ((m[i - 1] >> 16) & 1);
m[i-1] &= 0xffff;
}
m[15] = t[15] - 0x7fff - ((m[14] >> 16) & 1);
b = (m[15] >> 16) & 1;
m[14] &= 0xffff;
sel25519(t, m, 1 - b);
}
for (i = 0; i < 16; i++) {
o[2 * i] = t[i] & 0xff;
o[2 * i + 1] = t[i] >> 8;
}
}
function unpackneg(r, p) {
var t = gf(), chk = gf(), num = gf(),
den = gf(), den2 = gf(), den4 = gf(),
den6 = gf();
set25519(r[2], gf1);
unpack25519(r[1], p);
S(num, r[1]);
M(den, num, D);
Z(num, num, r[2]);
A(den, r[2], den);
S(den2, den);
S(den4, den2);
M(den6, den4, den2);
M(t, den6, num);
M(t, t, den);
pow2523(t, t);
M(t, t, num);
M(t, t, den);
M(t, t, den);
M(r[0], t, den);
S(chk, r[0]);
M(chk, chk, den);
if(neq25519(chk, num)) {
M(r[0], r[0], I);
}
S(chk, r[0]);
M(chk, chk, den);
if(neq25519(chk, num)) {
return -1;
}
if(par25519(r[0]) === (p[31] >> 7)) {
Z(r[0], gf0, r[0]);
}
M(r[3], r[0], r[1]);
return 0;
}
function unpack25519(o, n) {
var i;
for(i = 0; i < 16; ++i) {
o[i] = n[2 * i] + (n[2 * i + 1] << 8);
}
o[15] &= 0x7fff;
}
function pow2523(o, i) {
var c = gf();
var a;
for(a = 0; a < 16; ++a) {
c[a] = i[a];
}
for(a = 250; a >= 0; --a) {
S(c, c);
if(a !== 1) {
M(c, c, i);
}
}
for(a = 0; a < 16; ++a) {
o[a] = c[a];
}
}
function neq25519(a, b) {
var c = new NativeBuffer(32);
var d = new NativeBuffer(32);
pack25519(c, a);
pack25519(d, b);
return crypto_verify_32(c, 0, d, 0);
}
function crypto_verify_32(x, xi, y, yi) {
return vn(x, xi, y, yi, 32);
}
function vn(x, xi, y, yi, n) {
var i, d = 0;
for(i = 0; i < n; ++i) {
d |= x[xi + i] ^ y[yi + i];
}
return (1 & ((d - 1) >>> 8)) - 1;
}
function par25519(a) {
var d = new NativeBuffer(32);
pack25519(d, a);
return d[0] & 1;
}
function scalarmult(p, q, s) {
var b, i;
set25519(p[0], gf0);
set25519(p[1], gf1);
set25519(p[2], gf1);
set25519(p[3], gf0);
for(i = 255; i >= 0; --i) {
b = (s[(i / 8)|0] >> (i & 7)) & 1;
cswap(p, q, b);
add(q, p);
add(p, p);
cswap(p, q, b);
}
}
function scalarbase(p, s) {
var q = [gf(), gf(), gf(), gf()];
set25519(q[0], X);
set25519(q[1], Y);
set25519(q[2], gf1);
M(q[3], X, Y);
scalarmult(p, q, s);
}
function set25519(r, a) {
var i;
for(i = 0; i < 16; i++) {
r[i] = a[i] | 0;
}
}
function inv25519(o, i) {
var c = gf();
var a;
for(a = 0; a < 16; ++a) {
c[a] = i[a];
}
for(a = 253; a >= 0; --a) {
S(c, c);
if(a !== 2 && a !== 4) {
M(c, c, i);
}
}
for(a = 0; a < 16; ++a) {
o[a] = c[a];
}
}
function car25519(o) {
var i, v, c = 1;
for(i = 0; i < 16; ++i) {
v = o[i] + c + 65535;
c = Math.floor(v / 65536);
o[i] = v - c * 65536;
}
o[0] += c - 1 + 37 * (c - 1);
}
function sel25519(p, q, b) {
var t, c = ~(b - 1);
for(var i = 0; i < 16; ++i) {
t = c & (p[i] ^ q[i]);
p[i] ^= t;
q[i] ^= t;
}
}
function gf(init) {
var i, r = new Float64Array(16);
if(init) {
for(i = 0; i < init.length; ++i) {
r[i] = init[i];
}
}
return r;
}
function A(o, a, b) {
for(var i = 0; i < 16; ++i) {
o[i] = a[i] + b[i];
}
}
function Z(o, a, b) {
for(var i = 0; i < 16; ++i) {
o[i] = a[i] - b[i];
}
}
function S(o, a) {
M(o, a, a);
}
function M(o, a, b) {
var v, c,
t0 = 0, t1 = 0, t2 = 0, t3 = 0, t4 = 0, t5 = 0, t6 = 0, t7 = 0,
t8 = 0, t9 = 0, t10 = 0, t11 = 0, t12 = 0, t13 = 0, t14 = 0, t15 = 0,
t16 = 0, t17 = 0, t18 = 0, t19 = 0, t20 = 0, t21 = 0, t22 = 0, t23 = 0,
t24 = 0, t25 = 0, t26 = 0, t27 = 0, t28 = 0, t29 = 0, t30 = 0,
b0 = b[0],
b1 = b[1],
b2 = b[2],
b3 = b[3],
b4 = b[4],
b5 = b[5],
b6 = b[6],
b7 = b[7],
b8 = b[8],
b9 = b[9],
b10 = b[10],
b11 = b[11],
b12 = b[12],
b13 = b[13],
b14 = b[14],
b15 = b[15];
v = a[0];
t0 += v * b0;
t1 += v * b1;
t2 += v * b2;
t3 += v * b3;
t4 += v * b4;
t5 += v * b5;
t6 += v * b6;
t7 += v * b7;
t8 += v * b8;
t9 += v * b9;
t10 += v * b10;
t11 += v * b11;
t12 += v * b12;
t13 += v * b13;
t14 += v * b14;
t15 += v * b15;
v = a[1];
t1 += v * b0;
t2 += v * b1;
t3 += v * b2;
t4 += v * b3;
t5 += v * b4;
t6 += v * b5;
t7 += v * b6;
t8 += v * b7;
t9 += v * b8;
t10 += v * b9;
t11 += v * b10;
t12 += v * b11;
t13 += v * b12;
t14 += v * b13;
t15 += v * b14;
t16 += v * b15;
v = a[2];
t2 += v * b0;
t3 += v * b1;
t4 += v * b2;
t5 += v * b3;
t6 += v * b4;
t7 += v * b5;
t8 += v * b6;
t9 += v * b7;
t10 += v * b8;
t11 += v * b9;
t12 += v * b10;
t13 += v * b11;
t14 += v * b12;
t15 += v * b13;
t16 += v * b14;
t17 += v * b15;
v = a[3];
t3 += v * b0;
t4 += v * b1;
t5 += v * b2;
t6 += v * b3;
t7 += v * b4;
t8 += v * b5;
t9 += v * b6;
t10 += v * b7;
t11 += v * b8;
t12 += v * b9;
t13 += v * b10;
t14 += v * b11;
t15 += v * b12;
t16 += v * b13;
t17 += v * b14;
t18 += v * b15;
v = a[4];
t4 += v * b0;
t5 += v * b1;
t6 += v * b2;
t7 += v * b3;
t8 += v * b4;
t9 += v * b5;
t10 += v * b6;
t11 += v * b7;
t12 += v * b8;
t13 += v * b9;
t14 += v * b10;
t15 += v * b11;
t16 += v * b12;
t17 += v * b13;
t18 += v * b14;
t19 += v * b15;
v = a[5];
t5 += v * b0;
t6 += v * b1;
t7 += v * b2;
t8 += v * b3;
t9 += v * b4;
t10 += v * b5;
t11 += v * b6;
t12 += v * b7;
t13 += v * b8;
t14 += v * b9;
t15 += v * b10;
t16 += v * b11;
t17 += v * b12;
t18 += v * b13;
t19 += v * b14;
t20 += v * b15;
v = a[6];
t6 += v * b0;
t7 += v * b1;
t8 += v * b2;
t9 += v * b3;
t10 += v * b4;
t11 += v * b5;
t12 += v * b6;
t13 += v * b7;
t14 += v * b8;
t15 += v * b9;
t16 += v * b10;
t17 += v * b11;
t18 += v * b12;
t19 += v * b13;
t20 += v * b14;
t21 += v * b15;
v = a[7];
t7 += v * b0;
t8 += v * b1;
t9 += v * b2;
t10 += v * b3;
t11 += v * b4;
t12 += v * b5;
t13 += v * b6;
t14 += v * b7;
t15 += v * b8;
t16 += v * b9;
t17 += v * b10;
t18 += v * b11;
t19 += v * b12;
t20 += v * b13;
t21 += v * b14;
t22 += v * b15;
v = a[8];
t8 += v * b0;
t9 += v * b1;
t10 += v * b2;
t11 += v * b3;
t12 += v * b4;
t13 += v * b5;
t14 += v * b6;
t15 += v * b7;
t16 += v * b8;
t17 += v * b9;
t18 += v * b10;
t19 += v * b11;
t20 += v * b12;
t21 += v * b13;
t22 += v * b14;
t23 += v * b15;
v = a[9];
t9 += v * b0;
t10 += v * b1;
t11 += v * b2;
t12 += v * b3;
t13 += v * b4;
t14 += v * b5;
t15 += v * b6;
t16 += v * b7;
t17 += v * b8;
t18 += v * b9;
t19 += v * b10;
t20 += v * b11;
t21 += v * b12;
t22 += v * b13;
t23 += v * b14;
t24 += v * b15;
v = a[10];
t10 += v * b0;
t11 += v * b1;
t12 += v * b2;
t13 += v * b3;
t14 += v * b4;
t15 += v * b5;
t16 += v * b6;
t17 += v * b7;
t18 += v * b8;
t19 += v * b9;
t20 += v * b10;
t21 += v * b11;
t22 += v * b12;
t23 += v * b13;
t24 += v * b14;
t25 += v * b15;
v = a[11];
t11 += v * b0;
t12 += v * b1;
t13 += v * b2;
t14 += v * b3;
t15 += v * b4;
t16 += v * b5;
t17 += v * b6;
t18 += v * b7;
t19 += v * b8;
t20 += v * b9;
t21 += v * b10;
t22 += v * b11;
t23 += v * b12;
t24 += v * b13;
t25 += v * b14;
t26 += v * b15;
v = a[12];
t12 += v * b0;
t13 += v * b1;
t14 += v * b2;
t15 += v * b3;
t16 += v * b4;
t17 += v * b5;
t18 += v * b6;
t19 += v * b7;
t20 += v * b8;
t21 += v * b9;
t22 += v * b10;
t23 += v * b11;
t24 += v * b12;
t25 += v * b13;
t26 += v * b14;
t27 += v * b15;
v = a[13];
t13 += v * b0;
t14 += v * b1;
t15 += v * b2;
t16 += v * b3;
t17 += v * b4;
t18 += v * b5;
t19 += v * b6;
t20 += v * b7;
t21 += v * b8;
t22 += v * b9;
t23 += v * b10;
t24 += v * b11;
t25 += v * b12;
t26 += v * b13;
t27 += v * b14;
t28 += v * b15;
v = a[14];
t14 += v * b0;
t15 += v * b1;
t16 += v * b2;
t17 += v * b3;
t18 += v * b4;
t19 += v * b5;
t20 += v * b6;
t21 += v * b7;
t22 += v * b8;
t23 += v * b9;
t24 += v * b10;
t25 += v * b11;
t26 += v * b12;
t27 += v * b13;
t28 += v * b14;
t29 += v * b15;
v = a[15];
t15 += v * b0;
t16 += v * b1;
t17 += v * b2;
t18 += v * b3;
t19 += v * b4;
t20 += v * b5;
t21 += v * b6;
t22 += v * b7;
t23 += v * b8;
t24 += v * b9;
t25 += v * b10;
t26 += v * b11;
t27 += v * b12;
t28 += v * b13;
t29 += v * b14;
t30 += v * b15;
t0 += 38 * t16;
t1 += 38 * t17;
t2 += 38 * t18;
t3 += 38 * t19;
t4 += 38 * t20;
t5 += 38 * t21;
t6 += 38 * t22;
t7 += 38 * t23;
t8 += 38 * t24;
t9 += 38 * t25;
t10 += 38 * t26;
t11 += 38 * t27;
t12 += 38 * t28;
t13 += 38 * t29;
t14 += 38 * t30;
// t15 left as is
// first car
c = 1;
v = t0 + c + 65535; c = Math.floor(v / 65536); t0 = v - c * 65536;
v = t1 + c + 65535; c = Math.floor(v / 65536); t1 = v - c * 65536;
v = t2 + c + 65535; c = Math.floor(v / 65536); t2 = v - c * 65536;
v = t3 + c + 65535; c = Math.floor(v / 65536); t3 = v - c * 65536;
v = t4 + c + 65535; c = Math.floor(v / 65536); t4 = v - c * 65536;
v = t5 + c + 65535; c = Math.floor(v / 65536); t5 = v - c * 65536;
v = t6 + c + 65535; c = Math.floor(v / 65536); t6 = v - c * 65536;
v = t7 + c + 65535; c = Math.floor(v / 65536); t7 = v - c * 65536;
v = t8 + c + 65535; c = Math.floor(v / 65536); t8 = v - c * 65536;
v = t9 + c + 65535; c = Math.floor(v / 65536); t9 = v - c * 65536;
v = t10 + c + 65535; c = Math.floor(v / 65536); t10 = v - c * 65536;
v = t11 + c + 65535; c = Math.floor(v / 65536); t11 = v - c * 65536;
v = t12 + c + 65535; c = Math.floor(v / 65536); t12 = v - c * 65536;
v = t13 + c + 65535; c = Math.floor(v / 65536); t13 = v - c * 65536;
v = t14 + c + 65535; c = Math.floor(v / 65536); t14 = v - c * 65536;
v = t15 + c + 65535; c = Math.floor(v / 65536); t15 = v - c * 65536;
t0 += c-1 + 37 * (c-1);
// second car
c = 1;
v = t0 + c + 65535; c = Math.floor(v / 65536); t0 = v - c * 65536;
v = t1 + c + 65535; c = Math.floor(v / 65536); t1 = v - c * 65536;
v = t2 + c + 65535; c = Math.floor(v / 65536); t2 = v - c * 65536;
v = t3 + c + 65535; c = Math.floor(v / 65536); t3 = v - c * 65536;
v = t4 + c + 65535; c = Math.floor(v / 65536); t4 = v - c * 65536;
v = t5 + c + 65535; c = Math.floor(v / 65536); t5 = v - c * 65536;
v = t6 + c + 65535; c = Math.floor(v / 65536); t6 = v - c * 65536;
v = t7 + c + 65535; c = Math.floor(v / 65536); t7 = v - c * 65536;
v = t8 + c + 65535; c = Math.floor(v / 65536); t8 = v - c * 65536;
v = t9 + c + 65535; c = Math.floor(v / 65536); t9 = v - c * 65536;
v = t10 + c + 65535; c = Math.floor(v / 65536); t10 = v - c * 65536;
v = t11 + c + 65535; c = Math.floor(v / 65536); t11 = v - c * 65536;
v = t12 + c + 65535; c = Math.floor(v / 65536); t12 = v - c * 65536;
v = t13 + c + 65535; c = Math.floor(v / 65536); t13 = v - c * 65536;
v = t14 + c + 65535; c = Math.floor(v / 65536); t14 = v - c * 65536;
v = t15 + c + 65535; c = Math.floor(v / 65536); t15 = v - c * 65536;
t0 += c-1 + 37 * (c-1);
o[ 0] = t0;
o[ 1] = t1;
o[ 2] = t2;
o[ 3] = t3;
o[ 4] = t4;
o[ 5] = t5;
o[ 6] = t6;
o[ 7] = t7;
o[ 8] = t8;
o[ 9] = t9;
o[10] = t10;
o[11] = t11;
o[12] = t12;
o[13] = t13;
o[14] = t14;
o[15] = t15;
}

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/**
* Node.js module for Forge.
*
* @author Dave Longley
*
* Copyright 2011-2016 Digital Bazaar, Inc.
*/
module.exports = {
// default options
options: {
usePureJavaScript: false
}
};

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/**
* Functions for manipulating web forms.
*
* @author David I. Lehn <dlehn@digitalbazaar.com>
* @author Dave Longley
* @author Mike Johnson
*
* Copyright (c) 2011-2014 Digital Bazaar, Inc. All rights reserved.
*/
var forge = require('./forge');
/* Form API */
var form = module.exports = forge.form = forge.form || {};
(function($) {
/**
* Regex for parsing a single name property (handles array brackets).
*/
var _regex = /([^\[]*?)\[(.*?)\]/g;
/**
* Parses a single name property into an array with the name and any
* array indices.
*
* @param name the name to parse.
*
* @return the array of the name and its array indices in order.
*/
var _parseName = function(name) {
var rval = [];
var matches;
while(!!(matches = _regex.exec(name))) {
if(matches[1].length > 0) {
rval.push(matches[1]);
}
if(matches.length >= 2) {
rval.push(matches[2]);
}
}
if(rval.length === 0) {
rval.push(name);
}
return rval;
};
/**
* Adds a field from the given form to the given object.
*
* @param obj the object.
* @param names the field as an array of object property names.
* @param value the value of the field.
* @param dict a dictionary of names to replace.
*/
var _addField = function(obj, names, value, dict) {
// combine array names that fall within square brackets
var tmp = [];
for(var i = 0; i < names.length; ++i) {
// check name for starting square bracket but no ending one
var name = names[i];
if(name.indexOf('[') !== -1 && name.indexOf(']') === -1 &&
i < names.length - 1) {
do {
name += '.' + names[++i];
} while(i < names.length - 1 && names[i].indexOf(']') === -1);
}
tmp.push(name);
}
names = tmp;
// split out array indexes
var tmp = [];
$.each(names, function(n, name) {
tmp = tmp.concat(_parseName(name));
});
names = tmp;
// iterate over object property names until value is set
$.each(names, function(n, name) {
// do dictionary name replacement
if(dict && name.length !== 0 && name in dict) {
name = dict[name];
}
// blank name indicates appending to an array, set name to
// new last index of array
if(name.length === 0) {
name = obj.length;
}
// value already exists, append value
if(obj[name]) {
// last name in the field
if(n == names.length - 1) {
// more than one value, so convert into an array
if(!$.isArray(obj[name])) {
obj[name] = [obj[name]];
}
obj[name].push(value);
} else {
// not last name, go deeper into object
obj = obj[name];
}
} else if(n == names.length - 1) {
// new value, last name in the field, set value
obj[name] = value;
} else {
// new value, not last name, go deeper
// get next name
var next = names[n + 1];
// blank next value indicates array-appending, so create array
if(next.length === 0) {
obj[name] = [];
} else {
// if next name is a number create an array, otherwise a map
var isNum = ((next - 0) == next && next.length > 0);
obj[name] = isNum ? [] : {};
}
obj = obj[name];
}
});
};
/**
* Serializes a form to a JSON object. Object properties will be separated
* using the given separator (defaults to '.') and by square brackets.
*
* @param input the jquery form to serialize.
* @param sep the object-property separator (defaults to '.').
* @param dict a dictionary of names to replace (name=replace).
*
* @return the JSON-serialized form.
*/
form.serialize = function(input, sep, dict) {
var rval = {};
// add all fields in the form to the object
sep = sep || '.';
$.each(input.serializeArray(), function() {
_addField(rval, this.name.split(sep), this.value || '', dict);
});
return rval;
};
})(jQuery);

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/**
* Hash-based Message Authentication Code implementation. Requires a message
* digest object that can be obtained, for example, from forge.md.sha1 or
* forge.md.md5.
*
* @author Dave Longley
*
* Copyright (c) 2010-2012 Digital Bazaar, Inc. All rights reserved.
*/
var forge = require('./forge');
require('./md');
require('./util');
/* HMAC API */
var hmac = module.exports = forge.hmac = forge.hmac || {};
/**
* Creates an HMAC object that uses the given message digest object.
*
* @return an HMAC object.
*/
hmac.create = function() {
// the hmac key to use
var _key = null;
// the message digest to use
var _md = null;
// the inner padding
var _ipadding = null;
// the outer padding
var _opadding = null;
// hmac context
var ctx = {};
/**
* Starts or restarts the HMAC with the given key and message digest.
*
* @param md the message digest to use, null to reuse the previous one,
* a string to use builtin 'sha1', 'md5', 'sha256'.
* @param key the key to use as a string, array of bytes, byte buffer,
* or null to reuse the previous key.
*/
ctx.start = function(md, key) {
if(md !== null) {
if(typeof md === 'string') {
// create builtin message digest
md = md.toLowerCase();
if(md in forge.md.algorithms) {
_md = forge.md.algorithms[md].create();
} else {
throw new Error('Unknown hash algorithm "' + md + '"');
}
} else {
// store message digest
_md = md;
}
}
if(key === null) {
// reuse previous key
key = _key;
} else {
if(typeof key === 'string') {
// convert string into byte buffer
key = forge.util.createBuffer(key);
} else if(forge.util.isArray(key)) {
// convert byte array into byte buffer
var tmp = key;
key = forge.util.createBuffer();
for(var i = 0; i < tmp.length; ++i) {
key.putByte(tmp[i]);
}
}
// if key is longer than blocksize, hash it
var keylen = key.length();
if(keylen > _md.blockLength) {
_md.start();
_md.update(key.bytes());
key = _md.digest();
}
// mix key into inner and outer padding
// ipadding = [0x36 * blocksize] ^ key
// opadding = [0x5C * blocksize] ^ key
_ipadding = forge.util.createBuffer();
_opadding = forge.util.createBuffer();
keylen = key.length();
for(var i = 0; i < keylen; ++i) {
var tmp = key.at(i);
_ipadding.putByte(0x36 ^ tmp);
_opadding.putByte(0x5C ^ tmp);
}
// if key is shorter than blocksize, add additional padding
if(keylen < _md.blockLength) {
var tmp = _md.blockLength - keylen;
for(var i = 0; i < tmp; ++i) {
_ipadding.putByte(0x36);
_opadding.putByte(0x5C);
}
}
_key = key;
_ipadding = _ipadding.bytes();
_opadding = _opadding.bytes();
}
// digest is done like so: hash(opadding | hash(ipadding | message))
// prepare to do inner hash
// hash(ipadding | message)
_md.start();
_md.update(_ipadding);
};
/**
* Updates the HMAC with the given message bytes.
*
* @param bytes the bytes to update with.
*/
ctx.update = function(bytes) {
_md.update(bytes);
};
/**
* Produces the Message Authentication Code (MAC).
*
* @return a byte buffer containing the digest value.
*/
ctx.getMac = function() {
// digest is done like so: hash(opadding | hash(ipadding | message))
// here we do the outer hashing
var inner = _md.digest().bytes();
_md.start();
_md.update(_opadding);
_md.update(inner);
return _md.digest();
};
// alias for getMac
ctx.digest = ctx.getMac;
return ctx;
};

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/**
* Node.js module for Forge with extra utils and networking.
*
* @author Dave Longley
*
* Copyright 2011-2016 Digital Bazaar, Inc.
*/
module.exports = require('./forge');
// require core forge
require('./index');
// additional utils and networking support
require('./form');
require('./socket');
require('./tlssocket');
require('./http');
require('./xhr');

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/**
* Node.js module for Forge.
*
* @author Dave Longley
*
* Copyright 2011-2016 Digital Bazaar, Inc.
*/
module.exports = require('./forge');
require('./aes');
require('./aesCipherSuites');
require('./asn1');
require('./cipher');
require('./debug');
require('./des');
require('./ed25519');
require('./hmac');
require('./kem');
require('./log');
require('./md.all');
require('./mgf1');
require('./pbkdf2');
require('./pem');
require('./pkcs1');
require('./pkcs12');
require('./pkcs7');
require('./pki');
require('./prime');
require('./prng');
require('./pss');
require('./random');
require('./rc2');
require('./ssh');
require('./task');
require('./tls');
require('./util');

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/**
* Javascript implementation of RSA-KEM.
*
* @author Lautaro Cozzani Rodriguez
* @author Dave Longley
*
* Copyright (c) 2014 Lautaro Cozzani <lautaro.cozzani@scytl.com>
* Copyright (c) 2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./util');
require('./random');
require('./jsbn');
module.exports = forge.kem = forge.kem || {};
var BigInteger = forge.jsbn.BigInteger;
/**
* The API for the RSA Key Encapsulation Mechanism (RSA-KEM) from ISO 18033-2.
*/
forge.kem.rsa = {};
/**
* Creates an RSA KEM API object for generating a secret asymmetric key.
*
* The symmetric key may be generated via a call to 'encrypt', which will
* produce a ciphertext to be transmitted to the recipient and a key to be
* kept secret. The ciphertext is a parameter to be passed to 'decrypt' which
* will produce the same secret key for the recipient to use to decrypt a
* message that was encrypted with the secret key.
*
* @param kdf the KDF API to use (eg: new forge.kem.kdf1()).
* @param options the options to use.
* [prng] a custom crypto-secure pseudo-random number generator to use,
* that must define "getBytesSync".
*/
forge.kem.rsa.create = function(kdf, options) {
options = options || {};
var prng = options.prng || forge.random;
var kem = {};
/**
* Generates a secret key and its encapsulation.
*
* @param publicKey the RSA public key to encrypt with.
* @param keyLength the length, in bytes, of the secret key to generate.
*
* @return an object with:
* encapsulation: the ciphertext for generating the secret key, as a
* binary-encoded string of bytes.
* key: the secret key to use for encrypting a message.
*/
kem.encrypt = function(publicKey, keyLength) {
// generate a random r where 1 > r > n
var byteLength = Math.ceil(publicKey.n.bitLength() / 8);
var r;
do {
r = new BigInteger(
forge.util.bytesToHex(prng.getBytesSync(byteLength)),
16).mod(publicKey.n);
} while(r.equals(BigInteger.ZERO));
// prepend r with zeros
r = forge.util.hexToBytes(r.toString(16));
var zeros = byteLength - r.length;
if(zeros > 0) {
r = forge.util.fillString(String.fromCharCode(0), zeros) + r;
}
// encrypt the random
var encapsulation = publicKey.encrypt(r, 'NONE');
// generate the secret key
var key = kdf.generate(r, keyLength);
return {encapsulation: encapsulation, key: key};
};
/**
* Decrypts an encapsulated secret key.
*
* @param privateKey the RSA private key to decrypt with.
* @param encapsulation the ciphertext for generating the secret key, as
* a binary-encoded string of bytes.
* @param keyLength the length, in bytes, of the secret key to generate.
*
* @return the secret key as a binary-encoded string of bytes.
*/
kem.decrypt = function(privateKey, encapsulation, keyLength) {
// decrypt the encapsulation and generate the secret key
var r = privateKey.decrypt(encapsulation, 'NONE');
return kdf.generate(r, keyLength);
};
return kem;
};
// TODO: add forge.kem.kdf.create('KDF1', {md: ..., ...}) API?
/**
* Creates a key derivation API object that implements KDF1 per ISO 18033-2.
*
* @param md the hash API to use.
* @param [digestLength] an optional digest length that must be positive and
* less than or equal to md.digestLength.
*
* @return a KDF1 API object.
*/
forge.kem.kdf1 = function(md, digestLength) {
_createKDF(this, md, 0, digestLength || md.digestLength);
};
/**
* Creates a key derivation API object that implements KDF2 per ISO 18033-2.
*
* @param md the hash API to use.
* @param [digestLength] an optional digest length that must be positive and
* less than or equal to md.digestLength.
*
* @return a KDF2 API object.
*/
forge.kem.kdf2 = function(md, digestLength) {
_createKDF(this, md, 1, digestLength || md.digestLength);
};
/**
* Creates a KDF1 or KDF2 API object.
*
* @param md the hash API to use.
* @param counterStart the starting index for the counter.
* @param digestLength the digest length to use.
*
* @return the KDF API object.
*/
function _createKDF(kdf, md, counterStart, digestLength) {
/**
* Generate a key of the specified length.
*
* @param x the binary-encoded byte string to generate a key from.
* @param length the number of bytes to generate (the size of the key).
*
* @return the key as a binary-encoded string.
*/
kdf.generate = function(x, length) {
var key = new forge.util.ByteBuffer();
// run counter from counterStart to ceil(length / Hash.len)
var k = Math.ceil(length / digestLength) + counterStart;
var c = new forge.util.ByteBuffer();
for(var i = counterStart; i < k; ++i) {
// I2OSP(i, 4): convert counter to an octet string of 4 octets
c.putInt32(i);
// digest 'x' and the counter and add the result to the key
md.start();
md.update(x + c.getBytes());
var hash = md.digest();
key.putBytes(hash.getBytes(digestLength));
}
// truncate to the correct key length
key.truncate(key.length() - length);
return key.getBytes();
};
}

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/**
* Cross-browser support for logging in a web application.
*
* @author David I. Lehn <dlehn@digitalbazaar.com>
*
* Copyright (c) 2008-2013 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./util');
/* LOG API */
module.exports = forge.log = forge.log || {};
/**
* Application logging system.
*
* Each logger level available as it's own function of the form:
* forge.log.level(category, args...)
* The category is an arbitrary string, and the args are the same as
* Firebug's console.log API. By default the call will be output as:
* 'LEVEL [category] <args[0]>, args[1], ...'
* This enables proper % formatting via the first argument.
* Each category is enabled by default but can be enabled or disabled with
* the setCategoryEnabled() function.
*/
// list of known levels
forge.log.levels = [
'none', 'error', 'warning', 'info', 'debug', 'verbose', 'max'];
// info on the levels indexed by name:
// index: level index
// name: uppercased display name
var sLevelInfo = {};
// list of loggers
var sLoggers = [];
/**
* Standard console logger. If no console support is enabled this will
* remain null. Check before using.
*/
var sConsoleLogger = null;
// logger flags
/**
* Lock the level at the current value. Used in cases where user config may
* set the level such that only critical messages are seen but more verbose
* messages are needed for debugging or other purposes.
*/
forge.log.LEVEL_LOCKED = (1 << 1);
/**
* Always call log function. By default, the logging system will check the
* message level against logger.level before calling the log function. This
* flag allows the function to do its own check.
*/
forge.log.NO_LEVEL_CHECK = (1 << 2);
/**
* Perform message interpolation with the passed arguments. "%" style
* fields in log messages will be replaced by arguments as needed. Some
* loggers, such as Firebug, may do this automatically. The original log
* message will be available as 'message' and the interpolated version will
* be available as 'fullMessage'.
*/
forge.log.INTERPOLATE = (1 << 3);
// setup each log level
for(var i = 0; i < forge.log.levels.length; ++i) {
var level = forge.log.levels[i];
sLevelInfo[level] = {
index: i,
name: level.toUpperCase()
};
}
/**
* Message logger. Will dispatch a message to registered loggers as needed.
*
* @param message message object
*/
forge.log.logMessage = function(message) {
var messageLevelIndex = sLevelInfo[message.level].index;
for(var i = 0; i < sLoggers.length; ++i) {
var logger = sLoggers[i];
if(logger.flags & forge.log.NO_LEVEL_CHECK) {
logger.f(message);
} else {
// get logger level
var loggerLevelIndex = sLevelInfo[logger.level].index;
// check level
if(messageLevelIndex <= loggerLevelIndex) {
// message critical enough, call logger
logger.f(logger, message);
}
}
}
};
/**
* Sets the 'standard' key on a message object to:
* "LEVEL [category] " + message
*
* @param message a message log object
*/
forge.log.prepareStandard = function(message) {
if(!('standard' in message)) {
message.standard =
sLevelInfo[message.level].name +
//' ' + +message.timestamp +
' [' + message.category + '] ' +
message.message;
}
};
/**
* Sets the 'full' key on a message object to the original message
* interpolated via % formatting with the message arguments.
*
* @param message a message log object.
*/
forge.log.prepareFull = function(message) {
if(!('full' in message)) {
// copy args and insert message at the front
var args = [message.message];
args = args.concat([] || message['arguments']);
// format the message
message.full = forge.util.format.apply(this, args);
}
};
/**
* Applies both preparseStandard() and prepareFull() to a message object and
* store result in 'standardFull'.
*
* @param message a message log object.
*/
forge.log.prepareStandardFull = function(message) {
if(!('standardFull' in message)) {
// FIXME implement 'standardFull' logging
forge.log.prepareStandard(message);
message.standardFull = message.standard;
}
};
// create log level functions
if(true) {
// levels for which we want functions
var levels = ['error', 'warning', 'info', 'debug', 'verbose'];
for(var i = 0; i < levels.length; ++i) {
// wrap in a function to ensure proper level var is passed
(function(level) {
// create function for this level
forge.log[level] = function(category, message/*, args...*/) {
// convert arguments to real array, remove category and message
var args = Array.prototype.slice.call(arguments).slice(2);
// create message object
// Note: interpolation and standard formatting is done lazily
var msg = {
timestamp: new Date(),
level: level,
category: category,
message: message,
'arguments': args
/*standard*/
/*full*/
/*fullMessage*/
};
// process this message
forge.log.logMessage(msg);
};
})(levels[i]);
}
}
/**
* Creates a new logger with specified custom logging function.
*
* The logging function has a signature of:
* function(logger, message)
* logger: current logger
* message: object:
* level: level id
* category: category
* message: string message
* arguments: Array of extra arguments
* fullMessage: interpolated message and arguments if INTERPOLATE flag set
*
* @param logFunction a logging function which takes a log message object
* as a parameter.
*
* @return a logger object.
*/
forge.log.makeLogger = function(logFunction) {
var logger = {
flags: 0,
f: logFunction
};
forge.log.setLevel(logger, 'none');
return logger;
};
/**
* Sets the current log level on a logger.
*
* @param logger the target logger.
* @param level the new maximum log level as a string.
*
* @return true if set, false if not.
*/
forge.log.setLevel = function(logger, level) {
var rval = false;
if(logger && !(logger.flags & forge.log.LEVEL_LOCKED)) {
for(var i = 0; i < forge.log.levels.length; ++i) {
var aValidLevel = forge.log.levels[i];
if(level == aValidLevel) {
// set level
logger.level = level;
rval = true;
break;
}
}
}
return rval;
};
/**
* Locks the log level at its current value.
*
* @param logger the target logger.
* @param lock boolean lock value, default to true.
*/
forge.log.lock = function(logger, lock) {
if(typeof lock === 'undefined' || lock) {
logger.flags |= forge.log.LEVEL_LOCKED;
} else {
logger.flags &= ~forge.log.LEVEL_LOCKED;
}
};
/**
* Adds a logger.
*
* @param logger the logger object.
*/
forge.log.addLogger = function(logger) {
sLoggers.push(logger);
};
// setup the console logger if possible, else create fake console.log
if(typeof(console) !== 'undefined' && 'log' in console) {
var logger;
if(console.error && console.warn && console.info && console.debug) {
// looks like Firebug-style logging is available
// level handlers map
var levelHandlers = {
error: console.error,
warning: console.warn,
info: console.info,
debug: console.debug,
verbose: console.debug
};
var f = function(logger, message) {
forge.log.prepareStandard(message);
var handler = levelHandlers[message.level];
// prepend standard message and concat args
var args = [message.standard];
args = args.concat(message['arguments'].slice());
// apply to low-level console function
handler.apply(console, args);
};
logger = forge.log.makeLogger(f);
} else {
// only appear to have basic console.log
var f = function(logger, message) {
forge.log.prepareStandardFull(message);
console.log(message.standardFull);
};
logger = forge.log.makeLogger(f);
}
forge.log.setLevel(logger, 'debug');
forge.log.addLogger(logger);
sConsoleLogger = logger;
} else {
// define fake console.log to avoid potential script errors on
// browsers that do not have console logging
console = {
log: function() {}
};
}
/*
* Check for logging control query vars.
*
* console.level=<level-name>
* Set's the console log level by name. Useful to override defaults and
* allow more verbose logging before a user config is loaded.
*
* console.lock=<true|false>
* Lock the console log level at whatever level it is set at. This is run
* after console.level is processed. Useful to force a level of verbosity
* that could otherwise be limited by a user config.
*/
if(sConsoleLogger !== null) {
var query = forge.util.getQueryVariables();
if('console.level' in query) {
// set with last value
forge.log.setLevel(
sConsoleLogger, query['console.level'].slice(-1)[0]);
}
if('console.lock' in query) {
// set with last value
var lock = query['console.lock'].slice(-1)[0];
if(lock == 'true') {
forge.log.lock(sConsoleLogger);
}
}
}
// provide public access to console logger
forge.log.consoleLogger = sConsoleLogger;

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/**
* Node.js module for all known Forge message digests.
*
* @author Dave Longley
*
* Copyright 2011-2017 Digital Bazaar, Inc.
*/
module.exports = require('./md');
require('./md5');
require('./sha1');
require('./sha256');
require('./sha512');

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/**
* Node.js module for Forge message digests.
*
* @author Dave Longley
*
* Copyright 2011-2017 Digital Bazaar, Inc.
*/
var forge = require('./forge');
module.exports = forge.md = forge.md || {};
forge.md.algorithms = forge.md.algorithms || {};

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/**
* Message Digest Algorithm 5 with 128-bit digest (MD5) implementation.
*
* @author Dave Longley
*
* Copyright (c) 2010-2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./md');
require('./util');
var md5 = module.exports = forge.md5 = forge.md5 || {};
forge.md.md5 = forge.md.algorithms.md5 = md5;
/**
* Creates an MD5 message digest object.
*
* @return a message digest object.
*/
md5.create = function() {
// do initialization as necessary
if(!_initialized) {
_init();
}
// MD5 state contains four 32-bit integers
var _state = null;
// input buffer
var _input = forge.util.createBuffer();
// used for word storage
var _w = new Array(16);
// message digest object
var md = {
algorithm: 'md5',
blockLength: 64,
digestLength: 16,
// 56-bit length of message so far (does not including padding)
messageLength: 0,
// true message length
fullMessageLength: null,
// size of message length in bytes
messageLengthSize: 8
};
/**
* Starts the digest.
*
* @return this digest object.
*/
md.start = function() {
// up to 56-bit message length for convenience
md.messageLength = 0;
// full message length (set md.messageLength64 for backwards-compatibility)
md.fullMessageLength = md.messageLength64 = [];
var int32s = md.messageLengthSize / 4;
for(var i = 0; i < int32s; ++i) {
md.fullMessageLength.push(0);
}
_input = forge.util.createBuffer();
_state = {
h0: 0x67452301,
h1: 0xEFCDAB89,
h2: 0x98BADCFE,
h3: 0x10325476
};
return md;
};
// start digest automatically for first time
md.start();
/**
* Updates the digest with the given message input. The given input can
* treated as raw input (no encoding will be applied) or an encoding of
* 'utf8' maybe given to encode the input using UTF-8.
*
* @param msg the message input to update with.
* @param encoding the encoding to use (default: 'raw', other: 'utf8').
*
* @return this digest object.
*/
md.update = function(msg, encoding) {
if(encoding === 'utf8') {
msg = forge.util.encodeUtf8(msg);
}
// update message length
var len = msg.length;
md.messageLength += len;
len = [(len / 0x100000000) >>> 0, len >>> 0];
for(var i = md.fullMessageLength.length - 1; i >= 0; --i) {
md.fullMessageLength[i] += len[1];
len[1] = len[0] + ((md.fullMessageLength[i] / 0x100000000) >>> 0);
md.fullMessageLength[i] = md.fullMessageLength[i] >>> 0;
len[0] = (len[1] / 0x100000000) >>> 0;
}
// add bytes to input buffer
_input.putBytes(msg);
// process bytes
_update(_state, _w, _input);
// compact input buffer every 2K or if empty
if(_input.read > 2048 || _input.length() === 0) {
_input.compact();
}
return md;
};
/**
* Produces the digest.
*
* @return a byte buffer containing the digest value.
*/
md.digest = function() {
/* Note: Here we copy the remaining bytes in the input buffer and
add the appropriate MD5 padding. Then we do the final update
on a copy of the state so that if the user wants to get
intermediate digests they can do so. */
/* Determine the number of bytes that must be added to the message
to ensure its length is congruent to 448 mod 512. In other words,
the data to be digested must be a multiple of 512 bits (or 128 bytes).
This data includes the message, some padding, and the length of the
message. Since the length of the message will be encoded as 8 bytes (64
bits), that means that the last segment of the data must have 56 bytes
(448 bits) of message and padding. Therefore, the length of the message
plus the padding must be congruent to 448 mod 512 because
512 - 128 = 448.
In order to fill up the message length it must be filled with
padding that begins with 1 bit followed by all 0 bits. Padding
must *always* be present, so if the message length is already
congruent to 448 mod 512, then 512 padding bits must be added. */
var finalBlock = forge.util.createBuffer();
finalBlock.putBytes(_input.bytes());
// compute remaining size to be digested (include message length size)
var remaining = (
md.fullMessageLength[md.fullMessageLength.length - 1] +
md.messageLengthSize);
// add padding for overflow blockSize - overflow
// _padding starts with 1 byte with first bit is set (byte value 128), then
// there may be up to (blockSize - 1) other pad bytes
var overflow = remaining & (md.blockLength - 1);
finalBlock.putBytes(_padding.substr(0, md.blockLength - overflow));
// serialize message length in bits in little-endian order; since length
// is stored in bytes we multiply by 8 and add carry
var bits, carry = 0;
for(var i = md.fullMessageLength.length - 1; i >= 0; --i) {
bits = md.fullMessageLength[i] * 8 + carry;
carry = (bits / 0x100000000) >>> 0;
finalBlock.putInt32Le(bits >>> 0);
}
var s2 = {
h0: _state.h0,
h1: _state.h1,
h2: _state.h2,
h3: _state.h3
};
_update(s2, _w, finalBlock);
var rval = forge.util.createBuffer();
rval.putInt32Le(s2.h0);
rval.putInt32Le(s2.h1);
rval.putInt32Le(s2.h2);
rval.putInt32Le(s2.h3);
return rval;
};
return md;
};
// padding, constant tables for calculating md5
var _padding = null;
var _g = null;
var _r = null;
var _k = null;
var _initialized = false;
/**
* Initializes the constant tables.
*/
function _init() {
// create padding
_padding = String.fromCharCode(128);
_padding += forge.util.fillString(String.fromCharCode(0x00), 64);
// g values
_g = [
0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15,
1, 6, 11, 0, 5, 10, 15, 4, 9, 14, 3, 8, 13, 2, 7, 12,
5, 8, 11, 14, 1, 4, 7, 10, 13, 0, 3, 6, 9, 12, 15, 2,
0, 7, 14, 5, 12, 3, 10, 1, 8, 15, 6, 13, 4, 11, 2, 9];
// rounds table
_r = [
7, 12, 17, 22, 7, 12, 17, 22, 7, 12, 17, 22, 7, 12, 17, 22,
5, 9, 14, 20, 5, 9, 14, 20, 5, 9, 14, 20, 5, 9, 14, 20,
4, 11, 16, 23, 4, 11, 16, 23, 4, 11, 16, 23, 4, 11, 16, 23,
6, 10, 15, 21, 6, 10, 15, 21, 6, 10, 15, 21, 6, 10, 15, 21];
// get the result of abs(sin(i + 1)) as a 32-bit integer
_k = new Array(64);
for(var i = 0; i < 64; ++i) {
_k[i] = Math.floor(Math.abs(Math.sin(i + 1)) * 0x100000000);
}
// now initialized
_initialized = true;
}
/**
* Updates an MD5 state with the given byte buffer.
*
* @param s the MD5 state to update.
* @param w the array to use to store words.
* @param bytes the byte buffer to update with.
*/
function _update(s, w, bytes) {
// consume 512 bit (64 byte) chunks
var t, a, b, c, d, f, r, i;
var len = bytes.length();
while(len >= 64) {
// initialize hash value for this chunk
a = s.h0;
b = s.h1;
c = s.h2;
d = s.h3;
// round 1
for(i = 0; i < 16; ++i) {
w[i] = bytes.getInt32Le();
f = d ^ (b & (c ^ d));
t = (a + f + _k[i] + w[i]);
r = _r[i];
a = d;
d = c;
c = b;
b += (t << r) | (t >>> (32 - r));
}
// round 2
for(; i < 32; ++i) {
f = c ^ (d & (b ^ c));
t = (a + f + _k[i] + w[_g[i]]);
r = _r[i];
a = d;
d = c;
c = b;
b += (t << r) | (t >>> (32 - r));
}
// round 3
for(; i < 48; ++i) {
f = b ^ c ^ d;
t = (a + f + _k[i] + w[_g[i]]);
r = _r[i];
a = d;
d = c;
c = b;
b += (t << r) | (t >>> (32 - r));
}
// round 4
for(; i < 64; ++i) {
f = c ^ (b | ~d);
t = (a + f + _k[i] + w[_g[i]]);
r = _r[i];
a = d;
d = c;
c = b;
b += (t << r) | (t >>> (32 - r));
}
// update hash state
s.h0 = (s.h0 + a) | 0;
s.h1 = (s.h1 + b) | 0;
s.h2 = (s.h2 + c) | 0;
s.h3 = (s.h3 + d) | 0;
len -= 64;
}
}

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/**
* Node.js module for Forge mask generation functions.
*
* @author Stefan Siegl
*
* Copyright 2012 Stefan Siegl <stesie@brokenpipe.de>
*/
var forge = require('./forge');
require('./mgf1');
module.exports = forge.mgf = forge.mgf || {};
forge.mgf.mgf1 = forge.mgf1;

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/**
* Javascript implementation of mask generation function MGF1.
*
* @author Stefan Siegl
* @author Dave Longley
*
* Copyright (c) 2012 Stefan Siegl <stesie@brokenpipe.de>
* Copyright (c) 2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./util');
forge.mgf = forge.mgf || {};
var mgf1 = module.exports = forge.mgf.mgf1 = forge.mgf1 = forge.mgf1 || {};
/**
* Creates a MGF1 mask generation function object.
*
* @param md the message digest API to use (eg: forge.md.sha1.create()).
*
* @return a mask generation function object.
*/
mgf1.create = function(md) {
var mgf = {
/**
* Generate mask of specified length.
*
* @param {String} seed The seed for mask generation.
* @param maskLen Number of bytes to generate.
* @return {String} The generated mask.
*/
generate: function(seed, maskLen) {
/* 2. Let T be the empty octet string. */
var t = new forge.util.ByteBuffer();
/* 3. For counter from 0 to ceil(maskLen / hLen), do the following: */
var len = Math.ceil(maskLen / md.digestLength);
for(var i = 0; i < len; i++) {
/* a. Convert counter to an octet string C of length 4 octets */
var c = new forge.util.ByteBuffer();
c.putInt32(i);
/* b. Concatenate the hash of the seed mgfSeed and C to the octet
* string T: */
md.start();
md.update(seed + c.getBytes());
t.putBuffer(md.digest());
}
/* Output the leading maskLen octets of T as the octet string mask. */
t.truncate(t.length() - maskLen);
return t.getBytes();
}
};
return mgf;
};

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/**
* Object IDs for ASN.1.
*
* @author Dave Longley
*
* Copyright (c) 2010-2013 Digital Bazaar, Inc.
*/
var forge = require('./forge');
forge.pki = forge.pki || {};
var oids = module.exports = forge.pki.oids = forge.oids = forge.oids || {};
// set id to name mapping and name to id mapping
function _IN(id, name) {
oids[id] = name;
oids[name] = id;
}
// set id to name mapping only
function _I_(id, name) {
oids[id] = name;
}
// algorithm OIDs
_IN('1.2.840.113549.1.1.1', 'rsaEncryption');
// Note: md2 & md4 not implemented
//_IN('1.2.840.113549.1.1.2', 'md2WithRSAEncryption');
//_IN('1.2.840.113549.1.1.3', 'md4WithRSAEncryption');
_IN('1.2.840.113549.1.1.4', 'md5WithRSAEncryption');
_IN('1.2.840.113549.1.1.5', 'sha1WithRSAEncryption');
_IN('1.2.840.113549.1.1.7', 'RSAES-OAEP');
_IN('1.2.840.113549.1.1.8', 'mgf1');
_IN('1.2.840.113549.1.1.9', 'pSpecified');
_IN('1.2.840.113549.1.1.10', 'RSASSA-PSS');
_IN('1.2.840.113549.1.1.11', 'sha256WithRSAEncryption');
_IN('1.2.840.113549.1.1.12', 'sha384WithRSAEncryption');
_IN('1.2.840.113549.1.1.13', 'sha512WithRSAEncryption');
_IN('1.2.840.10040.4.3', 'dsa-with-sha1');
_IN('1.3.14.3.2.7', 'desCBC');
_IN('1.3.14.3.2.26', 'sha1');
_IN('2.16.840.1.101.3.4.2.1', 'sha256');
_IN('2.16.840.1.101.3.4.2.2', 'sha384');
_IN('2.16.840.1.101.3.4.2.3', 'sha512');
_IN('1.2.840.113549.2.5', 'md5');
// pkcs#7 content types
_IN('1.2.840.113549.1.7.1', 'data');
_IN('1.2.840.113549.1.7.2', 'signedData');
_IN('1.2.840.113549.1.7.3', 'envelopedData');
_IN('1.2.840.113549.1.7.4', 'signedAndEnvelopedData');
_IN('1.2.840.113549.1.7.5', 'digestedData');
_IN('1.2.840.113549.1.7.6', 'encryptedData');
// pkcs#9 oids
_IN('1.2.840.113549.1.9.1', 'emailAddress');
_IN('1.2.840.113549.1.9.2', 'unstructuredName');
_IN('1.2.840.113549.1.9.3', 'contentType');
_IN('1.2.840.113549.1.9.4', 'messageDigest');
_IN('1.2.840.113549.1.9.5', 'signingTime');
_IN('1.2.840.113549.1.9.6', 'counterSignature');
_IN('1.2.840.113549.1.9.7', 'challengePassword');
_IN('1.2.840.113549.1.9.8', 'unstructuredAddress');
_IN('1.2.840.113549.1.9.14', 'extensionRequest');
_IN('1.2.840.113549.1.9.20', 'friendlyName');
_IN('1.2.840.113549.1.9.21', 'localKeyId');
_IN('1.2.840.113549.1.9.22.1', 'x509Certificate');
// pkcs#12 safe bags
_IN('1.2.840.113549.1.12.10.1.1', 'keyBag');
_IN('1.2.840.113549.1.12.10.1.2', 'pkcs8ShroudedKeyBag');
_IN('1.2.840.113549.1.12.10.1.3', 'certBag');
_IN('1.2.840.113549.1.12.10.1.4', 'crlBag');
_IN('1.2.840.113549.1.12.10.1.5', 'secretBag');
_IN('1.2.840.113549.1.12.10.1.6', 'safeContentsBag');
// password-based-encryption for pkcs#12
_IN('1.2.840.113549.1.5.13', 'pkcs5PBES2');
_IN('1.2.840.113549.1.5.12', 'pkcs5PBKDF2');
_IN('1.2.840.113549.1.12.1.1', 'pbeWithSHAAnd128BitRC4');
_IN('1.2.840.113549.1.12.1.2', 'pbeWithSHAAnd40BitRC4');
_IN('1.2.840.113549.1.12.1.3', 'pbeWithSHAAnd3-KeyTripleDES-CBC');
_IN('1.2.840.113549.1.12.1.4', 'pbeWithSHAAnd2-KeyTripleDES-CBC');
_IN('1.2.840.113549.1.12.1.5', 'pbeWithSHAAnd128BitRC2-CBC');
_IN('1.2.840.113549.1.12.1.6', 'pbewithSHAAnd40BitRC2-CBC');
// hmac OIDs
_IN('1.2.840.113549.2.7', 'hmacWithSHA1');
_IN('1.2.840.113549.2.8', 'hmacWithSHA224');
_IN('1.2.840.113549.2.9', 'hmacWithSHA256');
_IN('1.2.840.113549.2.10', 'hmacWithSHA384');
_IN('1.2.840.113549.2.11', 'hmacWithSHA512');
// symmetric key algorithm oids
_IN('1.2.840.113549.3.7', 'des-EDE3-CBC');
_IN('2.16.840.1.101.3.4.1.2', 'aes128-CBC');
_IN('2.16.840.1.101.3.4.1.22', 'aes192-CBC');
_IN('2.16.840.1.101.3.4.1.42', 'aes256-CBC');
// certificate issuer/subject OIDs
_IN('2.5.4.3', 'commonName');
_IN('2.5.4.5', 'serialName');
_IN('2.5.4.6', 'countryName');
_IN('2.5.4.7', 'localityName');
_IN('2.5.4.8', 'stateOrProvinceName');
_IN('2.5.4.10', 'organizationName');
_IN('2.5.4.11', 'organizationalUnitName');
// X.509 extension OIDs
_IN('2.16.840.1.113730.1.1', 'nsCertType');
_I_('2.5.29.1', 'authorityKeyIdentifier'); // deprecated, use .35
_I_('2.5.29.2', 'keyAttributes'); // obsolete use .37 or .15
_I_('2.5.29.3', 'certificatePolicies'); // deprecated, use .32
_I_('2.5.29.4', 'keyUsageRestriction'); // obsolete use .37 or .15
_I_('2.5.29.5', 'policyMapping'); // deprecated use .33
_I_('2.5.29.6', 'subtreesConstraint'); // obsolete use .30
_I_('2.5.29.7', 'subjectAltName'); // deprecated use .17
_I_('2.5.29.8', 'issuerAltName'); // deprecated use .18
_I_('2.5.29.9', 'subjectDirectoryAttributes');
_I_('2.5.29.10', 'basicConstraints'); // deprecated use .19
_I_('2.5.29.11', 'nameConstraints'); // deprecated use .30
_I_('2.5.29.12', 'policyConstraints'); // deprecated use .36
_I_('2.5.29.13', 'basicConstraints'); // deprecated use .19
_IN('2.5.29.14', 'subjectKeyIdentifier');
_IN('2.5.29.15', 'keyUsage');
_I_('2.5.29.16', 'privateKeyUsagePeriod');
_IN('2.5.29.17', 'subjectAltName');
_IN('2.5.29.18', 'issuerAltName');
_IN('2.5.29.19', 'basicConstraints');
_I_('2.5.29.20', 'cRLNumber');
_I_('2.5.29.21', 'cRLReason');
_I_('2.5.29.22', 'expirationDate');
_I_('2.5.29.23', 'instructionCode');
_I_('2.5.29.24', 'invalidityDate');
_I_('2.5.29.25', 'cRLDistributionPoints'); // deprecated use .31
_I_('2.5.29.26', 'issuingDistributionPoint'); // deprecated use .28
_I_('2.5.29.27', 'deltaCRLIndicator');
_I_('2.5.29.28', 'issuingDistributionPoint');
_I_('2.5.29.29', 'certificateIssuer');
_I_('2.5.29.30', 'nameConstraints');
_IN('2.5.29.31', 'cRLDistributionPoints');
_IN('2.5.29.32', 'certificatePolicies');
_I_('2.5.29.33', 'policyMappings');
_I_('2.5.29.34', 'policyConstraints'); // deprecated use .36
_IN('2.5.29.35', 'authorityKeyIdentifier');
_I_('2.5.29.36', 'policyConstraints');
_IN('2.5.29.37', 'extKeyUsage');
_I_('2.5.29.46', 'freshestCRL');
_I_('2.5.29.54', 'inhibitAnyPolicy');
// extKeyUsage purposes
_IN('1.3.6.1.4.1.11129.2.4.2', 'timestampList');
_IN('1.3.6.1.5.5.7.1.1', 'authorityInfoAccess');
_IN('1.3.6.1.5.5.7.3.1', 'serverAuth');
_IN('1.3.6.1.5.5.7.3.2', 'clientAuth');
_IN('1.3.6.1.5.5.7.3.3', 'codeSigning');
_IN('1.3.6.1.5.5.7.3.4', 'emailProtection');
_IN('1.3.6.1.5.5.7.3.8', 'timeStamping');

1023
node_modules/node-forge/lib/pbe.js generated vendored Normal file

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node_modules/node-forge/lib/pbkdf2.js generated vendored Normal file
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/**
* Password-Based Key-Derivation Function #2 implementation.
*
* See RFC 2898 for details.
*
* @author Dave Longley
*
* Copyright (c) 2010-2013 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./hmac');
require('./md');
require('./util');
var pkcs5 = forge.pkcs5 = forge.pkcs5 || {};
var crypto;
if(forge.util.isNodejs && !forge.options.usePureJavaScript) {
crypto = require('crypto');
}
/**
* Derives a key from a password.
*
* @param p the password as a binary-encoded string of bytes.
* @param s the salt as a binary-encoded string of bytes.
* @param c the iteration count, a positive integer.
* @param dkLen the intended length, in bytes, of the derived key,
* (max: 2^32 - 1) * hash length of the PRF.
* @param [md] the message digest (or algorithm identifier as a string) to use
* in the PRF, defaults to SHA-1.
* @param [callback(err, key)] presence triggers asynchronous version, called
* once the operation completes.
*
* @return the derived key, as a binary-encoded string of bytes, for the
* synchronous version (if no callback is specified).
*/
module.exports = forge.pbkdf2 = pkcs5.pbkdf2 = function(
p, s, c, dkLen, md, callback) {
if(typeof md === 'function') {
callback = md;
md = null;
}
// use native implementation if possible and not disabled, note that
// some node versions only support SHA-1, others allow digest to be changed
if(forge.util.isNodejs && !forge.options.usePureJavaScript &&
crypto.pbkdf2 && (md === null || typeof md !== 'object') &&
(crypto.pbkdf2Sync.length > 4 || (!md || md === 'sha1'))) {
if(typeof md !== 'string') {
// default prf to SHA-1
md = 'sha1';
}
p = new Buffer(p, 'binary');
s = new Buffer(s, 'binary');
if(!callback) {
if(crypto.pbkdf2Sync.length === 4) {
return crypto.pbkdf2Sync(p, s, c, dkLen).toString('binary');
}
return crypto.pbkdf2Sync(p, s, c, dkLen, md).toString('binary');
}
if(crypto.pbkdf2Sync.length === 4) {
return crypto.pbkdf2(p, s, c, dkLen, function(err, key) {
if(err) {
return callback(err);
}
callback(null, key.toString('binary'));
});
}
return crypto.pbkdf2(p, s, c, dkLen, md, function(err, key) {
if(err) {
return callback(err);
}
callback(null, key.toString('binary'));
});
}
if(typeof md === 'undefined' || md === null) {
// default prf to SHA-1
md = 'sha1';
}
if(typeof md === 'string') {
if(!(md in forge.md.algorithms)) {
throw new Error('Unknown hash algorithm: ' + md);
}
md = forge.md[md].create();
}
var hLen = md.digestLength;
/* 1. If dkLen > (2^32 - 1) * hLen, output "derived key too long" and
stop. */
if(dkLen > (0xFFFFFFFF * hLen)) {
var err = new Error('Derived key is too long.');
if(callback) {
return callback(err);
}
throw err;
}
/* 2. Let len be the number of hLen-octet blocks in the derived key,
rounding up, and let r be the number of octets in the last
block:
len = CEIL(dkLen / hLen),
r = dkLen - (len - 1) * hLen. */
var len = Math.ceil(dkLen / hLen);
var r = dkLen - (len - 1) * hLen;
/* 3. For each block of the derived key apply the function F defined
below to the password P, the salt S, the iteration count c, and
the block index to compute the block:
T_1 = F(P, S, c, 1),
T_2 = F(P, S, c, 2),
...
T_len = F(P, S, c, len),
where the function F is defined as the exclusive-or sum of the
first c iterates of the underlying pseudorandom function PRF
applied to the password P and the concatenation of the salt S
and the block index i:
F(P, S, c, i) = u_1 XOR u_2 XOR ... XOR u_c
where
u_1 = PRF(P, S || INT(i)),
u_2 = PRF(P, u_1),
...
u_c = PRF(P, u_{c-1}).
Here, INT(i) is a four-octet encoding of the integer i, most
significant octet first. */
var prf = forge.hmac.create();
prf.start(md, p);
var dk = '';
var xor, u_c, u_c1;
// sync version
if(!callback) {
for(var i = 1; i <= len; ++i) {
// PRF(P, S || INT(i)) (first iteration)
prf.start(null, null);
prf.update(s);
prf.update(forge.util.int32ToBytes(i));
xor = u_c1 = prf.digest().getBytes();
// PRF(P, u_{c-1}) (other iterations)
for(var j = 2; j <= c; ++j) {
prf.start(null, null);
prf.update(u_c1);
u_c = prf.digest().getBytes();
// F(p, s, c, i)
xor = forge.util.xorBytes(xor, u_c, hLen);
u_c1 = u_c;
}
/* 4. Concatenate the blocks and extract the first dkLen octets to
produce a derived key DK:
DK = T_1 || T_2 || ... || T_len<0..r-1> */
dk += (i < len) ? xor : xor.substr(0, r);
}
/* 5. Output the derived key DK. */
return dk;
}
// async version
var i = 1, j;
function outer() {
if(i > len) {
// done
return callback(null, dk);
}
// PRF(P, S || INT(i)) (first iteration)
prf.start(null, null);
prf.update(s);
prf.update(forge.util.int32ToBytes(i));
xor = u_c1 = prf.digest().getBytes();
// PRF(P, u_{c-1}) (other iterations)
j = 2;
inner();
}
function inner() {
if(j <= c) {
prf.start(null, null);
prf.update(u_c1);
u_c = prf.digest().getBytes();
// F(p, s, c, i)
xor = forge.util.xorBytes(xor, u_c, hLen);
u_c1 = u_c;
++j;
return forge.util.setImmediate(inner);
}
/* 4. Concatenate the blocks and extract the first dkLen octets to
produce a derived key DK:
DK = T_1 || T_2 || ... || T_len<0..r-1> */
dk += (i < len) ? xor : xor.substr(0, r);
++i;
outer();
}
outer();
};

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node_modules/node-forge/lib/pem.js generated vendored Normal file
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/**
* Javascript implementation of basic PEM (Privacy Enhanced Mail) algorithms.
*
* See: RFC 1421.
*
* @author Dave Longley
*
* Copyright (c) 2013-2014 Digital Bazaar, Inc.
*
* A Forge PEM object has the following fields:
*
* type: identifies the type of message (eg: "RSA PRIVATE KEY").
*
* procType: identifies the type of processing performed on the message,
* it has two subfields: version and type, eg: 4,ENCRYPTED.
*
* contentDomain: identifies the type of content in the message, typically
* only uses the value: "RFC822".
*
* dekInfo: identifies the message encryption algorithm and mode and includes
* any parameters for the algorithm, it has two subfields: algorithm and
* parameters, eg: DES-CBC,F8143EDE5960C597.
*
* headers: contains all other PEM encapsulated headers -- where order is
* significant (for pairing data like recipient ID + key info).
*
* body: the binary-encoded body.
*/
var forge = require('./forge');
require('./util');
// shortcut for pem API
var pem = module.exports = forge.pem = forge.pem || {};
/**
* Encodes (serializes) the given PEM object.
*
* @param msg the PEM message object to encode.
* @param options the options to use:
* maxline the maximum characters per line for the body, (default: 64).
*
* @return the PEM-formatted string.
*/
pem.encode = function(msg, options) {
options = options || {};
var rval = '-----BEGIN ' + msg.type + '-----\r\n';
// encode special headers
var header;
if(msg.procType) {
header = {
name: 'Proc-Type',
values: [String(msg.procType.version), msg.procType.type]
};
rval += foldHeader(header);
}
if(msg.contentDomain) {
header = {name: 'Content-Domain', values: [msg.contentDomain]};
rval += foldHeader(header);
}
if(msg.dekInfo) {
header = {name: 'DEK-Info', values: [msg.dekInfo.algorithm]};
if(msg.dekInfo.parameters) {
header.values.push(msg.dekInfo.parameters);
}
rval += foldHeader(header);
}
if(msg.headers) {
// encode all other headers
for(var i = 0; i < msg.headers.length; ++i) {
rval += foldHeader(msg.headers[i]);
}
}
// terminate header
if(msg.procType) {
rval += '\r\n';
}
// add body
rval += forge.util.encode64(msg.body, options.maxline || 64) + '\r\n';
rval += '-----END ' + msg.type + '-----\r\n';
return rval;
};
/**
* Decodes (deserializes) all PEM messages found in the given string.
*
* @param str the PEM-formatted string to decode.
*
* @return the PEM message objects in an array.
*/
pem.decode = function(str) {
var rval = [];
// split string into PEM messages (be lenient w/EOF on BEGIN line)
var rMessage = /\s*-----BEGIN ([A-Z0-9- ]+)-----\r?\n?([\x21-\x7e\s]+?(?:\r?\n\r?\n))?([:A-Za-z0-9+\/=\s]+?)-----END \1-----/g;
var rHeader = /([\x21-\x7e]+):\s*([\x21-\x7e\s^:]+)/;
var rCRLF = /\r?\n/;
var match;
while(true) {
match = rMessage.exec(str);
if(!match) {
break;
}
var msg = {
type: match[1],
procType: null,
contentDomain: null,
dekInfo: null,
headers: [],
body: forge.util.decode64(match[3])
};
rval.push(msg);
// no headers
if(!match[2]) {
continue;
}
// parse headers
var lines = match[2].split(rCRLF);
var li = 0;
while(match && li < lines.length) {
// get line, trim any rhs whitespace
var line = lines[li].replace(/\s+$/, '');
// RFC2822 unfold any following folded lines
for(var nl = li + 1; nl < lines.length; ++nl) {
var next = lines[nl];
if(!/\s/.test(next[0])) {
break;
}
line += next;
li = nl;
}
// parse header
match = line.match(rHeader);
if(match) {
var header = {name: match[1], values: []};
var values = match[2].split(',');
for(var vi = 0; vi < values.length; ++vi) {
header.values.push(ltrim(values[vi]));
}
// Proc-Type must be the first header
if(!msg.procType) {
if(header.name !== 'Proc-Type') {
throw new Error('Invalid PEM formatted message. The first ' +
'encapsulated header must be "Proc-Type".');
} else if(header.values.length !== 2) {
throw new Error('Invalid PEM formatted message. The "Proc-Type" ' +
'header must have two subfields.');
}
msg.procType = {version: values[0], type: values[1]};
} else if(!msg.contentDomain && header.name === 'Content-Domain') {
// special-case Content-Domain
msg.contentDomain = values[0] || '';
} else if(!msg.dekInfo && header.name === 'DEK-Info') {
// special-case DEK-Info
if(header.values.length === 0) {
throw new Error('Invalid PEM formatted message. The "DEK-Info" ' +
'header must have at least one subfield.');
}
msg.dekInfo = {algorithm: values[0], parameters: values[1] || null};
} else {
msg.headers.push(header);
}
}
++li;
}
if(msg.procType === 'ENCRYPTED' && !msg.dekInfo) {
throw new Error('Invalid PEM formatted message. The "DEK-Info" ' +
'header must be present if "Proc-Type" is "ENCRYPTED".');
}
}
if(rval.length === 0) {
throw new Error('Invalid PEM formatted message.');
}
return rval;
};
function foldHeader(header) {
var rval = header.name + ': ';
// ensure values with CRLF are folded
var values = [];
var insertSpace = function(match, $1) {
return ' ' + $1;
};
for(var i = 0; i < header.values.length; ++i) {
values.push(header.values[i].replace(/^(\S+\r\n)/, insertSpace));
}
rval += values.join(',') + '\r\n';
// do folding
var length = 0;
var candidate = -1;
for(var i = 0; i < rval.length; ++i, ++length) {
if(length > 65 && candidate !== -1) {
var insert = rval[candidate];
if(insert === ',') {
++candidate;
rval = rval.substr(0, candidate) + '\r\n ' + rval.substr(candidate);
} else {
rval = rval.substr(0, candidate) +
'\r\n' + insert + rval.substr(candidate + 1);
}
length = (i - candidate - 1);
candidate = -1;
++i;
} else if(rval[i] === ' ' || rval[i] === '\t' || rval[i] === ',') {
candidate = i;
}
}
return rval;
}
function ltrim(str) {
return str.replace(/^\s+/, '');
}

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node_modules/node-forge/lib/pkcs1.js generated vendored Normal file
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/**
* Partial implementation of PKCS#1 v2.2: RSA-OEAP
*
* Modified but based on the following MIT and BSD licensed code:
*
* https://github.com/kjur/jsjws/blob/master/rsa.js:
*
* The 'jsjws'(JSON Web Signature JavaScript Library) License
*
* Copyright (c) 2012 Kenji Urushima
*
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
* copies of the Software, and to permit persons to whom the Software is
* furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
* OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN
* THE SOFTWARE.
*
* http://webrsa.cvs.sourceforge.net/viewvc/webrsa/Client/RSAES-OAEP.js?content-type=text%2Fplain:
*
* RSAES-OAEP.js
* $Id: RSAES-OAEP.js,v 1.1.1.1 2003/03/19 15:37:20 ellispritchard Exp $
* JavaScript Implementation of PKCS #1 v2.1 RSA CRYPTOGRAPHY STANDARD (RSA Laboratories, June 14, 2002)
* Copyright (C) Ellis Pritchard, Guardian Unlimited 2003.
* Contact: ellis@nukinetics.com
* Distributed under the BSD License.
*
* Official documentation: http://www.rsa.com/rsalabs/node.asp?id=2125
*
* @author Evan Jones (http://evanjones.ca/)
* @author Dave Longley
*
* Copyright (c) 2013-2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./util');
require('./random');
require('./sha1');
// shortcut for PKCS#1 API
var pkcs1 = module.exports = forge.pkcs1 = forge.pkcs1 || {};
/**
* Encode the given RSAES-OAEP message (M) using key, with optional label (L)
* and seed.
*
* This method does not perform RSA encryption, it only encodes the message
* using RSAES-OAEP.
*
* @param key the RSA key to use.
* @param message the message to encode.
* @param options the options to use:
* label an optional label to use.
* seed the seed to use.
* md the message digest object to use, undefined for SHA-1.
* mgf1 optional mgf1 parameters:
* md the message digest object to use for MGF1.
*
* @return the encoded message bytes.
*/
pkcs1.encode_rsa_oaep = function(key, message, options) {
// parse arguments
var label;
var seed;
var md;
var mgf1Md;
// legacy args (label, seed, md)
if(typeof options === 'string') {
label = options;
seed = arguments[3] || undefined;
md = arguments[4] || undefined;
} else if(options) {
label = options.label || undefined;
seed = options.seed || undefined;
md = options.md || undefined;
if(options.mgf1 && options.mgf1.md) {
mgf1Md = options.mgf1.md;
}
}
// default OAEP to SHA-1 message digest
if(!md) {
md = forge.md.sha1.create();
} else {
md.start();
}
// default MGF-1 to same as OAEP
if(!mgf1Md) {
mgf1Md = md;
}
// compute length in bytes and check output
var keyLength = Math.ceil(key.n.bitLength() / 8);
var maxLength = keyLength - 2 * md.digestLength - 2;
if(message.length > maxLength) {
var error = new Error('RSAES-OAEP input message length is too long.');
error.length = message.length;
error.maxLength = maxLength;
throw error;
}
if(!label) {
label = '';
}
md.update(label, 'raw');
var lHash = md.digest();
var PS = '';
var PS_length = maxLength - message.length;
for (var i = 0; i < PS_length; i++) {
PS += '\x00';
}
var DB = lHash.getBytes() + PS + '\x01' + message;
if(!seed) {
seed = forge.random.getBytes(md.digestLength);
} else if(seed.length !== md.digestLength) {
var error = new Error('Invalid RSAES-OAEP seed. The seed length must ' +
'match the digest length.');
error.seedLength = seed.length;
error.digestLength = md.digestLength;
throw error;
}
var dbMask = rsa_mgf1(seed, keyLength - md.digestLength - 1, mgf1Md);
var maskedDB = forge.util.xorBytes(DB, dbMask, DB.length);
var seedMask = rsa_mgf1(maskedDB, md.digestLength, mgf1Md);
var maskedSeed = forge.util.xorBytes(seed, seedMask, seed.length);
// return encoded message
return '\x00' + maskedSeed + maskedDB;
};
/**
* Decode the given RSAES-OAEP encoded message (EM) using key, with optional
* label (L).
*
* This method does not perform RSA decryption, it only decodes the message
* using RSAES-OAEP.
*
* @param key the RSA key to use.
* @param em the encoded message to decode.
* @param options the options to use:
* label an optional label to use.
* md the message digest object to use for OAEP, undefined for SHA-1.
* mgf1 optional mgf1 parameters:
* md the message digest object to use for MGF1.
*
* @return the decoded message bytes.
*/
pkcs1.decode_rsa_oaep = function(key, em, options) {
// parse args
var label;
var md;
var mgf1Md;
// legacy args
if(typeof options === 'string') {
label = options;
md = arguments[3] || undefined;
} else if(options) {
label = options.label || undefined;
md = options.md || undefined;
if(options.mgf1 && options.mgf1.md) {
mgf1Md = options.mgf1.md;
}
}
// compute length in bytes
var keyLength = Math.ceil(key.n.bitLength() / 8);
if(em.length !== keyLength) {
var error = new Error('RSAES-OAEP encoded message length is invalid.');
error.length = em.length;
error.expectedLength = keyLength;
throw error;
}
// default OAEP to SHA-1 message digest
if(md === undefined) {
md = forge.md.sha1.create();
} else {
md.start();
}
// default MGF-1 to same as OAEP
if(!mgf1Md) {
mgf1Md = md;
}
if(keyLength < 2 * md.digestLength + 2) {
throw new Error('RSAES-OAEP key is too short for the hash function.');
}
if(!label) {
label = '';
}
md.update(label, 'raw');
var lHash = md.digest().getBytes();
// split the message into its parts
var y = em.charAt(0);
var maskedSeed = em.substring(1, md.digestLength + 1);
var maskedDB = em.substring(1 + md.digestLength);
var seedMask = rsa_mgf1(maskedDB, md.digestLength, mgf1Md);
var seed = forge.util.xorBytes(maskedSeed, seedMask, maskedSeed.length);
var dbMask = rsa_mgf1(seed, keyLength - md.digestLength - 1, mgf1Md);
var db = forge.util.xorBytes(maskedDB, dbMask, maskedDB.length);
var lHashPrime = db.substring(0, md.digestLength);
// constant time check that all values match what is expected
var error = (y !== '\x00');
// constant time check lHash vs lHashPrime
for(var i = 0; i < md.digestLength; ++i) {
error |= (lHash.charAt(i) !== lHashPrime.charAt(i));
}
// "constant time" find the 0x1 byte separating the padding (zeros) from the
// message
// TODO: It must be possible to do this in a better/smarter way?
var in_ps = 1;
var index = md.digestLength;
for(var j = md.digestLength; j < db.length; j++) {
var code = db.charCodeAt(j);
var is_0 = (code & 0x1) ^ 0x1;
// non-zero if not 0 or 1 in the ps section
var error_mask = in_ps ? 0xfffe : 0x0000;
error |= (code & error_mask);
// latch in_ps to zero after we find 0x1
in_ps = in_ps & is_0;
index += in_ps;
}
if(error || db.charCodeAt(index) !== 0x1) {
throw new Error('Invalid RSAES-OAEP padding.');
}
return db.substring(index + 1);
};
function rsa_mgf1(seed, maskLength, hash) {
// default to SHA-1 message digest
if(!hash) {
hash = forge.md.sha1.create();
}
var t = '';
var count = Math.ceil(maskLength / hash.digestLength);
for(var i = 0; i < count; ++i) {
var c = String.fromCharCode(
(i >> 24) & 0xFF, (i >> 16) & 0xFF, (i >> 8) & 0xFF, i & 0xFF);
hash.start();
hash.update(seed + c);
t += hash.digest().getBytes();
}
return t.substring(0, maskLength);
}

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node_modules/node-forge/lib/pkcs12.js generated vendored Normal file

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1243
node_modules/node-forge/lib/pkcs7.js generated vendored Normal file

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node_modules/node-forge/lib/pkcs7asn1.js generated vendored Normal file
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/**
* Javascript implementation of ASN.1 validators for PKCS#7 v1.5.
*
* @author Dave Longley
* @author Stefan Siegl
*
* Copyright (c) 2012-2015 Digital Bazaar, Inc.
* Copyright (c) 2012 Stefan Siegl <stesie@brokenpipe.de>
*
* The ASN.1 representation of PKCS#7 is as follows
* (see RFC #2315 for details, http://www.ietf.org/rfc/rfc2315.txt):
*
* A PKCS#7 message consists of a ContentInfo on root level, which may
* contain any number of further ContentInfo nested into it.
*
* ContentInfo ::= SEQUENCE {
* contentType ContentType,
* content [0] EXPLICIT ANY DEFINED BY contentType OPTIONAL
* }
*
* ContentType ::= OBJECT IDENTIFIER
*
* EnvelopedData ::= SEQUENCE {
* version Version,
* recipientInfos RecipientInfos,
* encryptedContentInfo EncryptedContentInfo
* }
*
* EncryptedData ::= SEQUENCE {
* version Version,
* encryptedContentInfo EncryptedContentInfo
* }
*
* id-signedData OBJECT IDENTIFIER ::= { iso(1) member-body(2)
* us(840) rsadsi(113549) pkcs(1) pkcs7(7) 2 }
*
* SignedData ::= SEQUENCE {
* version INTEGER,
* digestAlgorithms DigestAlgorithmIdentifiers,
* contentInfo ContentInfo,
* certificates [0] IMPLICIT Certificates OPTIONAL,
* crls [1] IMPLICIT CertificateRevocationLists OPTIONAL,
* signerInfos SignerInfos
* }
*
* SignerInfos ::= SET OF SignerInfo
*
* SignerInfo ::= SEQUENCE {
* version Version,
* issuerAndSerialNumber IssuerAndSerialNumber,
* digestAlgorithm DigestAlgorithmIdentifier,
* authenticatedAttributes [0] IMPLICIT Attributes OPTIONAL,
* digestEncryptionAlgorithm DigestEncryptionAlgorithmIdentifier,
* encryptedDigest EncryptedDigest,
* unauthenticatedAttributes [1] IMPLICIT Attributes OPTIONAL
* }
*
* EncryptedDigest ::= OCTET STRING
*
* Attributes ::= SET OF Attribute
*
* Attribute ::= SEQUENCE {
* attrType OBJECT IDENTIFIER,
* attrValues SET OF AttributeValue
* }
*
* AttributeValue ::= ANY
*
* Version ::= INTEGER
*
* RecipientInfos ::= SET OF RecipientInfo
*
* EncryptedContentInfo ::= SEQUENCE {
* contentType ContentType,
* contentEncryptionAlgorithm ContentEncryptionAlgorithmIdentifier,
* encryptedContent [0] IMPLICIT EncryptedContent OPTIONAL
* }
*
* ContentEncryptionAlgorithmIdentifier ::= AlgorithmIdentifier
*
* The AlgorithmIdentifier contains an Object Identifier (OID) and parameters
* for the algorithm, if any. In the case of AES and DES3, there is only one,
* the IV.
*
* AlgorithmIdentifer ::= SEQUENCE {
* algorithm OBJECT IDENTIFIER,
* parameters ANY DEFINED BY algorithm OPTIONAL
* }
*
* EncryptedContent ::= OCTET STRING
*
* RecipientInfo ::= SEQUENCE {
* version Version,
* issuerAndSerialNumber IssuerAndSerialNumber,
* keyEncryptionAlgorithm KeyEncryptionAlgorithmIdentifier,
* encryptedKey EncryptedKey
* }
*
* IssuerAndSerialNumber ::= SEQUENCE {
* issuer Name,
* serialNumber CertificateSerialNumber
* }
*
* CertificateSerialNumber ::= INTEGER
*
* KeyEncryptionAlgorithmIdentifier ::= AlgorithmIdentifier
*
* EncryptedKey ::= OCTET STRING
*/
var forge = require('./forge');
require('./asn1');
require('./util');
// shortcut for ASN.1 API
var asn1 = forge.asn1;
// shortcut for PKCS#7 API
var p7v = module.exports = forge.pkcs7asn1 = forge.pkcs7asn1 || {};
forge.pkcs7 = forge.pkcs7 || {};
forge.pkcs7.asn1 = p7v;
var contentInfoValidator = {
name: 'ContentInfo',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'ContentInfo.ContentType',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.OID,
constructed: false,
capture: 'contentType'
}, {
name: 'ContentInfo.content',
tagClass: asn1.Class.CONTEXT_SPECIFIC,
type: 0,
constructed: true,
optional: true,
captureAsn1: 'content'
}]
};
p7v.contentInfoValidator = contentInfoValidator;
var encryptedContentInfoValidator = {
name: 'EncryptedContentInfo',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'EncryptedContentInfo.contentType',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.OID,
constructed: false,
capture: 'contentType'
}, {
name: 'EncryptedContentInfo.contentEncryptionAlgorithm',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'EncryptedContentInfo.contentEncryptionAlgorithm.algorithm',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.OID,
constructed: false,
capture: 'encAlgorithm'
}, {
name: 'EncryptedContentInfo.contentEncryptionAlgorithm.parameter',
tagClass: asn1.Class.UNIVERSAL,
captureAsn1: 'encParameter'
}]
}, {
name: 'EncryptedContentInfo.encryptedContent',
tagClass: asn1.Class.CONTEXT_SPECIFIC,
type: 0,
/* The PKCS#7 structure output by OpenSSL somewhat differs from what
* other implementations do generate.
*
* OpenSSL generates a structure like this:
* SEQUENCE {
* ...
* [0]
* 26 DA 67 D2 17 9C 45 3C B1 2A A8 59 2F 29 33 38
* C3 C3 DF 86 71 74 7A 19 9F 40 D0 29 BE 85 90 45
* ...
* }
*
* Whereas other implementations (and this PKCS#7 module) generate:
* SEQUENCE {
* ...
* [0] {
* OCTET STRING
* 26 DA 67 D2 17 9C 45 3C B1 2A A8 59 2F 29 33 38
* C3 C3 DF 86 71 74 7A 19 9F 40 D0 29 BE 85 90 45
* ...
* }
* }
*
* In order to support both, we just capture the context specific
* field here. The OCTET STRING bit is removed below.
*/
capture: 'encryptedContent',
captureAsn1: 'encryptedContentAsn1'
}]
};
p7v.envelopedDataValidator = {
name: 'EnvelopedData',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'EnvelopedData.Version',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.INTEGER,
constructed: false,
capture: 'version'
}, {
name: 'EnvelopedData.RecipientInfos',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SET,
constructed: true,
captureAsn1: 'recipientInfos'
}].concat(encryptedContentInfoValidator)
};
p7v.encryptedDataValidator = {
name: 'EncryptedData',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'EncryptedData.Version',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.INTEGER,
constructed: false,
capture: 'version'
}].concat(encryptedContentInfoValidator)
};
var signerValidator = {
name: 'SignerInfo',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'SignerInfo.version',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.INTEGER,
constructed: false
}, {
name: 'SignerInfo.issuerAndSerialNumber',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'SignerInfo.issuerAndSerialNumber.issuer',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
captureAsn1: 'issuer'
}, {
name: 'SignerInfo.issuerAndSerialNumber.serialNumber',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.INTEGER,
constructed: false,
capture: 'serial'
}]
}, {
name: 'SignerInfo.digestAlgorithm',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'SignerInfo.digestAlgorithm.algorithm',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.OID,
constructed: false,
capture: 'digestAlgorithm'
}, {
name: 'SignerInfo.digestAlgorithm.parameter',
tagClass: asn1.Class.UNIVERSAL,
constructed: false,
captureAsn1: 'digestParameter',
optional: true
}]
}, {
name: 'SignerInfo.authenticatedAttributes',
tagClass: asn1.Class.CONTEXT_SPECIFIC,
type: 0,
constructed: true,
optional: true,
capture: 'authenticatedAttributes'
}, {
name: 'SignerInfo.digestEncryptionAlgorithm',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
capture: 'signatureAlgorithm'
}, {
name: 'SignerInfo.encryptedDigest',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.OCTETSTRING,
constructed: false,
capture: 'signature'
}, {
name: 'SignerInfo.unauthenticatedAttributes',
tagClass: asn1.Class.CONTEXT_SPECIFIC,
type: 1,
constructed: true,
optional: true,
capture: 'unauthenticatedAttributes'
}]
};
p7v.signedDataValidator = {
name: 'SignedData',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'SignedData.Version',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.INTEGER,
constructed: false,
capture: 'version'
}, {
name: 'SignedData.DigestAlgorithms',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SET,
constructed: true,
captureAsn1: 'digestAlgorithms'
},
contentInfoValidator,
{
name: 'SignedData.Certificates',
tagClass: asn1.Class.CONTEXT_SPECIFIC,
type: 0,
optional: true,
captureAsn1: 'certificates'
}, {
name: 'SignedData.CertificateRevocationLists',
tagClass: asn1.Class.CONTEXT_SPECIFIC,
type: 1,
optional: true,
captureAsn1: 'crls'
}, {
name: 'SignedData.SignerInfos',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SET,
capture: 'signerInfos',
optional: true,
value: [signerValidator]
}]
};
p7v.recipientInfoValidator = {
name: 'RecipientInfo',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'RecipientInfo.version',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.INTEGER,
constructed: false,
capture: 'version'
}, {
name: 'RecipientInfo.issuerAndSerial',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'RecipientInfo.issuerAndSerial.issuer',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
captureAsn1: 'issuer'
}, {
name: 'RecipientInfo.issuerAndSerial.serialNumber',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.INTEGER,
constructed: false,
capture: 'serial'
}]
}, {
name: 'RecipientInfo.keyEncryptionAlgorithm',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.SEQUENCE,
constructed: true,
value: [{
name: 'RecipientInfo.keyEncryptionAlgorithm.algorithm',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.OID,
constructed: false,
capture: 'encAlgorithm'
}, {
name: 'RecipientInfo.keyEncryptionAlgorithm.parameter',
tagClass: asn1.Class.UNIVERSAL,
constructed: false,
captureAsn1: 'encParameter'
}]
}, {
name: 'RecipientInfo.encryptedKey',
tagClass: asn1.Class.UNIVERSAL,
type: asn1.Type.OCTETSTRING,
constructed: false,
capture: 'encKey'
}]
};

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node_modules/node-forge/lib/pki.js generated vendored Normal file
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/**
* Javascript implementation of a basic Public Key Infrastructure, including
* support for RSA public and private keys.
*
* @author Dave Longley
*
* Copyright (c) 2010-2013 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./asn1');
require('./oids');
require('./pbe');
require('./pem');
require('./pbkdf2');
require('./pkcs12');
require('./pss');
require('./rsa');
require('./util');
require('./x509');
// shortcut for asn.1 API
var asn1 = forge.asn1;
/* Public Key Infrastructure (PKI) implementation. */
var pki = module.exports = forge.pki = forge.pki || {};
/**
* NOTE: THIS METHOD IS DEPRECATED. Use pem.decode() instead.
*
* Converts PEM-formatted data to DER.
*
* @param pem the PEM-formatted data.
*
* @return the DER-formatted data.
*/
pki.pemToDer = function(pem) {
var msg = forge.pem.decode(pem)[0];
if(msg.procType && msg.procType.type === 'ENCRYPTED') {
throw new Error('Could not convert PEM to DER; PEM is encrypted.');
}
return forge.util.createBuffer(msg.body);
};
/**
* Converts an RSA private key from PEM format.
*
* @param pem the PEM-formatted private key.
*
* @return the private key.
*/
pki.privateKeyFromPem = function(pem) {
var msg = forge.pem.decode(pem)[0];
if(msg.type !== 'PRIVATE KEY' && msg.type !== 'RSA PRIVATE KEY') {
var error = new Error('Could not convert private key from PEM; PEM ' +
'header type is not "PRIVATE KEY" or "RSA PRIVATE KEY".');
error.headerType = msg.type;
throw error;
}
if(msg.procType && msg.procType.type === 'ENCRYPTED') {
throw new Error('Could not convert private key from PEM; PEM is encrypted.');
}
// convert DER to ASN.1 object
var obj = asn1.fromDer(msg.body);
return pki.privateKeyFromAsn1(obj);
};
/**
* Converts an RSA private key to PEM format.
*
* @param key the private key.
* @param maxline the maximum characters per line, defaults to 64.
*
* @return the PEM-formatted private key.
*/
pki.privateKeyToPem = function(key, maxline) {
// convert to ASN.1, then DER, then PEM-encode
var msg = {
type: 'RSA PRIVATE KEY',
body: asn1.toDer(pki.privateKeyToAsn1(key)).getBytes()
};
return forge.pem.encode(msg, {maxline: maxline});
};
/**
* Converts a PrivateKeyInfo to PEM format.
*
* @param pki the PrivateKeyInfo.
* @param maxline the maximum characters per line, defaults to 64.
*
* @return the PEM-formatted private key.
*/
pki.privateKeyInfoToPem = function(pki, maxline) {
// convert to DER, then PEM-encode
var msg = {
type: 'PRIVATE KEY',
body: asn1.toDer(pki).getBytes()
};
return forge.pem.encode(msg, {maxline: maxline});
};

297
node_modules/node-forge/lib/prime.js generated vendored Normal file
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/**
* Prime number generation API.
*
* @author Dave Longley
*
* Copyright (c) 2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./util');
require('./jsbn');
require('./random');
(function() {
// forge.prime already defined
if(forge.prime) {
module.exports = forge.prime;
return;
}
/* PRIME API */
var prime = module.exports = forge.prime = forge.prime || {};
var BigInteger = forge.jsbn.BigInteger;
// primes are 30k+i for i = 1, 7, 11, 13, 17, 19, 23, 29
var GCD_30_DELTA = [6, 4, 2, 4, 2, 4, 6, 2];
var THIRTY = new BigInteger(null);
THIRTY.fromInt(30);
var op_or = function(x, y) {return x|y;};
/**
* Generates a random probable prime with the given number of bits.
*
* Alternative algorithms can be specified by name as a string or as an
* object with custom options like so:
*
* {
* name: 'PRIMEINC',
* options: {
* maxBlockTime: <the maximum amount of time to block the main
* thread before allowing I/O other JS to run>,
* millerRabinTests: <the number of miller-rabin tests to run>,
* workerScript: <the worker script URL>,
* workers: <the number of web workers (if supported) to use,
* -1 to use estimated cores minus one>.
* workLoad: the size of the work load, ie: number of possible prime
* numbers for each web worker to check per work assignment,
* (default: 100).
* }
* }
*
* @param bits the number of bits for the prime number.
* @param options the options to use.
* [algorithm] the algorithm to use (default: 'PRIMEINC').
* [prng] a custom crypto-secure pseudo-random number generator to use,
* that must define "getBytesSync".
*
* @return callback(err, num) called once the operation completes.
*/
prime.generateProbablePrime = function(bits, options, callback) {
if(typeof options === 'function') {
callback = options;
options = {};
}
options = options || {};
// default to PRIMEINC algorithm
var algorithm = options.algorithm || 'PRIMEINC';
if(typeof algorithm === 'string') {
algorithm = {name: algorithm};
}
algorithm.options = algorithm.options || {};
// create prng with api that matches BigInteger secure random
var prng = options.prng || forge.random;
var rng = {
// x is an array to fill with bytes
nextBytes: function(x) {
var b = prng.getBytesSync(x.length);
for(var i = 0; i < x.length; ++i) {
x[i] = b.charCodeAt(i);
}
}
};
if(algorithm.name === 'PRIMEINC') {
return primeincFindPrime(bits, rng, algorithm.options, callback);
}
throw new Error('Invalid prime generation algorithm: ' + algorithm.name);
};
function primeincFindPrime(bits, rng, options, callback) {
if('workers' in options) {
return primeincFindPrimeWithWorkers(bits, rng, options, callback);
}
return primeincFindPrimeWithoutWorkers(bits, rng, options, callback);
}
function primeincFindPrimeWithoutWorkers(bits, rng, options, callback) {
// initialize random number
var num = generateRandom(bits, rng);
/* Note: All primes are of the form 30k+i for i < 30 and gcd(30, i)=1. The
number we are given is always aligned at 30k + 1. Each time the number is
determined not to be prime we add to get to the next 'i', eg: if the number
was at 30k + 1 we add 6. */
var deltaIdx = 0;
// get required number of MR tests
var mrTests = getMillerRabinTests(num.bitLength());
if('millerRabinTests' in options) {
mrTests = options.millerRabinTests;
}
// find prime nearest to 'num' for maxBlockTime ms
// 10 ms gives 5ms of leeway for other calculations before dropping
// below 60fps (1000/60 == 16.67), but in reality, the number will
// likely be higher due to an 'atomic' big int modPow
var maxBlockTime = 10;
if('maxBlockTime' in options) {
maxBlockTime = options.maxBlockTime;
}
_primeinc(num, bits, rng, deltaIdx, mrTests, maxBlockTime, callback);
}
function _primeinc(num, bits, rng, deltaIdx, mrTests, maxBlockTime, callback) {
var start = +new Date();
do {
// overflow, regenerate random number
if(num.bitLength() > bits) {
num = generateRandom(bits, rng);
}
// do primality test
if(num.isProbablePrime(mrTests)) {
return callback(null, num);
}
// get next potential prime
num.dAddOffset(GCD_30_DELTA[deltaIdx++ % 8], 0);
} while(maxBlockTime < 0 || (+new Date() - start < maxBlockTime));
// keep trying later
forge.util.setImmediate(function() {
_primeinc(num, bits, rng, deltaIdx, mrTests, maxBlockTime, callback);
});
}
// NOTE: This algorithm is indeterminate in nature because workers
// run in parallel looking at different segments of numbers. Even if this
// algorithm is run twice with the same input from a predictable RNG, it
// may produce different outputs.
function primeincFindPrimeWithWorkers(bits, rng, options, callback) {
// web workers unavailable
if(typeof Worker === 'undefined') {
return primeincFindPrimeWithoutWorkers(bits, rng, options, callback);
}
// initialize random number
var num = generateRandom(bits, rng);
// use web workers to generate keys
var numWorkers = options.workers;
var workLoad = options.workLoad || 100;
var range = workLoad * 30 / 8;
var workerScript = options.workerScript || 'forge/prime.worker.js';
if(numWorkers === -1) {
return forge.util.estimateCores(function(err, cores) {
if(err) {
// default to 2
cores = 2;
}
numWorkers = cores - 1;
generate();
});
}
generate();
function generate() {
// require at least 1 worker
numWorkers = Math.max(1, numWorkers);
// TODO: consider optimizing by starting workers outside getPrime() ...
// note that in order to clean up they will have to be made internally
// asynchronous which may actually be slower
// start workers immediately
var workers = [];
for(var i = 0; i < numWorkers; ++i) {
// FIXME: fix path or use blob URLs
workers[i] = new Worker(workerScript);
}
var running = numWorkers;
// listen for requests from workers and assign ranges to find prime
for(var i = 0; i < numWorkers; ++i) {
workers[i].addEventListener('message', workerMessage);
}
/* Note: The distribution of random numbers is unknown. Therefore, each
web worker is continuously allocated a range of numbers to check for a
random number until one is found.
Every 30 numbers will be checked just 8 times, because prime numbers
have the form:
30k+i, for i < 30 and gcd(30, i)=1 (there are 8 values of i for this)
Therefore, if we want a web worker to run N checks before asking for
a new range of numbers, each range must contain N*30/8 numbers.
For 100 checks (workLoad), this is a range of 375. */
var found = false;
function workerMessage(e) {
// ignore message, prime already found
if(found) {
return;
}
--running;
var data = e.data;
if(data.found) {
// terminate all workers
for(var i = 0; i < workers.length; ++i) {
workers[i].terminate();
}
found = true;
return callback(null, new BigInteger(data.prime, 16));
}
// overflow, regenerate random number
if(num.bitLength() > bits) {
num = generateRandom(bits, rng);
}
// assign new range to check
var hex = num.toString(16);
// start prime search
e.target.postMessage({
hex: hex,
workLoad: workLoad
});
num.dAddOffset(range, 0);
}
}
}
/**
* Generates a random number using the given number of bits and RNG.
*
* @param bits the number of bits for the number.
* @param rng the random number generator to use.
*
* @return the random number.
*/
function generateRandom(bits, rng) {
var num = new BigInteger(bits, rng);
// force MSB set
var bits1 = bits - 1;
if(!num.testBit(bits1)) {
num.bitwiseTo(BigInteger.ONE.shiftLeft(bits1), op_or, num);
}
// align number on 30k+1 boundary
num.dAddOffset(31 - num.mod(THIRTY).byteValue(), 0);
return num;
}
/**
* Returns the required number of Miller-Rabin tests to generate a
* prime with an error probability of (1/2)^80.
*
* See Handbook of Applied Cryptography Chapter 4, Table 4.4.
*
* @param bits the bit size.
*
* @return the required number of iterations.
*/
function getMillerRabinTests(bits) {
if(bits <= 100) return 27;
if(bits <= 150) return 18;
if(bits <= 200) return 15;
if(bits <= 250) return 12;
if(bits <= 300) return 9;
if(bits <= 350) return 8;
if(bits <= 400) return 7;
if(bits <= 500) return 6;
if(bits <= 600) return 5;
if(bits <= 800) return 4;
if(bits <= 1250) return 3;
return 2;
}
})();

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/**
* RSA Key Generation Worker.
*
* @author Dave Longley
*
* Copyright (c) 2013 Digital Bazaar, Inc.
*/
// worker is built using CommonJS syntax to include all code in one worker file
//importScripts('jsbn.js');
var forge = require('./forge');
require('./jsbn');
// prime constants
var LOW_PRIMES = [2,3,5,7,11,13,17,19,23,29,31,37,41,43,47,53,59,61,67,71,73,79,83,89,97,101,103,107,109,113,127,131,137,139,149,151,157,163,167,173,179,181,191,193,197,199,211,223,227,229,233,239,241,251,257,263,269,271,277,281,283,293,307,311,313,317,331,337,347,349,353,359,367,373,379,383,389,397,401,409,419,421,431,433,439,443,449,457,461,463,467,479,487,491,499,503,509,521,523,541,547,557,563,569,571,577,587,593,599,601,607,613,617,619,631,641,643,647,653,659,661,673,677,683,691,701,709,719,727,733,739,743,751,757,761,769,773,787,797,809,811,821,823,827,829,839,853,857,859,863,877,881,883,887,907,911,919,929,937,941,947,953,967,971,977,983,991,997];
var LP_LIMIT = (1 << 26) / LOW_PRIMES[LOW_PRIMES.length - 1];
var BigInteger = forge.jsbn.BigInteger;
var BIG_TWO = new BigInteger(null);
BIG_TWO.fromInt(2);
self.addEventListener('message', function(e) {
var result = findPrime(e.data);
self.postMessage(result);
});
// start receiving ranges to check
self.postMessage({found: false});
// primes are 30k+i for i = 1, 7, 11, 13, 17, 19, 23, 29
var GCD_30_DELTA = [6, 4, 2, 4, 2, 4, 6, 2];
function findPrime(data) {
// TODO: abstract based on data.algorithm (PRIMEINC vs. others)
// create BigInteger from given random bytes
var num = new BigInteger(data.hex, 16);
/* Note: All primes are of the form 30k+i for i < 30 and gcd(30, i)=1. The
number we are given is always aligned at 30k + 1. Each time the number is
determined not to be prime we add to get to the next 'i', eg: if the number
was at 30k + 1 we add 6. */
var deltaIdx = 0;
// find nearest prime
var workLoad = data.workLoad;
for(var i = 0; i < workLoad; ++i) {
// do primality test
if(isProbablePrime(num)) {
return {found: true, prime: num.toString(16)};
}
// get next potential prime
num.dAddOffset(GCD_30_DELTA[deltaIdx++ % 8], 0);
}
return {found: false};
}
function isProbablePrime(n) {
// divide by low primes, ignore even checks, etc (n alread aligned properly)
var i = 1;
while(i < LOW_PRIMES.length) {
var m = LOW_PRIMES[i];
var j = i + 1;
while(j < LOW_PRIMES.length && m < LP_LIMIT) {
m *= LOW_PRIMES[j++];
}
m = n.modInt(m);
while(i < j) {
if(m % LOW_PRIMES[i++] === 0) {
return false;
}
}
}
return runMillerRabin(n);
}
// HAC 4.24, Miller-Rabin
function runMillerRabin(n) {
// n1 = n - 1
var n1 = n.subtract(BigInteger.ONE);
// get s and d such that n1 = 2^s * d
var s = n1.getLowestSetBit();
if(s <= 0) {
return false;
}
var d = n1.shiftRight(s);
var k = _getMillerRabinTests(n.bitLength());
var prng = getPrng();
var a;
for(var i = 0; i < k; ++i) {
// select witness 'a' at random from between 1 and n - 1
do {
a = new BigInteger(n.bitLength(), prng);
} while(a.compareTo(BigInteger.ONE) <= 0 || a.compareTo(n1) >= 0);
/* See if 'a' is a composite witness. */
// x = a^d mod n
var x = a.modPow(d, n);
// probably prime
if(x.compareTo(BigInteger.ONE) === 0 || x.compareTo(n1) === 0) {
continue;
}
var j = s;
while(--j) {
// x = x^2 mod a
x = x.modPowInt(2, n);
// 'n' is composite because no previous x == -1 mod n
if(x.compareTo(BigInteger.ONE) === 0) {
return false;
}
// x == -1 mod n, so probably prime
if(x.compareTo(n1) === 0) {
break;
}
}
// 'x' is first_x^(n1/2) and is not +/- 1, so 'n' is not prime
if(j === 0) {
return false;
}
}
return true;
}
// get pseudo random number generator
function getPrng() {
// create prng with api that matches BigInteger secure random
return {
// x is an array to fill with bytes
nextBytes: function(x) {
for(var i = 0; i < x.length; ++i) {
x[i] = Math.floor(Math.random() * 0xFF);
}
}
};
}
/**
* Returns the required number of Miller-Rabin tests to generate a
* prime with an error probability of (1/2)^80.
*
* See Handbook of Applied Cryptography Chapter 4, Table 4.4.
*
* @param bits the bit size.
*
* @return the required number of iterations.
*/
function _getMillerRabinTests(bits) {
if(bits <= 100) return 27;
if(bits <= 150) return 18;
if(bits <= 200) return 15;
if(bits <= 250) return 12;
if(bits <= 300) return 9;
if(bits <= 350) return 8;
if(bits <= 400) return 7;
if(bits <= 500) return 6;
if(bits <= 600) return 5;
if(bits <= 800) return 4;
if(bits <= 1250) return 3;
return 2;
}

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/**
* A javascript implementation of a cryptographically-secure
* Pseudo Random Number Generator (PRNG). The Fortuna algorithm is followed
* here though the use of SHA-256 is not enforced; when generating an
* a PRNG context, the hashing algorithm and block cipher used for
* the generator are specified via a plugin.
*
* @author Dave Longley
*
* Copyright (c) 2010-2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./util');
var _crypto = null;
if(forge.util.isNodejs && !forge.options.usePureJavaScript &&
!process.versions['node-webkit']) {
_crypto = require('crypto');
}
/* PRNG API */
var prng = module.exports = forge.prng = forge.prng || {};
/**
* Creates a new PRNG context.
*
* A PRNG plugin must be passed in that will provide:
*
* 1. A function that initializes the key and seed of a PRNG context. It
* will be given a 16 byte key and a 16 byte seed. Any key expansion
* or transformation of the seed from a byte string into an array of
* integers (or similar) should be performed.
* 2. The cryptographic function used by the generator. It takes a key and
* a seed.
* 3. A seed increment function. It takes the seed and returns seed + 1.
* 4. An api to create a message digest.
*
* For an example, see random.js.
*
* @param plugin the PRNG plugin to use.
*/
prng.create = function(plugin) {
var ctx = {
plugin: plugin,
key: null,
seed: null,
time: null,
// number of reseeds so far
reseeds: 0,
// amount of data generated so far
generated: 0,
// no initial key bytes
keyBytes: ''
};
// create 32 entropy pools (each is a message digest)
var md = plugin.md;
var pools = new Array(32);
for(var i = 0; i < 32; ++i) {
pools[i] = md.create();
}
ctx.pools = pools;
// entropy pools are written to cyclically, starting at index 0
ctx.pool = 0;
/**
* Generates random bytes. The bytes may be generated synchronously or
* asynchronously. Web workers must use the asynchronous interface or
* else the behavior is undefined.
*
* @param count the number of random bytes to generate.
* @param [callback(err, bytes)] called once the operation completes.
*
* @return count random bytes as a string.
*/
ctx.generate = function(count, callback) {
// do synchronously
if(!callback) {
return ctx.generateSync(count);
}
// simple generator using counter-based CBC
var cipher = ctx.plugin.cipher;
var increment = ctx.plugin.increment;
var formatKey = ctx.plugin.formatKey;
var formatSeed = ctx.plugin.formatSeed;
var b = forge.util.createBuffer();
// paranoid deviation from Fortuna:
// reset key for every request to protect previously
// generated random bytes should the key be discovered;
// there is no 100ms based reseeding because of this
// forced reseed for every `generate` call
ctx.key = null;
generate();
function generate(err) {
if(err) {
return callback(err);
}
// sufficient bytes generated
if(b.length() >= count) {
return callback(null, b.getBytes(count));
}
// if amount of data generated is greater than 1 MiB, trigger reseed
if(ctx.generated > 0xfffff) {
ctx.key = null;
}
if(ctx.key === null) {
// prevent stack overflow
return forge.util.nextTick(function() {
_reseed(generate);
});
}
// generate the random bytes
var bytes = cipher(ctx.key, ctx.seed);
ctx.generated += bytes.length;
b.putBytes(bytes);
// generate bytes for a new key and seed
ctx.key = formatKey(cipher(ctx.key, increment(ctx.seed)));
ctx.seed = formatSeed(cipher(ctx.key, ctx.seed));
forge.util.setImmediate(generate);
}
};
/**
* Generates random bytes synchronously.
*
* @param count the number of random bytes to generate.
*
* @return count random bytes as a string.
*/
ctx.generateSync = function(count) {
// simple generator using counter-based CBC
var cipher = ctx.plugin.cipher;
var increment = ctx.plugin.increment;
var formatKey = ctx.plugin.formatKey;
var formatSeed = ctx.plugin.formatSeed;
// paranoid deviation from Fortuna:
// reset key for every request to protect previously
// generated random bytes should the key be discovered;
// there is no 100ms based reseeding because of this
// forced reseed for every `generateSync` call
ctx.key = null;
var b = forge.util.createBuffer();
while(b.length() < count) {
// if amount of data generated is greater than 1 MiB, trigger reseed
if(ctx.generated > 0xfffff) {
ctx.key = null;
}
if(ctx.key === null) {
_reseedSync();
}
// generate the random bytes
var bytes = cipher(ctx.key, ctx.seed);
ctx.generated += bytes.length;
b.putBytes(bytes);
// generate bytes for a new key and seed
ctx.key = formatKey(cipher(ctx.key, increment(ctx.seed)));
ctx.seed = formatSeed(cipher(ctx.key, ctx.seed));
}
return b.getBytes(count);
};
/**
* Private function that asynchronously reseeds a generator.
*
* @param callback(err) called once the operation completes.
*/
function _reseed(callback) {
if(ctx.pools[0].messageLength >= 32) {
_seed();
return callback();
}
// not enough seed data...
var needed = (32 - ctx.pools[0].messageLength) << 5;
ctx.seedFile(needed, function(err, bytes) {
if(err) {
return callback(err);
}
ctx.collect(bytes);
_seed();
callback();
});
}
/**
* Private function that synchronously reseeds a generator.
*/
function _reseedSync() {
if(ctx.pools[0].messageLength >= 32) {
return _seed();
}
// not enough seed data...
var needed = (32 - ctx.pools[0].messageLength) << 5;
ctx.collect(ctx.seedFileSync(needed));
_seed();
}
/**
* Private function that seeds a generator once enough bytes are available.
*/
function _seed() {
// update reseed count
ctx.reseeds = (ctx.reseeds === 0xffffffff) ? 0 : ctx.reseeds + 1;
// goal is to update `key` via:
// key = hash(key + s)
// where 's' is all collected entropy from selected pools, then...
// create a plugin-based message digest
var md = ctx.plugin.md.create();
// consume current key bytes
md.update(ctx.keyBytes);
// digest the entropy of pools whose index k meet the
// condition 'n mod 2^k == 0' where n is the number of reseeds
var _2powK = 1;
for(var k = 0; k < 32; ++k) {
if(ctx.reseeds % _2powK === 0) {
md.update(ctx.pools[k].digest().getBytes());
ctx.pools[k].start();
}
_2powK = _2powK << 1;
}
// get digest for key bytes
ctx.keyBytes = md.digest().getBytes();
// paranoid deviation from Fortuna:
// update `seed` via `seed = hash(key)`
// instead of initializing to zero once and only
// ever incrementing it
md.start();
md.update(ctx.keyBytes);
var seedBytes = md.digest().getBytes();
// update state
ctx.key = ctx.plugin.formatKey(ctx.keyBytes);
ctx.seed = ctx.plugin.formatSeed(seedBytes);
ctx.generated = 0;
}
/**
* The built-in default seedFile. This seedFile is used when entropy
* is needed immediately.
*
* @param needed the number of bytes that are needed.
*
* @return the random bytes.
*/
function defaultSeedFile(needed) {
// use window.crypto.getRandomValues strong source of entropy if available
var getRandomValues = null;
if(typeof window !== 'undefined') {
var _crypto = window.crypto || window.msCrypto;
if(_crypto && _crypto.getRandomValues) {
getRandomValues = function(arr) {
return _crypto.getRandomValues(arr);
};
}
}
var b = forge.util.createBuffer();
if(getRandomValues) {
while(b.length() < needed) {
// max byte length is 65536 before QuotaExceededError is thrown
// http://www.w3.org/TR/WebCryptoAPI/#RandomSource-method-getRandomValues
var count = Math.max(1, Math.min(needed - b.length(), 65536) / 4);
var entropy = new Uint32Array(Math.floor(count));
try {
getRandomValues(entropy);
for(var i = 0; i < entropy.length; ++i) {
b.putInt32(entropy[i]);
}
} catch(e) {
/* only ignore QuotaExceededError */
if(!(typeof QuotaExceededError !== 'undefined' &&
e instanceof QuotaExceededError)) {
throw e;
}
}
}
}
// be sad and add some weak random data
if(b.length() < needed) {
/* Draws from Park-Miller "minimal standard" 31 bit PRNG,
implemented with David G. Carta's optimization: with 32 bit math
and without division (Public Domain). */
var hi, lo, next;
var seed = Math.floor(Math.random() * 0x010000);
while(b.length() < needed) {
lo = 16807 * (seed & 0xFFFF);
hi = 16807 * (seed >> 16);
lo += (hi & 0x7FFF) << 16;
lo += hi >> 15;
lo = (lo & 0x7FFFFFFF) + (lo >> 31);
seed = lo & 0xFFFFFFFF;
// consume lower 3 bytes of seed
for(var i = 0; i < 3; ++i) {
// throw in more pseudo random
next = seed >>> (i << 3);
next ^= Math.floor(Math.random() * 0x0100);
b.putByte(String.fromCharCode(next & 0xFF));
}
}
}
return b.getBytes(needed);
}
// initialize seed file APIs
if(_crypto) {
// use nodejs async API
ctx.seedFile = function(needed, callback) {
_crypto.randomBytes(needed, function(err, bytes) {
if(err) {
return callback(err);
}
callback(null, bytes.toString());
});
};
// use nodejs sync API
ctx.seedFileSync = function(needed) {
return _crypto.randomBytes(needed).toString();
};
} else {
ctx.seedFile = function(needed, callback) {
try {
callback(null, defaultSeedFile(needed));
} catch(e) {
callback(e);
}
};
ctx.seedFileSync = defaultSeedFile;
}
/**
* Adds entropy to a prng ctx's accumulator.
*
* @param bytes the bytes of entropy as a string.
*/
ctx.collect = function(bytes) {
// iterate over pools distributing entropy cyclically
var count = bytes.length;
for(var i = 0; i < count; ++i) {
ctx.pools[ctx.pool].update(bytes.substr(i, 1));
ctx.pool = (ctx.pool === 31) ? 0 : ctx.pool + 1;
}
};
/**
* Collects an integer of n bits.
*
* @param i the integer entropy.
* @param n the number of bits in the integer.
*/
ctx.collectInt = function(i, n) {
var bytes = '';
for(var x = 0; x < n; x += 8) {
bytes += String.fromCharCode((i >> x) & 0xFF);
}
ctx.collect(bytes);
};
/**
* Registers a Web Worker to receive immediate entropy from the main thread.
* This method is required until Web Workers can access the native crypto
* API. This method should be called twice for each created worker, once in
* the main thread, and once in the worker itself.
*
* @param worker the worker to register.
*/
ctx.registerWorker = function(worker) {
// worker receives random bytes
if(worker === self) {
ctx.seedFile = function(needed, callback) {
function listener(e) {
var data = e.data;
if(data.forge && data.forge.prng) {
self.removeEventListener('message', listener);
callback(data.forge.prng.err, data.forge.prng.bytes);
}
}
self.addEventListener('message', listener);
self.postMessage({forge: {prng: {needed: needed}}});
};
} else {
// main thread sends random bytes upon request
var listener = function(e) {
var data = e.data;
if(data.forge && data.forge.prng) {
ctx.seedFile(data.forge.prng.needed, function(err, bytes) {
worker.postMessage({forge: {prng: {err: err, bytes: bytes}}});
});
}
};
// TODO: do we need to remove the event listener when the worker dies?
worker.addEventListener('message', listener);
}
};
return ctx;
};

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/**
* Javascript implementation of PKCS#1 PSS signature padding.
*
* @author Stefan Siegl
*
* Copyright (c) 2012 Stefan Siegl <stesie@brokenpipe.de>
*/
var forge = require('./forge');
require('./random');
require('./util');
// shortcut for PSS API
var pss = module.exports = forge.pss = forge.pss || {};
/**
* Creates a PSS signature scheme object.
*
* There are several ways to provide a salt for encoding:
*
* 1. Specify the saltLength only and the built-in PRNG will generate it.
* 2. Specify the saltLength and a custom PRNG with 'getBytesSync' defined that
* will be used.
* 3. Specify the salt itself as a forge.util.ByteBuffer.
*
* @param options the options to use:
* md the message digest object to use, a forge md instance.
* mgf the mask generation function to use, a forge mgf instance.
* [saltLength] the length of the salt in octets.
* [prng] the pseudo-random number generator to use to produce a salt.
* [salt] the salt to use when encoding.
*
* @return a signature scheme object.
*/
pss.create = function(options) {
// backwards compatibility w/legacy args: hash, mgf, sLen
if(arguments.length === 3) {
options = {
md: arguments[0],
mgf: arguments[1],
saltLength: arguments[2]
};
}
var hash = options.md;
var mgf = options.mgf;
var hLen = hash.digestLength;
var salt_ = options.salt || null;
if(typeof salt_ === 'string') {
// assume binary-encoded string
salt_ = forge.util.createBuffer(salt_);
}
var sLen;
if('saltLength' in options) {
sLen = options.saltLength;
} else if(salt_ !== null) {
sLen = salt_.length();
} else {
throw new Error('Salt length not specified or specific salt not given.');
}
if(salt_ !== null && salt_.length() !== sLen) {
throw new Error('Given salt length does not match length of given salt.');
}
var prng = options.prng || forge.random;
var pssobj = {};
/**
* Encodes a PSS signature.
*
* This function implements EMSA-PSS-ENCODE as per RFC 3447, section 9.1.1.
*
* @param md the message digest object with the hash to sign.
* @param modsBits the length of the RSA modulus in bits.
*
* @return the encoded message as a binary-encoded string of length
* ceil((modBits - 1) / 8).
*/
pssobj.encode = function(md, modBits) {
var i;
var emBits = modBits - 1;
var emLen = Math.ceil(emBits / 8);
/* 2. Let mHash = Hash(M), an octet string of length hLen. */
var mHash = md.digest().getBytes();
/* 3. If emLen < hLen + sLen + 2, output "encoding error" and stop. */
if(emLen < hLen + sLen + 2) {
throw new Error('Message is too long to encrypt.');
}
/* 4. Generate a random octet string salt of length sLen; if sLen = 0,
* then salt is the empty string. */
var salt;
if(salt_ === null) {
salt = prng.getBytesSync(sLen);
} else {
salt = salt_.bytes();
}
/* 5. Let M' = (0x)00 00 00 00 00 00 00 00 || mHash || salt; */
var m_ = new forge.util.ByteBuffer();
m_.fillWithByte(0, 8);
m_.putBytes(mHash);
m_.putBytes(salt);
/* 6. Let H = Hash(M'), an octet string of length hLen. */
hash.start();
hash.update(m_.getBytes());
var h = hash.digest().getBytes();
/* 7. Generate an octet string PS consisting of emLen - sLen - hLen - 2
* zero octets. The length of PS may be 0. */
var ps = new forge.util.ByteBuffer();
ps.fillWithByte(0, emLen - sLen - hLen - 2);
/* 8. Let DB = PS || 0x01 || salt; DB is an octet string of length
* emLen - hLen - 1. */
ps.putByte(0x01);
ps.putBytes(salt);
var db = ps.getBytes();
/* 9. Let dbMask = MGF(H, emLen - hLen - 1). */
var maskLen = emLen - hLen - 1;
var dbMask = mgf.generate(h, maskLen);
/* 10. Let maskedDB = DB \xor dbMask. */
var maskedDB = '';
for(i = 0; i < maskLen; i++) {
maskedDB += String.fromCharCode(db.charCodeAt(i) ^ dbMask.charCodeAt(i));
}
/* 11. Set the leftmost 8emLen - emBits bits of the leftmost octet in
* maskedDB to zero. */
var mask = (0xFF00 >> (8 * emLen - emBits)) & 0xFF;
maskedDB = String.fromCharCode(maskedDB.charCodeAt(0) & ~mask) +
maskedDB.substr(1);
/* 12. Let EM = maskedDB || H || 0xbc.
* 13. Output EM. */
return maskedDB + h + String.fromCharCode(0xbc);
};
/**
* Verifies a PSS signature.
*
* This function implements EMSA-PSS-VERIFY as per RFC 3447, section 9.1.2.
*
* @param mHash the message digest hash, as a binary-encoded string, to
* compare against the signature.
* @param em the encoded message, as a binary-encoded string
* (RSA decryption result).
* @param modsBits the length of the RSA modulus in bits.
*
* @return true if the signature was verified, false if not.
*/
pssobj.verify = function(mHash, em, modBits) {
var i;
var emBits = modBits - 1;
var emLen = Math.ceil(emBits / 8);
/* c. Convert the message representative m to an encoded message EM
* of length emLen = ceil((modBits - 1) / 8) octets, where modBits
* is the length in bits of the RSA modulus n */
em = em.substr(-emLen);
/* 3. If emLen < hLen + sLen + 2, output "inconsistent" and stop. */
if(emLen < hLen + sLen + 2) {
throw new Error('Inconsistent parameters to PSS signature verification.');
}
/* 4. If the rightmost octet of EM does not have hexadecimal value
* 0xbc, output "inconsistent" and stop. */
if(em.charCodeAt(emLen - 1) !== 0xbc) {
throw new Error('Encoded message does not end in 0xBC.');
}
/* 5. Let maskedDB be the leftmost emLen - hLen - 1 octets of EM, and
* let H be the next hLen octets. */
var maskLen = emLen - hLen - 1;
var maskedDB = em.substr(0, maskLen);
var h = em.substr(maskLen, hLen);
/* 6. If the leftmost 8emLen - emBits bits of the leftmost octet in
* maskedDB are not all equal to zero, output "inconsistent" and stop. */
var mask = (0xFF00 >> (8 * emLen - emBits)) & 0xFF;
if((maskedDB.charCodeAt(0) & mask) !== 0) {
throw new Error('Bits beyond keysize not zero as expected.');
}
/* 7. Let dbMask = MGF(H, emLen - hLen - 1). */
var dbMask = mgf.generate(h, maskLen);
/* 8. Let DB = maskedDB \xor dbMask. */
var db = '';
for(i = 0; i < maskLen; i++) {
db += String.fromCharCode(maskedDB.charCodeAt(i) ^ dbMask.charCodeAt(i));
}
/* 9. Set the leftmost 8emLen - emBits bits of the leftmost octet
* in DB to zero. */
db = String.fromCharCode(db.charCodeAt(0) & ~mask) + db.substr(1);
/* 10. If the emLen - hLen - sLen - 2 leftmost octets of DB are not zero
* or if the octet at position emLen - hLen - sLen - 1 (the leftmost
* position is "position 1") does not have hexadecimal value 0x01,
* output "inconsistent" and stop. */
var checkLen = emLen - hLen - sLen - 2;
for(i = 0; i < checkLen; i++) {
if(db.charCodeAt(i) !== 0x00) {
throw new Error('Leftmost octets not zero as expected');
}
}
if(db.charCodeAt(checkLen) !== 0x01) {
throw new Error('Inconsistent PSS signature, 0x01 marker not found');
}
/* 11. Let salt be the last sLen octets of DB. */
var salt = db.substr(-sLen);
/* 12. Let M' = (0x)00 00 00 00 00 00 00 00 || mHash || salt */
var m_ = new forge.util.ByteBuffer();
m_.fillWithByte(0, 8);
m_.putBytes(mHash);
m_.putBytes(salt);
/* 13. Let H' = Hash(M'), an octet string of length hLen. */
hash.start();
hash.update(m_.getBytes());
var h_ = hash.digest().getBytes();
/* 14. If H = H', output "consistent." Otherwise, output "inconsistent." */
return h === h_;
};
return pssobj;
};

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node_modules/node-forge/lib/random.js generated vendored Normal file
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/**
* An API for getting cryptographically-secure random bytes. The bytes are
* generated using the Fortuna algorithm devised by Bruce Schneier and
* Niels Ferguson.
*
* Getting strong random bytes is not yet easy to do in javascript. The only
* truish random entropy that can be collected is from the mouse, keyboard, or
* from timing with respect to page loads, etc. This generator makes a poor
* attempt at providing random bytes when those sources haven't yet provided
* enough entropy to initially seed or to reseed the PRNG.
*
* @author Dave Longley
*
* Copyright (c) 2009-2014 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./aes');
require('./sha256');
require('./prng');
require('./util');
(function() {
// forge.random already defined
if(forge.random && forge.random.getBytes) {
module.exports = forge.random;
return;
}
(function(jQuery) {
// the default prng plugin, uses AES-128
var prng_aes = {};
var _prng_aes_output = new Array(4);
var _prng_aes_buffer = forge.util.createBuffer();
prng_aes.formatKey = function(key) {
// convert the key into 32-bit integers
var tmp = forge.util.createBuffer(key);
key = new Array(4);
key[0] = tmp.getInt32();
key[1] = tmp.getInt32();
key[2] = tmp.getInt32();
key[3] = tmp.getInt32();
// return the expanded key
return forge.aes._expandKey(key, false);
};
prng_aes.formatSeed = function(seed) {
// convert seed into 32-bit integers
var tmp = forge.util.createBuffer(seed);
seed = new Array(4);
seed[0] = tmp.getInt32();
seed[1] = tmp.getInt32();
seed[2] = tmp.getInt32();
seed[3] = tmp.getInt32();
return seed;
};
prng_aes.cipher = function(key, seed) {
forge.aes._updateBlock(key, seed, _prng_aes_output, false);
_prng_aes_buffer.putInt32(_prng_aes_output[0]);
_prng_aes_buffer.putInt32(_prng_aes_output[1]);
_prng_aes_buffer.putInt32(_prng_aes_output[2]);
_prng_aes_buffer.putInt32(_prng_aes_output[3]);
return _prng_aes_buffer.getBytes();
};
prng_aes.increment = function(seed) {
// FIXME: do we care about carry or signed issues?
++seed[3];
return seed;
};
prng_aes.md = forge.md.sha256;
/**
* Creates a new PRNG.
*/
function spawnPrng() {
var ctx = forge.prng.create(prng_aes);
/**
* Gets random bytes. If a native secure crypto API is unavailable, this
* method tries to make the bytes more unpredictable by drawing from data that
* can be collected from the user of the browser, eg: mouse movement.
*
* If a callback is given, this method will be called asynchronously.
*
* @param count the number of random bytes to get.
* @param [callback(err, bytes)] called once the operation completes.
*
* @return the random bytes in a string.
*/
ctx.getBytes = function(count, callback) {
return ctx.generate(count, callback);
};
/**
* Gets random bytes asynchronously. If a native secure crypto API is
* unavailable, this method tries to make the bytes more unpredictable by
* drawing from data that can be collected from the user of the browser,
* eg: mouse movement.
*
* @param count the number of random bytes to get.
*
* @return the random bytes in a string.
*/
ctx.getBytesSync = function(count) {
return ctx.generate(count);
};
return ctx;
}
// create default prng context
var _ctx = spawnPrng();
// add other sources of entropy only if window.crypto.getRandomValues is not
// available -- otherwise this source will be automatically used by the prng
var getRandomValues = null;
if(typeof window !== 'undefined') {
var _crypto = window.crypto || window.msCrypto;
if(_crypto && _crypto.getRandomValues) {
getRandomValues = function(arr) {
return _crypto.getRandomValues(arr);
};
}
}
if(forge.options.usePureJavaScript ||
(!forge.util.isNodejs && !getRandomValues)) {
// if this is a web worker, do not use weak entropy, instead register to
// receive strong entropy asynchronously from the main thread
if(typeof window === 'undefined' || window.document === undefined) {
// FIXME:
}
// get load time entropy
_ctx.collectInt(+new Date(), 32);
// add some entropy from navigator object
if(typeof(navigator) !== 'undefined') {
var _navBytes = '';
for(var key in navigator) {
try {
if(typeof(navigator[key]) == 'string') {
_navBytes += navigator[key];
}
} catch(e) {
/* Some navigator keys might not be accessible, e.g. the geolocation
attribute throws an exception if touched in Mozilla chrome://
context.
Silently ignore this and just don't use this as a source of
entropy. */
}
}
_ctx.collect(_navBytes);
_navBytes = null;
}
// add mouse and keyboard collectors if jquery is available
if(jQuery) {
// set up mouse entropy capture
jQuery().mousemove(function(e) {
// add mouse coords
_ctx.collectInt(e.clientX, 16);
_ctx.collectInt(e.clientY, 16);
});
// set up keyboard entropy capture
jQuery().keypress(function(e) {
_ctx.collectInt(e.charCode, 8);
});
}
}
/* Random API */
if(!forge.random) {
forge.random = _ctx;
} else {
// extend forge.random with _ctx
for(var key in _ctx) {
forge.random[key] = _ctx[key];
}
}
// expose spawn PRNG
forge.random.createInstance = spawnPrng;
module.exports = forge.random;
})(typeof(jQuery) !== 'undefined' ? jQuery : null);
})();

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/**
* RC2 implementation.
*
* @author Stefan Siegl
*
* Copyright (c) 2012 Stefan Siegl <stesie@brokenpipe.de>
*
* Information on the RC2 cipher is available from RFC #2268,
* http://www.ietf.org/rfc/rfc2268.txt
*/
var forge = require('./forge');
require('./util');
var piTable = [
0xd9, 0x78, 0xf9, 0xc4, 0x19, 0xdd, 0xb5, 0xed, 0x28, 0xe9, 0xfd, 0x79, 0x4a, 0xa0, 0xd8, 0x9d,
0xc6, 0x7e, 0x37, 0x83, 0x2b, 0x76, 0x53, 0x8e, 0x62, 0x4c, 0x64, 0x88, 0x44, 0x8b, 0xfb, 0xa2,
0x17, 0x9a, 0x59, 0xf5, 0x87, 0xb3, 0x4f, 0x13, 0x61, 0x45, 0x6d, 0x8d, 0x09, 0x81, 0x7d, 0x32,
0xbd, 0x8f, 0x40, 0xeb, 0x86, 0xb7, 0x7b, 0x0b, 0xf0, 0x95, 0x21, 0x22, 0x5c, 0x6b, 0x4e, 0x82,
0x54, 0xd6, 0x65, 0x93, 0xce, 0x60, 0xb2, 0x1c, 0x73, 0x56, 0xc0, 0x14, 0xa7, 0x8c, 0xf1, 0xdc,
0x12, 0x75, 0xca, 0x1f, 0x3b, 0xbe, 0xe4, 0xd1, 0x42, 0x3d, 0xd4, 0x30, 0xa3, 0x3c, 0xb6, 0x26,
0x6f, 0xbf, 0x0e, 0xda, 0x46, 0x69, 0x07, 0x57, 0x27, 0xf2, 0x1d, 0x9b, 0xbc, 0x94, 0x43, 0x03,
0xf8, 0x11, 0xc7, 0xf6, 0x90, 0xef, 0x3e, 0xe7, 0x06, 0xc3, 0xd5, 0x2f, 0xc8, 0x66, 0x1e, 0xd7,
0x08, 0xe8, 0xea, 0xde, 0x80, 0x52, 0xee, 0xf7, 0x84, 0xaa, 0x72, 0xac, 0x35, 0x4d, 0x6a, 0x2a,
0x96, 0x1a, 0xd2, 0x71, 0x5a, 0x15, 0x49, 0x74, 0x4b, 0x9f, 0xd0, 0x5e, 0x04, 0x18, 0xa4, 0xec,
0xc2, 0xe0, 0x41, 0x6e, 0x0f, 0x51, 0xcb, 0xcc, 0x24, 0x91, 0xaf, 0x50, 0xa1, 0xf4, 0x70, 0x39,
0x99, 0x7c, 0x3a, 0x85, 0x23, 0xb8, 0xb4, 0x7a, 0xfc, 0x02, 0x36, 0x5b, 0x25, 0x55, 0x97, 0x31,
0x2d, 0x5d, 0xfa, 0x98, 0xe3, 0x8a, 0x92, 0xae, 0x05, 0xdf, 0x29, 0x10, 0x67, 0x6c, 0xba, 0xc9,
0xd3, 0x00, 0xe6, 0xcf, 0xe1, 0x9e, 0xa8, 0x2c, 0x63, 0x16, 0x01, 0x3f, 0x58, 0xe2, 0x89, 0xa9,
0x0d, 0x38, 0x34, 0x1b, 0xab, 0x33, 0xff, 0xb0, 0xbb, 0x48, 0x0c, 0x5f, 0xb9, 0xb1, 0xcd, 0x2e,
0xc5, 0xf3, 0xdb, 0x47, 0xe5, 0xa5, 0x9c, 0x77, 0x0a, 0xa6, 0x20, 0x68, 0xfe, 0x7f, 0xc1, 0xad
];
var s = [1, 2, 3, 5];
/**
* Rotate a word left by given number of bits.
*
* Bits that are shifted out on the left are put back in on the right
* hand side.
*
* @param word The word to shift left.
* @param bits The number of bits to shift by.
* @return The rotated word.
*/
var rol = function(word, bits) {
return ((word << bits) & 0xffff) | ((word & 0xffff) >> (16 - bits));
};
/**
* Rotate a word right by given number of bits.
*
* Bits that are shifted out on the right are put back in on the left
* hand side.
*
* @param word The word to shift right.
* @param bits The number of bits to shift by.
* @return The rotated word.
*/
var ror = function(word, bits) {
return ((word & 0xffff) >> bits) | ((word << (16 - bits)) & 0xffff);
};
/* RC2 API */
module.exports = forge.rc2 = forge.rc2 || {};
/**
* Perform RC2 key expansion as per RFC #2268, section 2.
*
* @param key variable-length user key (between 1 and 128 bytes)
* @param effKeyBits number of effective key bits (default: 128)
* @return the expanded RC2 key (ByteBuffer of 128 bytes)
*/
forge.rc2.expandKey = function(key, effKeyBits) {
if(typeof key === 'string') {
key = forge.util.createBuffer(key);
}
effKeyBits = effKeyBits || 128;
/* introduce variables that match the names used in RFC #2268 */
var L = key;
var T = key.length();
var T1 = effKeyBits;
var T8 = Math.ceil(T1 / 8);
var TM = 0xff >> (T1 & 0x07);
var i;
for(i = T; i < 128; i++) {
L.putByte(piTable[(L.at(i - 1) + L.at(i - T)) & 0xff]);
}
L.setAt(128 - T8, piTable[L.at(128 - T8) & TM]);
for(i = 127 - T8; i >= 0; i--) {
L.setAt(i, piTable[L.at(i + 1) ^ L.at(i + T8)]);
}
return L;
};
/**
* Creates a RC2 cipher object.
*
* @param key the symmetric key to use (as base for key generation).
* @param bits the number of effective key bits.
* @param encrypt false for decryption, true for encryption.
*
* @return the cipher.
*/
var createCipher = function(key, bits, encrypt) {
var _finish = false, _input = null, _output = null, _iv = null;
var mixRound, mashRound;
var i, j, K = [];
/* Expand key and fill into K[] Array */
key = forge.rc2.expandKey(key, bits);
for(i = 0; i < 64; i++) {
K.push(key.getInt16Le());
}
if(encrypt) {
/**
* Perform one mixing round "in place".
*
* @param R Array of four words to perform mixing on.
*/
mixRound = function(R) {
for(i = 0; i < 4; i++) {
R[i] += K[j] + (R[(i + 3) % 4] & R[(i + 2) % 4]) +
((~R[(i + 3) % 4]) & R[(i + 1) % 4]);
R[i] = rol(R[i], s[i]);
j++;
}
};
/**
* Perform one mashing round "in place".
*
* @param R Array of four words to perform mashing on.
*/
mashRound = function(R) {
for(i = 0; i < 4; i++) {
R[i] += K[R[(i + 3) % 4] & 63];
}
};
} else {
/**
* Perform one r-mixing round "in place".
*
* @param R Array of four words to perform mixing on.
*/
mixRound = function(R) {
for(i = 3; i >= 0; i--) {
R[i] = ror(R[i], s[i]);
R[i] -= K[j] + (R[(i + 3) % 4] & R[(i + 2) % 4]) +
((~R[(i + 3) % 4]) & R[(i + 1) % 4]);
j--;
}
};
/**
* Perform one r-mashing round "in place".
*
* @param R Array of four words to perform mashing on.
*/
mashRound = function(R) {
for(i = 3; i >= 0; i--) {
R[i] -= K[R[(i + 3) % 4] & 63];
}
};
}
/**
* Run the specified cipher execution plan.
*
* This function takes four words from the input buffer, applies the IV on
* it (if requested) and runs the provided execution plan.
*
* The plan must be put together in form of a array of arrays. Where the
* outer one is simply a list of steps to perform and the inner one needs
* to have two elements: the first one telling how many rounds to perform,
* the second one telling what to do (i.e. the function to call).
*
* @param {Array} plan The plan to execute.
*/
var runPlan = function(plan) {
var R = [];
/* Get data from input buffer and fill the four words into R */
for(i = 0; i < 4; i++) {
var val = _input.getInt16Le();
if(_iv !== null) {
if(encrypt) {
/* We're encrypting, apply the IV first. */
val ^= _iv.getInt16Le();
} else {
/* We're decryption, keep cipher text for next block. */
_iv.putInt16Le(val);
}
}
R.push(val & 0xffff);
}
/* Reset global "j" variable as per spec. */
j = encrypt ? 0 : 63;
/* Run execution plan. */
for(var ptr = 0; ptr < plan.length; ptr++) {
for(var ctr = 0; ctr < plan[ptr][0]; ctr++) {
plan[ptr][1](R);
}
}
/* Write back result to output buffer. */
for(i = 0; i < 4; i++) {
if(_iv !== null) {
if(encrypt) {
/* We're encrypting in CBC-mode, feed back encrypted bytes into
IV buffer to carry it forward to next block. */
_iv.putInt16Le(R[i]);
} else {
R[i] ^= _iv.getInt16Le();
}
}
_output.putInt16Le(R[i]);
}
};
/* Create cipher object */
var cipher = null;
cipher = {
/**
* Starts or restarts the encryption or decryption process, whichever
* was previously configured.
*
* To use the cipher in CBC mode, iv may be given either as a string
* of bytes, or as a byte buffer. For ECB mode, give null as iv.
*
* @param iv the initialization vector to use, null for ECB mode.
* @param output the output the buffer to write to, null to create one.
*/
start: function(iv, output) {
if(iv) {
/* CBC mode */
if(typeof iv === 'string') {
iv = forge.util.createBuffer(iv);
}
}
_finish = false;
_input = forge.util.createBuffer();
_output = output || new forge.util.createBuffer();
_iv = iv;
cipher.output = _output;
},
/**
* Updates the next block.
*
* @param input the buffer to read from.
*/
update: function(input) {
if(!_finish) {
// not finishing, so fill the input buffer with more input
_input.putBuffer(input);
}
while(_input.length() >= 8) {
runPlan([
[ 5, mixRound ],
[ 1, mashRound ],
[ 6, mixRound ],
[ 1, mashRound ],
[ 5, mixRound ]
]);
}
},
/**
* Finishes encrypting or decrypting.
*
* @param pad a padding function to use, null for PKCS#7 padding,
* signature(blockSize, buffer, decrypt).
*
* @return true if successful, false on error.
*/
finish: function(pad) {
var rval = true;
if(encrypt) {
if(pad) {
rval = pad(8, _input, !encrypt);
} else {
// add PKCS#7 padding to block (each pad byte is the
// value of the number of pad bytes)
var padding = (_input.length() === 8) ? 8 : (8 - _input.length());
_input.fillWithByte(padding, padding);
}
}
if(rval) {
// do final update
_finish = true;
cipher.update();
}
if(!encrypt) {
// check for error: input data not a multiple of block size
rval = (_input.length() === 0);
if(rval) {
if(pad) {
rval = pad(8, _output, !encrypt);
} else {
// ensure padding byte count is valid
var len = _output.length();
var count = _output.at(len - 1);
if(count > len) {
rval = false;
} else {
// trim off padding bytes
_output.truncate(count);
}
}
}
}
return rval;
}
};
return cipher;
};
/**
* Creates an RC2 cipher object to encrypt data in ECB or CBC mode using the
* given symmetric key. The output will be stored in the 'output' member
* of the returned cipher.
*
* The key and iv may be given as a string of bytes or a byte buffer.
* The cipher is initialized to use 128 effective key bits.
*
* @param key the symmetric key to use.
* @param iv the initialization vector to use.
* @param output the buffer to write to, null to create one.
*
* @return the cipher.
*/
forge.rc2.startEncrypting = function(key, iv, output) {
var cipher = forge.rc2.createEncryptionCipher(key, 128);
cipher.start(iv, output);
return cipher;
};
/**
* Creates an RC2 cipher object to encrypt data in ECB or CBC mode using the
* given symmetric key.
*
* The key may be given as a string of bytes or a byte buffer.
*
* To start encrypting call start() on the cipher with an iv and optional
* output buffer.
*
* @param key the symmetric key to use.
*
* @return the cipher.
*/
forge.rc2.createEncryptionCipher = function(key, bits) {
return createCipher(key, bits, true);
};
/**
* Creates an RC2 cipher object to decrypt data in ECB or CBC mode using the
* given symmetric key. The output will be stored in the 'output' member
* of the returned cipher.
*
* The key and iv may be given as a string of bytes or a byte buffer.
* The cipher is initialized to use 128 effective key bits.
*
* @param key the symmetric key to use.
* @param iv the initialization vector to use.
* @param output the buffer to write to, null to create one.
*
* @return the cipher.
*/
forge.rc2.startDecrypting = function(key, iv, output) {
var cipher = forge.rc2.createDecryptionCipher(key, 128);
cipher.start(iv, output);
return cipher;
};
/**
* Creates an RC2 cipher object to decrypt data in ECB or CBC mode using the
* given symmetric key.
*
* The key may be given as a string of bytes or a byte buffer.
*
* To start decrypting call start() on the cipher with an iv and optional
* output buffer.
*
* @param key the symmetric key to use.
*
* @return the cipher.
*/
forge.rc2.createDecryptionCipher = function(key, bits) {
return createCipher(key, bits, false);
};

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node_modules/node-forge/lib/sha1.js generated vendored Normal file
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/**
* Secure Hash Algorithm with 160-bit digest (SHA-1) implementation.
*
* @author Dave Longley
*
* Copyright (c) 2010-2015 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./md');
require('./util');
var sha1 = module.exports = forge.sha1 = forge.sha1 || {};
forge.md.sha1 = forge.md.algorithms.sha1 = sha1;
/**
* Creates a SHA-1 message digest object.
*
* @return a message digest object.
*/
sha1.create = function() {
// do initialization as necessary
if(!_initialized) {
_init();
}
// SHA-1 state contains five 32-bit integers
var _state = null;
// input buffer
var _input = forge.util.createBuffer();
// used for word storage
var _w = new Array(80);
// message digest object
var md = {
algorithm: 'sha1',
blockLength: 64,
digestLength: 20,
// 56-bit length of message so far (does not including padding)
messageLength: 0,
// true message length
fullMessageLength: null,
// size of message length in bytes
messageLengthSize: 8
};
/**
* Starts the digest.
*
* @return this digest object.
*/
md.start = function() {
// up to 56-bit message length for convenience
md.messageLength = 0;
// full message length (set md.messageLength64 for backwards-compatibility)
md.fullMessageLength = md.messageLength64 = [];
var int32s = md.messageLengthSize / 4;
for(var i = 0; i < int32s; ++i) {
md.fullMessageLength.push(0);
}
_input = forge.util.createBuffer();
_state = {
h0: 0x67452301,
h1: 0xEFCDAB89,
h2: 0x98BADCFE,
h3: 0x10325476,
h4: 0xC3D2E1F0
};
return md;
};
// start digest automatically for first time
md.start();
/**
* Updates the digest with the given message input. The given input can
* treated as raw input (no encoding will be applied) or an encoding of
* 'utf8' maybe given to encode the input using UTF-8.
*
* @param msg the message input to update with.
* @param encoding the encoding to use (default: 'raw', other: 'utf8').
*
* @return this digest object.
*/
md.update = function(msg, encoding) {
if(encoding === 'utf8') {
msg = forge.util.encodeUtf8(msg);
}
// update message length
var len = msg.length;
md.messageLength += len;
len = [(len / 0x100000000) >>> 0, len >>> 0];
for(var i = md.fullMessageLength.length - 1; i >= 0; --i) {
md.fullMessageLength[i] += len[1];
len[1] = len[0] + ((md.fullMessageLength[i] / 0x100000000) >>> 0);
md.fullMessageLength[i] = md.fullMessageLength[i] >>> 0;
len[0] = ((len[1] / 0x100000000) >>> 0);
}
// add bytes to input buffer
_input.putBytes(msg);
// process bytes
_update(_state, _w, _input);
// compact input buffer every 2K or if empty
if(_input.read > 2048 || _input.length() === 0) {
_input.compact();
}
return md;
};
/**
* Produces the digest.
*
* @return a byte buffer containing the digest value.
*/
md.digest = function() {
/* Note: Here we copy the remaining bytes in the input buffer and
add the appropriate SHA-1 padding. Then we do the final update
on a copy of the state so that if the user wants to get
intermediate digests they can do so. */
/* Determine the number of bytes that must be added to the message
to ensure its length is congruent to 448 mod 512. In other words,
the data to be digested must be a multiple of 512 bits (or 128 bytes).
This data includes the message, some padding, and the length of the
message. Since the length of the message will be encoded as 8 bytes (64
bits), that means that the last segment of the data must have 56 bytes
(448 bits) of message and padding. Therefore, the length of the message
plus the padding must be congruent to 448 mod 512 because
512 - 128 = 448.
In order to fill up the message length it must be filled with
padding that begins with 1 bit followed by all 0 bits. Padding
must *always* be present, so if the message length is already
congruent to 448 mod 512, then 512 padding bits must be added. */
var finalBlock = forge.util.createBuffer();
finalBlock.putBytes(_input.bytes());
// compute remaining size to be digested (include message length size)
var remaining = (
md.fullMessageLength[md.fullMessageLength.length - 1] +
md.messageLengthSize);
// add padding for overflow blockSize - overflow
// _padding starts with 1 byte with first bit is set (byte value 128), then
// there may be up to (blockSize - 1) other pad bytes
var overflow = remaining & (md.blockLength - 1);
finalBlock.putBytes(_padding.substr(0, md.blockLength - overflow));
// serialize message length in bits in big-endian order; since length
// is stored in bytes we multiply by 8 and add carry from next int
var next, carry;
var bits = md.fullMessageLength[0] * 8;
for(var i = 0; i < md.fullMessageLength.length - 1; ++i) {
next = md.fullMessageLength[i + 1] * 8;
carry = (next / 0x100000000) >>> 0;
bits += carry;
finalBlock.putInt32(bits >>> 0);
bits = next >>> 0;
}
finalBlock.putInt32(bits);
var s2 = {
h0: _state.h0,
h1: _state.h1,
h2: _state.h2,
h3: _state.h3,
h4: _state.h4
};
_update(s2, _w, finalBlock);
var rval = forge.util.createBuffer();
rval.putInt32(s2.h0);
rval.putInt32(s2.h1);
rval.putInt32(s2.h2);
rval.putInt32(s2.h3);
rval.putInt32(s2.h4);
return rval;
};
return md;
};
// sha-1 padding bytes not initialized yet
var _padding = null;
var _initialized = false;
/**
* Initializes the constant tables.
*/
function _init() {
// create padding
_padding = String.fromCharCode(128);
_padding += forge.util.fillString(String.fromCharCode(0x00), 64);
// now initialized
_initialized = true;
}
/**
* Updates a SHA-1 state with the given byte buffer.
*
* @param s the SHA-1 state to update.
* @param w the array to use to store words.
* @param bytes the byte buffer to update with.
*/
function _update(s, w, bytes) {
// consume 512 bit (64 byte) chunks
var t, a, b, c, d, e, f, i;
var len = bytes.length();
while(len >= 64) {
// the w array will be populated with sixteen 32-bit big-endian words
// and then extended into 80 32-bit words according to SHA-1 algorithm
// and for 32-79 using Max Locktyukhin's optimization
// initialize hash value for this chunk
a = s.h0;
b = s.h1;
c = s.h2;
d = s.h3;
e = s.h4;
// round 1
for(i = 0; i < 16; ++i) {
t = bytes.getInt32();
w[i] = t;
f = d ^ (b & (c ^ d));
t = ((a << 5) | (a >>> 27)) + f + e + 0x5A827999 + t;
e = d;
d = c;
// `>>> 0` necessary to avoid iOS/Safari 10 optimization bug
c = ((b << 30) | (b >>> 2)) >>> 0;
b = a;
a = t;
}
for(; i < 20; ++i) {
t = (w[i - 3] ^ w[i - 8] ^ w[i - 14] ^ w[i - 16]);
t = (t << 1) | (t >>> 31);
w[i] = t;
f = d ^ (b & (c ^ d));
t = ((a << 5) | (a >>> 27)) + f + e + 0x5A827999 + t;
e = d;
d = c;
// `>>> 0` necessary to avoid iOS/Safari 10 optimization bug
c = ((b << 30) | (b >>> 2)) >>> 0;
b = a;
a = t;
}
// round 2
for(; i < 32; ++i) {
t = (w[i - 3] ^ w[i - 8] ^ w[i - 14] ^ w[i - 16]);
t = (t << 1) | (t >>> 31);
w[i] = t;
f = b ^ c ^ d;
t = ((a << 5) | (a >>> 27)) + f + e + 0x6ED9EBA1 + t;
e = d;
d = c;
// `>>> 0` necessary to avoid iOS/Safari 10 optimization bug
c = ((b << 30) | (b >>> 2)) >>> 0;
b = a;
a = t;
}
for(; i < 40; ++i) {
t = (w[i - 6] ^ w[i - 16] ^ w[i - 28] ^ w[i - 32]);
t = (t << 2) | (t >>> 30);
w[i] = t;
f = b ^ c ^ d;
t = ((a << 5) | (a >>> 27)) + f + e + 0x6ED9EBA1 + t;
e = d;
d = c;
// `>>> 0` necessary to avoid iOS/Safari 10 optimization bug
c = ((b << 30) | (b >>> 2)) >>> 0;
b = a;
a = t;
}
// round 3
for(; i < 60; ++i) {
t = (w[i - 6] ^ w[i - 16] ^ w[i - 28] ^ w[i - 32]);
t = (t << 2) | (t >>> 30);
w[i] = t;
f = (b & c) | (d & (b ^ c));
t = ((a << 5) | (a >>> 27)) + f + e + 0x8F1BBCDC + t;
e = d;
d = c;
// `>>> 0` necessary to avoid iOS/Safari 10 optimization bug
c = ((b << 30) | (b >>> 2)) >>> 0;
b = a;
a = t;
}
// round 4
for(; i < 80; ++i) {
t = (w[i - 6] ^ w[i - 16] ^ w[i - 28] ^ w[i - 32]);
t = (t << 2) | (t >>> 30);
w[i] = t;
f = b ^ c ^ d;
t = ((a << 5) | (a >>> 27)) + f + e + 0xCA62C1D6 + t;
e = d;
d = c;
// `>>> 0` necessary to avoid iOS/Safari 10 optimization bug
c = ((b << 30) | (b >>> 2)) >>> 0;
b = a;
a = t;
}
// update hash state
s.h0 = (s.h0 + a) | 0;
s.h1 = (s.h1 + b) | 0;
s.h2 = (s.h2 + c) | 0;
s.h3 = (s.h3 + d) | 0;
s.h4 = (s.h4 + e) | 0;
len -= 64;
}
}

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/**
* Secure Hash Algorithm with 256-bit digest (SHA-256) implementation.
*
* See FIPS 180-2 for details.
*
* @author Dave Longley
*
* Copyright (c) 2010-2015 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./md');
require('./util');
var sha256 = module.exports = forge.sha256 = forge.sha256 || {};
forge.md.sha256 = forge.md.algorithms.sha256 = sha256;
/**
* Creates a SHA-256 message digest object.
*
* @return a message digest object.
*/
sha256.create = function() {
// do initialization as necessary
if(!_initialized) {
_init();
}
// SHA-256 state contains eight 32-bit integers
var _state = null;
// input buffer
var _input = forge.util.createBuffer();
// used for word storage
var _w = new Array(64);
// message digest object
var md = {
algorithm: 'sha256',
blockLength: 64,
digestLength: 32,
// 56-bit length of message so far (does not including padding)
messageLength: 0,
// true message length
fullMessageLength: null,
// size of message length in bytes
messageLengthSize: 8
};
/**
* Starts the digest.
*
* @return this digest object.
*/
md.start = function() {
// up to 56-bit message length for convenience
md.messageLength = 0;
// full message length (set md.messageLength64 for backwards-compatibility)
md.fullMessageLength = md.messageLength64 = [];
var int32s = md.messageLengthSize / 4;
for(var i = 0; i < int32s; ++i) {
md.fullMessageLength.push(0);
}
_input = forge.util.createBuffer();
_state = {
h0: 0x6A09E667,
h1: 0xBB67AE85,
h2: 0x3C6EF372,
h3: 0xA54FF53A,
h4: 0x510E527F,
h5: 0x9B05688C,
h6: 0x1F83D9AB,
h7: 0x5BE0CD19
};
return md;
};
// start digest automatically for first time
md.start();
/**
* Updates the digest with the given message input. The given input can
* treated as raw input (no encoding will be applied) or an encoding of
* 'utf8' maybe given to encode the input using UTF-8.
*
* @param msg the message input to update with.
* @param encoding the encoding to use (default: 'raw', other: 'utf8').
*
* @return this digest object.
*/
md.update = function(msg, encoding) {
if(encoding === 'utf8') {
msg = forge.util.encodeUtf8(msg);
}
// update message length
var len = msg.length;
md.messageLength += len;
len = [(len / 0x100000000) >>> 0, len >>> 0];
for(var i = md.fullMessageLength.length - 1; i >= 0; --i) {
md.fullMessageLength[i] += len[1];
len[1] = len[0] + ((md.fullMessageLength[i] / 0x100000000) >>> 0);
md.fullMessageLength[i] = md.fullMessageLength[i] >>> 0;
len[0] = ((len[1] / 0x100000000) >>> 0);
}
// add bytes to input buffer
_input.putBytes(msg);
// process bytes
_update(_state, _w, _input);
// compact input buffer every 2K or if empty
if(_input.read > 2048 || _input.length() === 0) {
_input.compact();
}
return md;
};
/**
* Produces the digest.
*
* @return a byte buffer containing the digest value.
*/
md.digest = function() {
/* Note: Here we copy the remaining bytes in the input buffer and
add the appropriate SHA-256 padding. Then we do the final update
on a copy of the state so that if the user wants to get
intermediate digests they can do so. */
/* Determine the number of bytes that must be added to the message
to ensure its length is congruent to 448 mod 512. In other words,
the data to be digested must be a multiple of 512 bits (or 128 bytes).
This data includes the message, some padding, and the length of the
message. Since the length of the message will be encoded as 8 bytes (64
bits), that means that the last segment of the data must have 56 bytes
(448 bits) of message and padding. Therefore, the length of the message
plus the padding must be congruent to 448 mod 512 because
512 - 128 = 448.
In order to fill up the message length it must be filled with
padding that begins with 1 bit followed by all 0 bits. Padding
must *always* be present, so if the message length is already
congruent to 448 mod 512, then 512 padding bits must be added. */
var finalBlock = forge.util.createBuffer();
finalBlock.putBytes(_input.bytes());
// compute remaining size to be digested (include message length size)
var remaining = (
md.fullMessageLength[md.fullMessageLength.length - 1] +
md.messageLengthSize);
// add padding for overflow blockSize - overflow
// _padding starts with 1 byte with first bit is set (byte value 128), then
// there may be up to (blockSize - 1) other pad bytes
var overflow = remaining & (md.blockLength - 1);
finalBlock.putBytes(_padding.substr(0, md.blockLength - overflow));
// serialize message length in bits in big-endian order; since length
// is stored in bytes we multiply by 8 and add carry from next int
var next, carry;
var bits = md.fullMessageLength[0] * 8;
for(var i = 0; i < md.fullMessageLength.length - 1; ++i) {
next = md.fullMessageLength[i + 1] * 8;
carry = (next / 0x100000000) >>> 0;
bits += carry;
finalBlock.putInt32(bits >>> 0);
bits = next >>> 0;
}
finalBlock.putInt32(bits);
var s2 = {
h0: _state.h0,
h1: _state.h1,
h2: _state.h2,
h3: _state.h3,
h4: _state.h4,
h5: _state.h5,
h6: _state.h6,
h7: _state.h7
};
_update(s2, _w, finalBlock);
var rval = forge.util.createBuffer();
rval.putInt32(s2.h0);
rval.putInt32(s2.h1);
rval.putInt32(s2.h2);
rval.putInt32(s2.h3);
rval.putInt32(s2.h4);
rval.putInt32(s2.h5);
rval.putInt32(s2.h6);
rval.putInt32(s2.h7);
return rval;
};
return md;
};
// sha-256 padding bytes not initialized yet
var _padding = null;
var _initialized = false;
// table of constants
var _k = null;
/**
* Initializes the constant tables.
*/
function _init() {
// create padding
_padding = String.fromCharCode(128);
_padding += forge.util.fillString(String.fromCharCode(0x00), 64);
// create K table for SHA-256
_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];
// now initialized
_initialized = true;
}
/**
* Updates a SHA-256 state with the given byte buffer.
*
* @param s the SHA-256 state to update.
* @param w the array to use to store words.
* @param bytes the byte buffer to update with.
*/
function _update(s, w, bytes) {
// consume 512 bit (64 byte) chunks
var t1, t2, s0, s1, ch, maj, i, a, b, c, d, e, f, g, h;
var len = bytes.length();
while(len >= 64) {
// the w array will be populated with sixteen 32-bit big-endian words
// and then extended into 64 32-bit words according to SHA-256
for(i = 0; i < 16; ++i) {
w[i] = bytes.getInt32();
}
for(; i < 64; ++i) {
// XOR word 2 words ago rot right 17, rot right 19, shft right 10
t1 = w[i - 2];
t1 =
((t1 >>> 17) | (t1 << 15)) ^
((t1 >>> 19) | (t1 << 13)) ^
(t1 >>> 10);
// XOR word 15 words ago rot right 7, rot right 18, shft right 3
t2 = w[i - 15];
t2 =
((t2 >>> 7) | (t2 << 25)) ^
((t2 >>> 18) | (t2 << 14)) ^
(t2 >>> 3);
// sum(t1, word 7 ago, t2, word 16 ago) modulo 2^32
w[i] = (t1 + w[i - 7] + t2 + w[i - 16]) | 0;
}
// initialize hash value for this chunk
a = s.h0;
b = s.h1;
c = s.h2;
d = s.h3;
e = s.h4;
f = s.h5;
g = s.h6;
h = s.h7;
// round function
for(i = 0; i < 64; ++i) {
// Sum1(e)
s1 =
((e >>> 6) | (e << 26)) ^
((e >>> 11) | (e << 21)) ^
((e >>> 25) | (e << 7));
// Ch(e, f, g) (optimized the same way as SHA-1)
ch = g ^ (e & (f ^ g));
// Sum0(a)
s0 =
((a >>> 2) | (a << 30)) ^
((a >>> 13) | (a << 19)) ^
((a >>> 22) | (a << 10));
// Maj(a, b, c) (optimized the same way as SHA-1)
maj = (a & b) | (c & (a ^ b));
// main algorithm
t1 = h + s1 + ch + _k[i] + w[i];
t2 = s0 + maj;
h = g;
g = f;
f = e;
// `>>> 0` necessary to avoid iOS/Safari 10 optimization bug
// can't truncate with `| 0`
e = (d + t1) >>> 0;
d = c;
c = b;
b = a;
// `>>> 0` necessary to avoid iOS/Safari 10 optimization bug
// can't truncate with `| 0`
a = (t1 + t2) >>> 0;
}
// update hash state
s.h0 = (s.h0 + a) | 0;
s.h1 = (s.h1 + b) | 0;
s.h2 = (s.h2 + c) | 0;
s.h3 = (s.h3 + d) | 0;
s.h4 = (s.h4 + e) | 0;
s.h5 = (s.h5 + f) | 0;
s.h6 = (s.h6 + g) | 0;
s.h7 = (s.h7 + h) | 0;
len -= 64;
}
}

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/**
* Secure Hash Algorithm with a 1024-bit block size implementation.
*
* This includes: SHA-512, SHA-384, SHA-512/224, and SHA-512/256. For
* SHA-256 (block size 512 bits), see sha256.js.
*
* See FIPS 180-4 for details.
*
* @author Dave Longley
*
* Copyright (c) 2014-2015 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./md');
require('./util');
var sha512 = module.exports = forge.sha512 = forge.sha512 || {};
// SHA-512
forge.md.sha512 = forge.md.algorithms.sha512 = sha512;
// SHA-384
var sha384 = forge.sha384 = forge.sha512.sha384 = forge.sha512.sha384 || {};
sha384.create = function() {
return sha512.create('SHA-384');
};
forge.md.sha384 = forge.md.algorithms.sha384 = sha384;
// SHA-512/256
forge.sha512.sha256 = forge.sha512.sha256 || {
create: function() {
return sha512.create('SHA-512/256');
}
};
forge.md['sha512/256'] = forge.md.algorithms['sha512/256'] =
forge.sha512.sha256;
// SHA-512/224
forge.sha512.sha224 = forge.sha512.sha224 || {
create: function() {
return sha512.create('SHA-512/224');
}
};
forge.md['sha512/224'] = forge.md.algorithms['sha512/224'] =
forge.sha512.sha224;
/**
* Creates a SHA-2 message digest object.
*
* @param algorithm the algorithm to use (SHA-512, SHA-384, SHA-512/224,
* SHA-512/256).
*
* @return a message digest object.
*/
sha512.create = function(algorithm) {
// do initialization as necessary
if(!_initialized) {
_init();
}
if(typeof algorithm === 'undefined') {
algorithm = 'SHA-512';
}
if(!(algorithm in _states)) {
throw new Error('Invalid SHA-512 algorithm: ' + algorithm);
}
// SHA-512 state contains eight 64-bit integers (each as two 32-bit ints)
var _state = _states[algorithm];
var _h = null;
// input buffer
var _input = forge.util.createBuffer();
// used for 64-bit word storage
var _w = new Array(80);
for(var wi = 0; wi < 80; ++wi) {
_w[wi] = new Array(2);
}
// determine digest length by algorithm name (default)
var digestLength = 64;
switch (algorithm) {
case 'SHA-384':
digestLength = 48;
break;
case 'SHA-512/256':
digestLength = 32;
break;
case 'SHA-512/224':
digestLength = 28;
break;
}
// message digest object
var md = {
// SHA-512 => sha512
algorithm: algorithm.replace('-', '').toLowerCase(),
blockLength: 128,
digestLength: digestLength,
// 56-bit length of message so far (does not including padding)
messageLength: 0,
// true message length
fullMessageLength: null,
// size of message length in bytes
messageLengthSize: 16
};
/**
* Starts the digest.
*
* @return this digest object.
*/
md.start = function() {
// up to 56-bit message length for convenience
md.messageLength = 0;
// full message length (set md.messageLength128 for backwards-compatibility)
md.fullMessageLength = md.messageLength128 = [];
var int32s = md.messageLengthSize / 4;
for(var i = 0; i < int32s; ++i) {
md.fullMessageLength.push(0);
}
_input = forge.util.createBuffer();
_h = new Array(_state.length);
for(var i = 0; i < _state.length; ++i) {
_h[i] = _state[i].slice(0);
}
return md;
};
// start digest automatically for first time
md.start();
/**
* Updates the digest with the given message input. The given input can
* treated as raw input (no encoding will be applied) or an encoding of
* 'utf8' maybe given to encode the input using UTF-8.
*
* @param msg the message input to update with.
* @param encoding the encoding to use (default: 'raw', other: 'utf8').
*
* @return this digest object.
*/
md.update = function(msg, encoding) {
if(encoding === 'utf8') {
msg = forge.util.encodeUtf8(msg);
}
// update message length
var len = msg.length;
md.messageLength += len;
len = [(len / 0x100000000) >>> 0, len >>> 0];
for(var i = md.fullMessageLength.length - 1; i >= 0; --i) {
md.fullMessageLength[i] += len[1];
len[1] = len[0] + ((md.fullMessageLength[i] / 0x100000000) >>> 0);
md.fullMessageLength[i] = md.fullMessageLength[i] >>> 0;
len[0] = ((len[1] / 0x100000000) >>> 0);
}
// add bytes to input buffer
_input.putBytes(msg);
// process bytes
_update(_h, _w, _input);
// compact input buffer every 2K or if empty
if(_input.read > 2048 || _input.length() === 0) {
_input.compact();
}
return md;
};
/**
* Produces the digest.
*
* @return a byte buffer containing the digest value.
*/
md.digest = function() {
/* Note: Here we copy the remaining bytes in the input buffer and
add the appropriate SHA-512 padding. Then we do the final update
on a copy of the state so that if the user wants to get
intermediate digests they can do so. */
/* Determine the number of bytes that must be added to the message
to ensure its length is congruent to 896 mod 1024. In other words,
the data to be digested must be a multiple of 1024 bits (or 128 bytes).
This data includes the message, some padding, and the length of the
message. Since the length of the message will be encoded as 16 bytes (128
bits), that means that the last segment of the data must have 112 bytes
(896 bits) of message and padding. Therefore, the length of the message
plus the padding must be congruent to 896 mod 1024 because
1024 - 128 = 896.
In order to fill up the message length it must be filled with
padding that begins with 1 bit followed by all 0 bits. Padding
must *always* be present, so if the message length is already
congruent to 896 mod 1024, then 1024 padding bits must be added. */
var finalBlock = forge.util.createBuffer();
finalBlock.putBytes(_input.bytes());
// compute remaining size to be digested (include message length size)
var remaining = (
md.fullMessageLength[md.fullMessageLength.length - 1] +
md.messageLengthSize);
// add padding for overflow blockSize - overflow
// _padding starts with 1 byte with first bit is set (byte value 128), then
// there may be up to (blockSize - 1) other pad bytes
var overflow = remaining & (md.blockLength - 1);
finalBlock.putBytes(_padding.substr(0, md.blockLength - overflow));
// serialize message length in bits in big-endian order; since length
// is stored in bytes we multiply by 8 and add carry from next int
var next, carry;
var bits = md.fullMessageLength[0] * 8;
for(var i = 0; i < md.fullMessageLength.length - 1; ++i) {
next = md.fullMessageLength[i + 1] * 8;
carry = (next / 0x100000000) >>> 0;
bits += carry;
finalBlock.putInt32(bits >>> 0);
bits = next >>> 0;
}
finalBlock.putInt32(bits);
var h = new Array(_h.length);
for(var i = 0; i < _h.length; ++i) {
h[i] = _h[i].slice(0);
}
_update(h, _w, finalBlock);
var rval = forge.util.createBuffer();
var hlen;
if(algorithm === 'SHA-512') {
hlen = h.length;
} else if(algorithm === 'SHA-384') {
hlen = h.length - 2;
} else {
hlen = h.length - 4;
}
for(var i = 0; i < hlen; ++i) {
rval.putInt32(h[i][0]);
if(i !== hlen - 1 || algorithm !== 'SHA-512/224') {
rval.putInt32(h[i][1]);
}
}
return rval;
};
return md;
};
// sha-512 padding bytes not initialized yet
var _padding = null;
var _initialized = false;
// table of constants
var _k = null;
// initial hash states
var _states = null;
/**
* Initializes the constant tables.
*/
function _init() {
// create padding
_padding = String.fromCharCode(128);
_padding += forge.util.fillString(String.fromCharCode(0x00), 128);
// create K table for SHA-512
_k = [
[0x428a2f98, 0xd728ae22], [0x71374491, 0x23ef65cd],
[0xb5c0fbcf, 0xec4d3b2f], [0xe9b5dba5, 0x8189dbbc],
[0x3956c25b, 0xf348b538], [0x59f111f1, 0xb605d019],
[0x923f82a4, 0xaf194f9b], [0xab1c5ed5, 0xda6d8118],
[0xd807aa98, 0xa3030242], [0x12835b01, 0x45706fbe],
[0x243185be, 0x4ee4b28c], [0x550c7dc3, 0xd5ffb4e2],
[0x72be5d74, 0xf27b896f], [0x80deb1fe, 0x3b1696b1],
[0x9bdc06a7, 0x25c71235], [0xc19bf174, 0xcf692694],
[0xe49b69c1, 0x9ef14ad2], [0xefbe4786, 0x384f25e3],
[0x0fc19dc6, 0x8b8cd5b5], [0x240ca1cc, 0x77ac9c65],
[0x2de92c6f, 0x592b0275], [0x4a7484aa, 0x6ea6e483],
[0x5cb0a9dc, 0xbd41fbd4], [0x76f988da, 0x831153b5],
[0x983e5152, 0xee66dfab], [0xa831c66d, 0x2db43210],
[0xb00327c8, 0x98fb213f], [0xbf597fc7, 0xbeef0ee4],
[0xc6e00bf3, 0x3da88fc2], [0xd5a79147, 0x930aa725],
[0x06ca6351, 0xe003826f], [0x14292967, 0x0a0e6e70],
[0x27b70a85, 0x46d22ffc], [0x2e1b2138, 0x5c26c926],
[0x4d2c6dfc, 0x5ac42aed], [0x53380d13, 0x9d95b3df],
[0x650a7354, 0x8baf63de], [0x766a0abb, 0x3c77b2a8],
[0x81c2c92e, 0x47edaee6], [0x92722c85, 0x1482353b],
[0xa2bfe8a1, 0x4cf10364], [0xa81a664b, 0xbc423001],
[0xc24b8b70, 0xd0f89791], [0xc76c51a3, 0x0654be30],
[0xd192e819, 0xd6ef5218], [0xd6990624, 0x5565a910],
[0xf40e3585, 0x5771202a], [0x106aa070, 0x32bbd1b8],
[0x19a4c116, 0xb8d2d0c8], [0x1e376c08, 0x5141ab53],
[0x2748774c, 0xdf8eeb99], [0x34b0bcb5, 0xe19b48a8],
[0x391c0cb3, 0xc5c95a63], [0x4ed8aa4a, 0xe3418acb],
[0x5b9cca4f, 0x7763e373], [0x682e6ff3, 0xd6b2b8a3],
[0x748f82ee, 0x5defb2fc], [0x78a5636f, 0x43172f60],
[0x84c87814, 0xa1f0ab72], [0x8cc70208, 0x1a6439ec],
[0x90befffa, 0x23631e28], [0xa4506ceb, 0xde82bde9],
[0xbef9a3f7, 0xb2c67915], [0xc67178f2, 0xe372532b],
[0xca273ece, 0xea26619c], [0xd186b8c7, 0x21c0c207],
[0xeada7dd6, 0xcde0eb1e], [0xf57d4f7f, 0xee6ed178],
[0x06f067aa, 0x72176fba], [0x0a637dc5, 0xa2c898a6],
[0x113f9804, 0xbef90dae], [0x1b710b35, 0x131c471b],
[0x28db77f5, 0x23047d84], [0x32caab7b, 0x40c72493],
[0x3c9ebe0a, 0x15c9bebc], [0x431d67c4, 0x9c100d4c],
[0x4cc5d4be, 0xcb3e42b6], [0x597f299c, 0xfc657e2a],
[0x5fcb6fab, 0x3ad6faec], [0x6c44198c, 0x4a475817]
];
// initial hash states
_states = {};
_states['SHA-512'] = [
[0x6a09e667, 0xf3bcc908],
[0xbb67ae85, 0x84caa73b],
[0x3c6ef372, 0xfe94f82b],
[0xa54ff53a, 0x5f1d36f1],
[0x510e527f, 0xade682d1],
[0x9b05688c, 0x2b3e6c1f],
[0x1f83d9ab, 0xfb41bd6b],
[0x5be0cd19, 0x137e2179]
];
_states['SHA-384'] = [
[0xcbbb9d5d, 0xc1059ed8],
[0x629a292a, 0x367cd507],
[0x9159015a, 0x3070dd17],
[0x152fecd8, 0xf70e5939],
[0x67332667, 0xffc00b31],
[0x8eb44a87, 0x68581511],
[0xdb0c2e0d, 0x64f98fa7],
[0x47b5481d, 0xbefa4fa4]
];
_states['SHA-512/256'] = [
[0x22312194, 0xFC2BF72C],
[0x9F555FA3, 0xC84C64C2],
[0x2393B86B, 0x6F53B151],
[0x96387719, 0x5940EABD],
[0x96283EE2, 0xA88EFFE3],
[0xBE5E1E25, 0x53863992],
[0x2B0199FC, 0x2C85B8AA],
[0x0EB72DDC, 0x81C52CA2]
];
_states['SHA-512/224'] = [
[0x8C3D37C8, 0x19544DA2],
[0x73E19966, 0x89DCD4D6],
[0x1DFAB7AE, 0x32FF9C82],
[0x679DD514, 0x582F9FCF],
[0x0F6D2B69, 0x7BD44DA8],
[0x77E36F73, 0x04C48942],
[0x3F9D85A8, 0x6A1D36C8],
[0x1112E6AD, 0x91D692A1]
];
// now initialized
_initialized = true;
}
/**
* Updates a SHA-512 state with the given byte buffer.
*
* @param s the SHA-512 state to update.
* @param w the array to use to store words.
* @param bytes the byte buffer to update with.
*/
function _update(s, w, bytes) {
// consume 512 bit (128 byte) chunks
var t1_hi, t1_lo;
var t2_hi, t2_lo;
var s0_hi, s0_lo;
var s1_hi, s1_lo;
var ch_hi, ch_lo;
var maj_hi, maj_lo;
var a_hi, a_lo;
var b_hi, b_lo;
var c_hi, c_lo;
var d_hi, d_lo;
var e_hi, e_lo;
var f_hi, f_lo;
var g_hi, g_lo;
var h_hi, h_lo;
var i, hi, lo, w2, w7, w15, w16;
var len = bytes.length();
while(len >= 128) {
// the w array will be populated with sixteen 64-bit big-endian words
// and then extended into 64 64-bit words according to SHA-512
for(i = 0; i < 16; ++i) {
w[i][0] = bytes.getInt32() >>> 0;
w[i][1] = bytes.getInt32() >>> 0;
}
for(; i < 80; ++i) {
// for word 2 words ago: ROTR 19(x) ^ ROTR 61(x) ^ SHR 6(x)
w2 = w[i - 2];
hi = w2[0];
lo = w2[1];
// high bits
t1_hi = (
((hi >>> 19) | (lo << 13)) ^ // ROTR 19
((lo >>> 29) | (hi << 3)) ^ // ROTR 61/(swap + ROTR 29)
(hi >>> 6)) >>> 0; // SHR 6
// low bits
t1_lo = (
((hi << 13) | (lo >>> 19)) ^ // ROTR 19
((lo << 3) | (hi >>> 29)) ^ // ROTR 61/(swap + ROTR 29)
((hi << 26) | (lo >>> 6))) >>> 0; // SHR 6
// for word 15 words ago: ROTR 1(x) ^ ROTR 8(x) ^ SHR 7(x)
w15 = w[i - 15];
hi = w15[0];
lo = w15[1];
// high bits
t2_hi = (
((hi >>> 1) | (lo << 31)) ^ // ROTR 1
((hi >>> 8) | (lo << 24)) ^ // ROTR 8
(hi >>> 7)) >>> 0; // SHR 7
// low bits
t2_lo = (
((hi << 31) | (lo >>> 1)) ^ // ROTR 1
((hi << 24) | (lo >>> 8)) ^ // ROTR 8
((hi << 25) | (lo >>> 7))) >>> 0; // SHR 7
// sum(t1, word 7 ago, t2, word 16 ago) modulo 2^64 (carry lo overflow)
w7 = w[i - 7];
w16 = w[i - 16];
lo = (t1_lo + w7[1] + t2_lo + w16[1]);
w[i][0] = (t1_hi + w7[0] + t2_hi + w16[0] +
((lo / 0x100000000) >>> 0)) >>> 0;
w[i][1] = lo >>> 0;
}
// initialize hash value for this chunk
a_hi = s[0][0];
a_lo = s[0][1];
b_hi = s[1][0];
b_lo = s[1][1];
c_hi = s[2][0];
c_lo = s[2][1];
d_hi = s[3][0];
d_lo = s[3][1];
e_hi = s[4][0];
e_lo = s[4][1];
f_hi = s[5][0];
f_lo = s[5][1];
g_hi = s[6][0];
g_lo = s[6][1];
h_hi = s[7][0];
h_lo = s[7][1];
// round function
for(i = 0; i < 80; ++i) {
// Sum1(e) = ROTR 14(e) ^ ROTR 18(e) ^ ROTR 41(e)
s1_hi = (
((e_hi >>> 14) | (e_lo << 18)) ^ // ROTR 14
((e_hi >>> 18) | (e_lo << 14)) ^ // ROTR 18
((e_lo >>> 9) | (e_hi << 23))) >>> 0; // ROTR 41/(swap + ROTR 9)
s1_lo = (
((e_hi << 18) | (e_lo >>> 14)) ^ // ROTR 14
((e_hi << 14) | (e_lo >>> 18)) ^ // ROTR 18
((e_lo << 23) | (e_hi >>> 9))) >>> 0; // ROTR 41/(swap + ROTR 9)
// Ch(e, f, g) (optimized the same way as SHA-1)
ch_hi = (g_hi ^ (e_hi & (f_hi ^ g_hi))) >>> 0;
ch_lo = (g_lo ^ (e_lo & (f_lo ^ g_lo))) >>> 0;
// Sum0(a) = ROTR 28(a) ^ ROTR 34(a) ^ ROTR 39(a)
s0_hi = (
((a_hi >>> 28) | (a_lo << 4)) ^ // ROTR 28
((a_lo >>> 2) | (a_hi << 30)) ^ // ROTR 34/(swap + ROTR 2)
((a_lo >>> 7) | (a_hi << 25))) >>> 0; // ROTR 39/(swap + ROTR 7)
s0_lo = (
((a_hi << 4) | (a_lo >>> 28)) ^ // ROTR 28
((a_lo << 30) | (a_hi >>> 2)) ^ // ROTR 34/(swap + ROTR 2)
((a_lo << 25) | (a_hi >>> 7))) >>> 0; // ROTR 39/(swap + ROTR 7)
// Maj(a, b, c) (optimized the same way as SHA-1)
maj_hi = ((a_hi & b_hi) | (c_hi & (a_hi ^ b_hi))) >>> 0;
maj_lo = ((a_lo & b_lo) | (c_lo & (a_lo ^ b_lo))) >>> 0;
// main algorithm
// t1 = (h + s1 + ch + _k[i] + _w[i]) modulo 2^64 (carry lo overflow)
lo = (h_lo + s1_lo + ch_lo + _k[i][1] + w[i][1]);
t1_hi = (h_hi + s1_hi + ch_hi + _k[i][0] + w[i][0] +
((lo / 0x100000000) >>> 0)) >>> 0;
t1_lo = lo >>> 0;
// t2 = s0 + maj modulo 2^64 (carry lo overflow)
lo = s0_lo + maj_lo;
t2_hi = (s0_hi + maj_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
t2_lo = lo >>> 0;
h_hi = g_hi;
h_lo = g_lo;
g_hi = f_hi;
g_lo = f_lo;
f_hi = e_hi;
f_lo = e_lo;
// e = (d + t1) modulo 2^64 (carry lo overflow)
lo = d_lo + t1_lo;
e_hi = (d_hi + t1_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
e_lo = lo >>> 0;
d_hi = c_hi;
d_lo = c_lo;
c_hi = b_hi;
c_lo = b_lo;
b_hi = a_hi;
b_lo = a_lo;
// a = (t1 + t2) modulo 2^64 (carry lo overflow)
lo = t1_lo + t2_lo;
a_hi = (t1_hi + t2_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
a_lo = lo >>> 0;
}
// update hash state (additional modulo 2^64)
lo = s[0][1] + a_lo;
s[0][0] = (s[0][0] + a_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
s[0][1] = lo >>> 0;
lo = s[1][1] + b_lo;
s[1][0] = (s[1][0] + b_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
s[1][1] = lo >>> 0;
lo = s[2][1] + c_lo;
s[2][0] = (s[2][0] + c_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
s[2][1] = lo >>> 0;
lo = s[3][1] + d_lo;
s[3][0] = (s[3][0] + d_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
s[3][1] = lo >>> 0;
lo = s[4][1] + e_lo;
s[4][0] = (s[4][0] + e_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
s[4][1] = lo >>> 0;
lo = s[5][1] + f_lo;
s[5][0] = (s[5][0] + f_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
s[5][1] = lo >>> 0;
lo = s[6][1] + g_lo;
s[6][0] = (s[6][0] + g_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
s[6][1] = lo >>> 0;
lo = s[7][1] + h_lo;
s[7][0] = (s[7][0] + h_hi + ((lo / 0x100000000) >>> 0)) >>> 0;
s[7][1] = lo >>> 0;
len -= 128;
}
}

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node_modules/node-forge/lib/socket.js generated vendored Normal file
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/**
* Socket implementation that uses flash SocketPool class as a backend.
*
* @author Dave Longley
*
* Copyright (c) 2010-2013 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./util');
// define net namespace
var net = module.exports = forge.net = forge.net || {};
// map of flash ID to socket pool
net.socketPools = {};
/**
* Creates a flash socket pool.
*
* @param options:
* flashId: the dom ID for the flash object element.
* policyPort: the default policy port for sockets, 0 to use the
* flash default.
* policyUrl: the default policy file URL for sockets (if provided
* used instead of a policy port).
* msie: true if the browser is msie, false if not.
*
* @return the created socket pool.
*/
net.createSocketPool = function(options) {
// set default
options.msie = options.msie || false;
// initialize the flash interface
var spId = options.flashId;
var api = document.getElementById(spId);
api.init({marshallExceptions: !options.msie});
// create socket pool entry
var sp = {
// ID of the socket pool
id: spId,
// flash interface
flashApi: api,
// map of socket ID to sockets
sockets: {},
// default policy port
policyPort: options.policyPort || 0,
// default policy URL
policyUrl: options.policyUrl || null
};
net.socketPools[spId] = sp;
// create event handler, subscribe to flash events
if(options.msie === true) {
sp.handler = function(e) {
if(e.id in sp.sockets) {
// get handler function
var f;
switch(e.type) {
case 'connect':
f = 'connected';
break;
case 'close':
f = 'closed';
break;
case 'socketData':
f = 'data';
break;
default:
f = 'error';
break;
}
/* IE calls javascript on the thread of the external object
that triggered the event (in this case flash) ... which will
either run concurrently with other javascript or pre-empt any
running javascript in the middle of its execution (BAD!) ...
calling setTimeout() will schedule the javascript to run on
the javascript thread and solve this EVIL problem. */
setTimeout(function() {sp.sockets[e.id][f](e);}, 0);
}
};
} else {
sp.handler = function(e) {
if(e.id in sp.sockets) {
// get handler function
var f;
switch(e.type) {
case 'connect':
f = 'connected';
break;
case 'close':
f = 'closed';
break;
case 'socketData':
f = 'data';
break;
default:
f = 'error';
break;
}
sp.sockets[e.id][f](e);
}
};
}
var handler = 'forge.net.socketPools[\'' + spId + '\'].handler';
api.subscribe('connect', handler);
api.subscribe('close', handler);
api.subscribe('socketData', handler);
api.subscribe('ioError', handler);
api.subscribe('securityError', handler);
/**
* Destroys a socket pool. The socket pool still needs to be cleaned
* up via net.cleanup().
*/
sp.destroy = function() {
delete net.socketPools[options.flashId];
for(var id in sp.sockets) {
sp.sockets[id].destroy();
}
sp.sockets = {};
api.cleanup();
};
/**
* Creates a new socket.
*
* @param options:
* connected: function(event) called when the socket connects.
* closed: function(event) called when the socket closes.
* data: function(event) called when socket data has arrived,
* it can be read from the socket using receive().
* error: function(event) called when a socket error occurs.
*/
sp.createSocket = function(options) {
// default to empty options
options = options || {};
// create flash socket
var id = api.create();
// create javascript socket wrapper
var socket = {
id: id,
// set handlers
connected: options.connected || function(e) {},
closed: options.closed || function(e) {},
data: options.data || function(e) {},
error: options.error || function(e) {}
};
/**
* Destroys this socket.
*/
socket.destroy = function() {
api.destroy(id);
delete sp.sockets[id];
};
/**
* Connects this socket.
*
* @param options:
* host: the host to connect to.
* port: the port to connect to.
* policyPort: the policy port to use (if non-default), 0 to
* use the flash default.
* policyUrl: the policy file URL to use (instead of port).
*/
socket.connect = function(options) {
// give precedence to policy URL over policy port
// if no policy URL and passed port isn't 0, use default port,
// otherwise use 0 for the port
var policyUrl = options.policyUrl || null;
var policyPort = 0;
if(policyUrl === null && options.policyPort !== 0) {
policyPort = options.policyPort || sp.policyPort;
}
api.connect(id, options.host, options.port, policyPort, policyUrl);
};
/**
* Closes this socket.
*/
socket.close = function() {
api.close(id);
socket.closed({
id: socket.id,
type: 'close',
bytesAvailable: 0
});
};
/**
* Determines if the socket is connected or not.
*
* @return true if connected, false if not.
*/
socket.isConnected = function() {
return api.isConnected(id);
};
/**
* Writes bytes to this socket.
*
* @param bytes the bytes (as a string) to write.
*
* @return true on success, false on failure.
*/
socket.send = function(bytes) {
return api.send(id, forge.util.encode64(bytes));
};
/**
* Reads bytes from this socket (non-blocking). Fewer than the number
* of bytes requested may be read if enough bytes are not available.
*
* This method should be called from the data handler if there are
* enough bytes available. To see how many bytes are available, check
* the 'bytesAvailable' property on the event in the data handler or
* call the bytesAvailable() function on the socket. If the browser is
* msie, then the bytesAvailable() function should be used to avoid
* race conditions. Otherwise, using the property on the data handler's
* event may be quicker.
*
* @param count the maximum number of bytes to read.
*
* @return the bytes read (as a string) or null on error.
*/
socket.receive = function(count) {
var rval = api.receive(id, count).rval;
return (rval === null) ? null : forge.util.decode64(rval);
};
/**
* Gets the number of bytes available for receiving on the socket.
*
* @return the number of bytes available for receiving.
*/
socket.bytesAvailable = function() {
return api.getBytesAvailable(id);
};
// store and return socket
sp.sockets[id] = socket;
return socket;
};
return sp;
};
/**
* Destroys a flash socket pool.
*
* @param options:
* flashId: the dom ID for the flash object element.
*/
net.destroySocketPool = function(options) {
if(options.flashId in net.socketPools) {
var sp = net.socketPools[options.flashId];
sp.destroy();
}
};
/**
* Creates a new socket.
*
* @param options:
* flashId: the dom ID for the flash object element.
* connected: function(event) called when the socket connects.
* closed: function(event) called when the socket closes.
* data: function(event) called when socket data has arrived, it
* can be read from the socket using receive().
* error: function(event) called when a socket error occurs.
*
* @return the created socket.
*/
net.createSocket = function(options) {
var socket = null;
if(options.flashId in net.socketPools) {
// get related socket pool
var sp = net.socketPools[options.flashId];
socket = sp.createSocket(options);
}
return socket;
};

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node_modules/node-forge/lib/ssh.js generated vendored Normal file
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/**
* Functions to output keys in SSH-friendly formats.
*
* This is part of the Forge project which may be used under the terms of
* either the BSD License or the GNU General Public License (GPL) Version 2.
*
* See: https://github.com/digitalbazaar/forge/blob/cbebca3780658703d925b61b2caffb1d263a6c1d/LICENSE
*
* @author https://github.com/shellac
*/
var forge = require('./forge');
require('./aes');
require('./hmac');
require('./md5');
require('./sha1');
require('./util');
var ssh = module.exports = forge.ssh = forge.ssh || {};
/**
* Encodes (and optionally encrypts) a private RSA key as a Putty PPK file.
*
* @param privateKey the key.
* @param passphrase a passphrase to protect the key (falsy for no encryption).
* @param comment a comment to include in the key file.
*
* @return the PPK file as a string.
*/
ssh.privateKeyToPutty = function(privateKey, passphrase, comment) {
comment = comment || '';
passphrase = passphrase || '';
var algorithm = 'ssh-rsa';
var encryptionAlgorithm = (passphrase === '') ? 'none' : 'aes256-cbc';
var ppk = 'PuTTY-User-Key-File-2: ' + algorithm + '\r\n';
ppk += 'Encryption: ' + encryptionAlgorithm + '\r\n';
ppk += 'Comment: ' + comment + '\r\n';
// public key into buffer for ppk
var pubbuffer = forge.util.createBuffer();
_addStringToBuffer(pubbuffer, algorithm);
_addBigIntegerToBuffer(pubbuffer, privateKey.e);
_addBigIntegerToBuffer(pubbuffer, privateKey.n);
// write public key
var pub = forge.util.encode64(pubbuffer.bytes(), 64);
var length = Math.floor(pub.length / 66) + 1; // 66 = 64 + \r\n
ppk += 'Public-Lines: ' + length + '\r\n';
ppk += pub;
// private key into a buffer
var privbuffer = forge.util.createBuffer();
_addBigIntegerToBuffer(privbuffer, privateKey.d);
_addBigIntegerToBuffer(privbuffer, privateKey.p);
_addBigIntegerToBuffer(privbuffer, privateKey.q);
_addBigIntegerToBuffer(privbuffer, privateKey.qInv);
// optionally encrypt the private key
var priv;
if(!passphrase) {
// use the unencrypted buffer
priv = forge.util.encode64(privbuffer.bytes(), 64);
} else {
// encrypt RSA key using passphrase
var encLen = privbuffer.length() + 16 - 1;
encLen -= encLen % 16;
// pad private key with sha1-d data -- needs to be a multiple of 16
var padding = _sha1(privbuffer.bytes());
padding.truncate(padding.length() - encLen + privbuffer.length());
privbuffer.putBuffer(padding);
var aeskey = forge.util.createBuffer();
aeskey.putBuffer(_sha1('\x00\x00\x00\x00', passphrase));
aeskey.putBuffer(_sha1('\x00\x00\x00\x01', passphrase));
// encrypt some bytes using CBC mode
// key is 40 bytes, so truncate *by* 8 bytes
var cipher = forge.aes.createEncryptionCipher(aeskey.truncate(8), 'CBC');
cipher.start(forge.util.createBuffer().fillWithByte(0, 16));
cipher.update(privbuffer.copy());
cipher.finish();
var encrypted = cipher.output;
// Note: this appears to differ from Putty -- is forge wrong, or putty?
// due to padding we finish as an exact multiple of 16
encrypted.truncate(16); // all padding
priv = forge.util.encode64(encrypted.bytes(), 64);
}
// output private key
length = Math.floor(priv.length / 66) + 1; // 64 + \r\n
ppk += '\r\nPrivate-Lines: ' + length + '\r\n';
ppk += priv;
// MAC
var mackey = _sha1('putty-private-key-file-mac-key', passphrase);
var macbuffer = forge.util.createBuffer();
_addStringToBuffer(macbuffer, algorithm);
_addStringToBuffer(macbuffer, encryptionAlgorithm);
_addStringToBuffer(macbuffer, comment);
macbuffer.putInt32(pubbuffer.length());
macbuffer.putBuffer(pubbuffer);
macbuffer.putInt32(privbuffer.length());
macbuffer.putBuffer(privbuffer);
var hmac = forge.hmac.create();
hmac.start('sha1', mackey);
hmac.update(macbuffer.bytes());
ppk += '\r\nPrivate-MAC: ' + hmac.digest().toHex() + '\r\n';
return ppk;
};
/**
* Encodes a public RSA key as an OpenSSH file.
*
* @param key the key.
* @param comment a comment.
*
* @return the public key in OpenSSH format.
*/
ssh.publicKeyToOpenSSH = function(key, comment) {
var type = 'ssh-rsa';
comment = comment || '';
var buffer = forge.util.createBuffer();
_addStringToBuffer(buffer, type);
_addBigIntegerToBuffer(buffer, key.e);
_addBigIntegerToBuffer(buffer, key.n);
return type + ' ' + forge.util.encode64(buffer.bytes()) + ' ' + comment;
};
/**
* Encodes a private RSA key as an OpenSSH file.
*
* @param key the key.
* @param passphrase a passphrase to protect the key (falsy for no encryption).
*
* @return the public key in OpenSSH format.
*/
ssh.privateKeyToOpenSSH = function(privateKey, passphrase) {
if(!passphrase) {
return forge.pki.privateKeyToPem(privateKey);
}
// OpenSSH private key is just a legacy format, it seems
return forge.pki.encryptRsaPrivateKey(privateKey, passphrase,
{legacy: true, algorithm: 'aes128'});
};
/**
* Gets the SSH fingerprint for the given public key.
*
* @param options the options to use.
* [md] the message digest object to use (defaults to forge.md.md5).
* [encoding] an alternative output encoding, such as 'hex'
* (defaults to none, outputs a byte buffer).
* [delimiter] the delimiter to use between bytes for 'hex' encoded
* output, eg: ':' (defaults to none).
*
* @return the fingerprint as a byte buffer or other encoding based on options.
*/
ssh.getPublicKeyFingerprint = function(key, options) {
options = options || {};
var md = options.md || forge.md.md5.create();
var type = 'ssh-rsa';
var buffer = forge.util.createBuffer();
_addStringToBuffer(buffer, type);
_addBigIntegerToBuffer(buffer, key.e);
_addBigIntegerToBuffer(buffer, key.n);
// hash public key bytes
md.start();
md.update(buffer.getBytes());
var digest = md.digest();
if(options.encoding === 'hex') {
var hex = digest.toHex();
if(options.delimiter) {
return hex.match(/.{2}/g).join(options.delimiter);
}
return hex;
} else if(options.encoding === 'binary') {
return digest.getBytes();
} else if(options.encoding) {
throw new Error('Unknown encoding "' + options.encoding + '".');
}
return digest;
};
/**
* Adds len(val) then val to a buffer.
*
* @param buffer the buffer to add to.
* @param val a big integer.
*/
function _addBigIntegerToBuffer(buffer, val) {
var hexVal = val.toString(16);
// ensure 2s complement +ve
if(hexVal[0] >= '8') {
hexVal = '00' + hexVal;
}
var bytes = forge.util.hexToBytes(hexVal);
buffer.putInt32(bytes.length);
buffer.putBytes(bytes);
}
/**
* Adds len(val) then val to a buffer.
*
* @param buffer the buffer to add to.
* @param val a string.
*/
function _addStringToBuffer(buffer, val) {
buffer.putInt32(val.length);
buffer.putString(val);
}
/**
* Hashes the arguments into one value using SHA-1.
*
* @return the sha1 hash of the provided arguments.
*/
function _sha1() {
var sha = forge.md.sha1.create();
var num = arguments.length;
for (var i = 0; i < num; ++i) {
sha.update(arguments[i]);
}
return sha.digest();
}

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/**
* Support for concurrent task management and synchronization in web
* applications.
*
* @author Dave Longley
* @author David I. Lehn <dlehn@digitalbazaar.com>
*
* Copyright (c) 2009-2013 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./debug');
require('./log');
require('./util');
// logging category
var cat = 'forge.task';
// verbose level
// 0: off, 1: a little, 2: a whole lot
// Verbose debug logging is surrounded by a level check to avoid the
// performance issues with even calling the logging code regardless if it
// is actually logged. For performance reasons this should not be set to 2
// for production use.
// ex: if(sVL >= 2) forge.log.verbose(....)
var sVL = 0;
// track tasks for debugging
var sTasks = {};
var sNextTaskId = 0;
// debug access
forge.debug.set(cat, 'tasks', sTasks);
// a map of task type to task queue
var sTaskQueues = {};
// debug access
forge.debug.set(cat, 'queues', sTaskQueues);
// name for unnamed tasks
var sNoTaskName = '?';
// maximum number of doNext() recursions before a context swap occurs
// FIXME: might need to tweak this based on the browser
var sMaxRecursions = 30;
// time slice for doing tasks before a context swap occurs
// FIXME: might need to tweak this based on the browser
var sTimeSlice = 20;
/**
* Task states.
*
* READY: ready to start processing
* RUNNING: task or a subtask is running
* BLOCKED: task is waiting to acquire N permits to continue
* SLEEPING: task is sleeping for a period of time
* DONE: task is done
* ERROR: task has an error
*/
var READY = 'ready';
var RUNNING = 'running';
var BLOCKED = 'blocked';
var SLEEPING = 'sleeping';
var DONE = 'done';
var ERROR = 'error';
/**
* Task actions. Used to control state transitions.
*
* STOP: stop processing
* START: start processing tasks
* BLOCK: block task from continuing until 1 or more permits are released
* UNBLOCK: release one or more permits
* SLEEP: sleep for a period of time
* WAKEUP: wakeup early from SLEEPING state
* CANCEL: cancel further tasks
* FAIL: a failure occured
*/
var STOP = 'stop';
var START = 'start';
var BLOCK = 'block';
var UNBLOCK = 'unblock';
var SLEEP = 'sleep';
var WAKEUP = 'wakeup';
var CANCEL = 'cancel';
var FAIL = 'fail';
/**
* State transition table.
*
* nextState = sStateTable[currentState][action]
*/
var sStateTable = {};
sStateTable[READY] = {};
sStateTable[READY][STOP] = READY;
sStateTable[READY][START] = RUNNING;
sStateTable[READY][CANCEL] = DONE;
sStateTable[READY][FAIL] = ERROR;
sStateTable[RUNNING] = {};
sStateTable[RUNNING][STOP] = READY;
sStateTable[RUNNING][START] = RUNNING;
sStateTable[RUNNING][BLOCK] = BLOCKED;
sStateTable[RUNNING][UNBLOCK] = RUNNING;
sStateTable[RUNNING][SLEEP] = SLEEPING;
sStateTable[RUNNING][WAKEUP] = RUNNING;
sStateTable[RUNNING][CANCEL] = DONE;
sStateTable[RUNNING][FAIL] = ERROR;
sStateTable[BLOCKED] = {};
sStateTable[BLOCKED][STOP] = BLOCKED;
sStateTable[BLOCKED][START] = BLOCKED;
sStateTable[BLOCKED][BLOCK] = BLOCKED;
sStateTable[BLOCKED][UNBLOCK] = BLOCKED;
sStateTable[BLOCKED][SLEEP] = BLOCKED;
sStateTable[BLOCKED][WAKEUP] = BLOCKED;
sStateTable[BLOCKED][CANCEL] = DONE;
sStateTable[BLOCKED][FAIL] = ERROR;
sStateTable[SLEEPING] = {};
sStateTable[SLEEPING][STOP] = SLEEPING;
sStateTable[SLEEPING][START] = SLEEPING;
sStateTable[SLEEPING][BLOCK] = SLEEPING;
sStateTable[SLEEPING][UNBLOCK] = SLEEPING;
sStateTable[SLEEPING][SLEEP] = SLEEPING;
sStateTable[SLEEPING][WAKEUP] = SLEEPING;
sStateTable[SLEEPING][CANCEL] = DONE;
sStateTable[SLEEPING][FAIL] = ERROR;
sStateTable[DONE] = {};
sStateTable[DONE][STOP] = DONE;
sStateTable[DONE][START] = DONE;
sStateTable[DONE][BLOCK] = DONE;
sStateTable[DONE][UNBLOCK] = DONE;
sStateTable[DONE][SLEEP] = DONE;
sStateTable[DONE][WAKEUP] = DONE;
sStateTable[DONE][CANCEL] = DONE;
sStateTable[DONE][FAIL] = ERROR;
sStateTable[ERROR] = {};
sStateTable[ERROR][STOP] = ERROR;
sStateTable[ERROR][START] = ERROR;
sStateTable[ERROR][BLOCK] = ERROR;
sStateTable[ERROR][UNBLOCK] = ERROR;
sStateTable[ERROR][SLEEP] = ERROR;
sStateTable[ERROR][WAKEUP] = ERROR;
sStateTable[ERROR][CANCEL] = ERROR;
sStateTable[ERROR][FAIL] = ERROR;
/**
* Creates a new task.
*
* @param options options for this task
* run: the run function for the task (required)
* name: the run function for the task (optional)
* parent: parent of this task (optional)
*
* @return the empty task.
*/
var Task = function(options) {
// task id
this.id = -1;
// task name
this.name = options.name || sNoTaskName;
// task has no parent
this.parent = options.parent || null;
// save run function
this.run = options.run;
// create a queue of subtasks to run
this.subtasks = [];
// error flag
this.error = false;
// state of the task
this.state = READY;
// number of times the task has been blocked (also the number
// of permits needed to be released to continue running)
this.blocks = 0;
// timeout id when sleeping
this.timeoutId = null;
// no swap time yet
this.swapTime = null;
// no user data
this.userData = null;
// initialize task
// FIXME: deal with overflow
this.id = sNextTaskId++;
sTasks[this.id] = this;
if(sVL >= 1) {
forge.log.verbose(cat, '[%s][%s] init', this.id, this.name, this);
}
};
/**
* Logs debug information on this task and the system state.
*/
Task.prototype.debug = function(msg) {
msg = msg || '';
forge.log.debug(cat, msg,
'[%s][%s] task:', this.id, this.name, this,
'subtasks:', this.subtasks.length,
'queue:', sTaskQueues);
};
/**
* Adds a subtask to run after task.doNext() or task.fail() is called.
*
* @param name human readable name for this task (optional).
* @param subrun a function to run that takes the current task as
* its first parameter.
*
* @return the current task (useful for chaining next() calls).
*/
Task.prototype.next = function(name, subrun) {
// juggle parameters if it looks like no name is given
if(typeof(name) === 'function') {
subrun = name;
// inherit parent's name
name = this.name;
}
// create subtask, set parent to this task, propagate callbacks
var subtask = new Task({
run: subrun,
name: name,
parent: this
});
// start subtasks running
subtask.state = RUNNING;
subtask.type = this.type;
subtask.successCallback = this.successCallback || null;
subtask.failureCallback = this.failureCallback || null;
// queue a new subtask
this.subtasks.push(subtask);
return this;
};
/**
* Adds subtasks to run in parallel after task.doNext() or task.fail()
* is called.
*
* @param name human readable name for this task (optional).
* @param subrun functions to run that take the current task as
* their first parameter.
*
* @return the current task (useful for chaining next() calls).
*/
Task.prototype.parallel = function(name, subrun) {
// juggle parameters if it looks like no name is given
if(forge.util.isArray(name)) {
subrun = name;
// inherit parent's name
name = this.name;
}
// Wrap parallel tasks in a regular task so they are started at the
// proper time.
return this.next(name, function(task) {
// block waiting for subtasks
var ptask = task;
ptask.block(subrun.length);
// we pass the iterator from the loop below as a parameter
// to a function because it is otherwise included in the
// closure and changes as the loop changes -- causing i
// to always be set to its highest value
var startParallelTask = function(pname, pi) {
forge.task.start({
type: pname,
run: function(task) {
subrun[pi](task);
},
success: function(task) {
ptask.unblock();
},
failure: function(task) {
ptask.unblock();
}
});
};
for(var i = 0; i < subrun.length; i++) {
// Type must be unique so task starts in parallel:
// name + private string + task id + sub-task index
// start tasks in parallel and unblock when the finish
var pname = name + '__parallel-' + task.id + '-' + i;
var pi = i;
startParallelTask(pname, pi);
}
});
};
/**
* Stops a running task.
*/
Task.prototype.stop = function() {
this.state = sStateTable[this.state][STOP];
};
/**
* Starts running a task.
*/
Task.prototype.start = function() {
this.error = false;
this.state = sStateTable[this.state][START];
// try to restart
if(this.state === RUNNING) {
this.start = new Date();
this.run(this);
runNext(this, 0);
}
};
/**
* Blocks a task until it one or more permits have been released. The
* task will not resume until the requested number of permits have
* been released with call(s) to unblock().
*
* @param n number of permits to wait for(default: 1).
*/
Task.prototype.block = function(n) {
n = typeof(n) === 'undefined' ? 1 : n;
this.blocks += n;
if(this.blocks > 0) {
this.state = sStateTable[this.state][BLOCK];
}
};
/**
* Releases a permit to unblock a task. If a task was blocked by
* requesting N permits via block(), then it will only continue
* running once enough permits have been released via unblock() calls.
*
* If multiple processes need to synchronize with a single task then
* use a condition variable (see forge.task.createCondition). It is
* an error to unblock a task more times than it has been blocked.
*
* @param n number of permits to release (default: 1).
*
* @return the current block count (task is unblocked when count is 0)
*/
Task.prototype.unblock = function(n) {
n = typeof(n) === 'undefined' ? 1 : n;
this.blocks -= n;
if(this.blocks === 0 && this.state !== DONE) {
this.state = RUNNING;
runNext(this, 0);
}
return this.blocks;
};
/**
* Sleep for a period of time before resuming tasks.
*
* @param n number of milliseconds to sleep (default: 0).
*/
Task.prototype.sleep = function(n) {
n = typeof(n) === 'undefined' ? 0 : n;
this.state = sStateTable[this.state][SLEEP];
var self = this;
this.timeoutId = setTimeout(function() {
self.timeoutId = null;
self.state = RUNNING;
runNext(self, 0);
}, n);
};
/**
* Waits on a condition variable until notified. The next task will
* not be scheduled until notification. A condition variable can be
* created with forge.task.createCondition().
*
* Once cond.notify() is called, the task will continue.
*
* @param cond the condition variable to wait on.
*/
Task.prototype.wait = function(cond) {
cond.wait(this);
};
/**
* If sleeping, wakeup and continue running tasks.
*/
Task.prototype.wakeup = function() {
if(this.state === SLEEPING) {
cancelTimeout(this.timeoutId);
this.timeoutId = null;
this.state = RUNNING;
runNext(this, 0);
}
};
/**
* Cancel all remaining subtasks of this task.
*/
Task.prototype.cancel = function() {
this.state = sStateTable[this.state][CANCEL];
// remove permits needed
this.permitsNeeded = 0;
// cancel timeouts
if(this.timeoutId !== null) {
cancelTimeout(this.timeoutId);
this.timeoutId = null;
}
// remove subtasks
this.subtasks = [];
};
/**
* Finishes this task with failure and sets error flag. The entire
* task will be aborted unless the next task that should execute
* is passed as a parameter. This allows levels of subtasks to be
* skipped. For instance, to abort only this tasks's subtasks, then
* call fail(task.parent). To abort this task's subtasks and its
* parent's subtasks, call fail(task.parent.parent). To abort
* all tasks and simply call the task callback, call fail() or
* fail(null).
*
* The task callback (success or failure) will always, eventually, be
* called.
*
* @param next the task to continue at, or null to abort entirely.
*/
Task.prototype.fail = function(next) {
// set error flag
this.error = true;
// finish task
finish(this, true);
if(next) {
// propagate task info
next.error = this.error;
next.swapTime = this.swapTime;
next.userData = this.userData;
// do next task as specified
runNext(next, 0);
} else {
if(this.parent !== null) {
// finish root task (ensures it is removed from task queue)
var parent = this.parent;
while(parent.parent !== null) {
// propagate task info
parent.error = this.error;
parent.swapTime = this.swapTime;
parent.userData = this.userData;
parent = parent.parent;
}
finish(parent, true);
}
// call failure callback if one exists
if(this.failureCallback) {
this.failureCallback(this);
}
}
};
/**
* Asynchronously start a task.
*
* @param task the task to start.
*/
var start = function(task) {
task.error = false;
task.state = sStateTable[task.state][START];
setTimeout(function() {
if(task.state === RUNNING) {
task.swapTime = +new Date();
task.run(task);
runNext(task, 0);
}
}, 0);
};
/**
* Run the next subtask or finish this task.
*
* @param task the task to process.
* @param recurse the recursion count.
*/
var runNext = function(task, recurse) {
// get time since last context swap (ms), if enough time has passed set
// swap to true to indicate that doNext was performed asynchronously
// also, if recurse is too high do asynchronously
var swap =
(recurse > sMaxRecursions) ||
(+new Date() - task.swapTime) > sTimeSlice;
var doNext = function(recurse) {
recurse++;
if(task.state === RUNNING) {
if(swap) {
// update swap time
task.swapTime = +new Date();
}
if(task.subtasks.length > 0) {
// run next subtask
var subtask = task.subtasks.shift();
subtask.error = task.error;
subtask.swapTime = task.swapTime;
subtask.userData = task.userData;
subtask.run(subtask);
if(!subtask.error) {
runNext(subtask, recurse);
}
} else {
finish(task);
if(!task.error) {
// chain back up and run parent
if(task.parent !== null) {
// propagate task info
task.parent.error = task.error;
task.parent.swapTime = task.swapTime;
task.parent.userData = task.userData;
// no subtasks left, call run next subtask on parent
runNext(task.parent, recurse);
}
}
}
}
};
if(swap) {
// we're swapping, so run asynchronously
setTimeout(doNext, 0);
} else {
// not swapping, so run synchronously
doNext(recurse);
}
};
/**
* Finishes a task and looks for the next task in the queue to start.
*
* @param task the task to finish.
* @param suppressCallbacks true to suppress callbacks.
*/
var finish = function(task, suppressCallbacks) {
// subtask is now done
task.state = DONE;
delete sTasks[task.id];
if(sVL >= 1) {
forge.log.verbose(cat, '[%s][%s] finish',
task.id, task.name, task);
}
// only do queue processing for root tasks
if(task.parent === null) {
// report error if queue is missing
if(!(task.type in sTaskQueues)) {
forge.log.error(cat,
'[%s][%s] task queue missing [%s]',
task.id, task.name, task.type);
} else if(sTaskQueues[task.type].length === 0) {
// report error if queue is empty
forge.log.error(cat,
'[%s][%s] task queue empty [%s]',
task.id, task.name, task.type);
} else if(sTaskQueues[task.type][0] !== task) {
// report error if this task isn't the first in the queue
forge.log.error(cat,
'[%s][%s] task not first in queue [%s]',
task.id, task.name, task.type);
} else {
// remove ourselves from the queue
sTaskQueues[task.type].shift();
// clean up queue if it is empty
if(sTaskQueues[task.type].length === 0) {
if(sVL >= 1) {
forge.log.verbose(cat, '[%s][%s] delete queue [%s]',
task.id, task.name, task.type);
}
/* Note: Only a task can delete a queue of its own type. This
is used as a way to synchronize tasks. If a queue for a certain
task type exists, then a task of that type is running.
*/
delete sTaskQueues[task.type];
} else {
// dequeue the next task and start it
if(sVL >= 1) {
forge.log.verbose(cat,
'[%s][%s] queue start next [%s] remain:%s',
task.id, task.name, task.type,
sTaskQueues[task.type].length);
}
sTaskQueues[task.type][0].start();
}
}
if(!suppressCallbacks) {
// call final callback if one exists
if(task.error && task.failureCallback) {
task.failureCallback(task);
} else if(!task.error && task.successCallback) {
task.successCallback(task);
}
}
}
};
/* Tasks API */
module.exports = forge.task = forge.task || {};
/**
* Starts a new task that will run the passed function asynchronously.
*
* In order to finish the task, either task.doNext() or task.fail()
* *must* be called.
*
* The task must have a type (a string identifier) that can be used to
* synchronize it with other tasks of the same type. That type can also
* be used to cancel tasks that haven't started yet.
*
* To start a task, the following object must be provided as a parameter
* (each function takes a task object as its first parameter):
*
* {
* type: the type of task.
* run: the function to run to execute the task.
* success: a callback to call when the task succeeds (optional).
* failure: a callback to call when the task fails (optional).
* }
*
* @param options the object as described above.
*/
forge.task.start = function(options) {
// create a new task
var task = new Task({
run: options.run,
name: options.name || sNoTaskName
});
task.type = options.type;
task.successCallback = options.success || null;
task.failureCallback = options.failure || null;
// append the task onto the appropriate queue
if(!(task.type in sTaskQueues)) {
if(sVL >= 1) {
forge.log.verbose(cat, '[%s][%s] create queue [%s]',
task.id, task.name, task.type);
}
// create the queue with the new task
sTaskQueues[task.type] = [task];
start(task);
} else {
// push the task onto the queue, it will be run after a task
// with the same type completes
sTaskQueues[options.type].push(task);
}
};
/**
* Cancels all tasks of the given type that haven't started yet.
*
* @param type the type of task to cancel.
*/
forge.task.cancel = function(type) {
// find the task queue
if(type in sTaskQueues) {
// empty all but the current task from the queue
sTaskQueues[type] = [sTaskQueues[type][0]];
}
};
/**
* Creates a condition variable to synchronize tasks. To make a task wait
* on the condition variable, call task.wait(condition). To notify all
* tasks that are waiting, call condition.notify().
*
* @return the condition variable.
*/
forge.task.createCondition = function() {
var cond = {
// all tasks that are blocked
tasks: {}
};
/**
* Causes the given task to block until notify is called. If the task
* is already waiting on this condition then this is a no-op.
*
* @param task the task to cause to wait.
*/
cond.wait = function(task) {
// only block once
if(!(task.id in cond.tasks)) {
task.block();
cond.tasks[task.id] = task;
}
};
/**
* Notifies all waiting tasks to wake up.
*/
cond.notify = function() {
// since unblock() will run the next task from here, make sure to
// clear the condition's blocked task list before unblocking
var tmp = cond.tasks;
cond.tasks = {};
for(var id in tmp) {
tmp[id].unblock();
}
};
return cond;
};

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node_modules/node-forge/lib/tls.js generated vendored Normal file

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node_modules/node-forge/lib/tlssocket.js generated vendored Normal file
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/**
* Socket wrapping functions for TLS.
*
* @author Dave Longley
*
* Copyright (c) 2009-2012 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./tls');
/**
* Wraps a forge.net socket with a TLS layer.
*
* @param options:
* sessionId: a session ID to reuse, null for a new connection if no session
* cache is provided or it is empty.
* caStore: an array of certificates to trust.
* sessionCache: a session cache to use.
* cipherSuites: an optional array of cipher suites to use, see
* tls.CipherSuites.
* socket: the socket to wrap.
* virtualHost: the virtual server name to use in a TLS SNI extension.
* verify: a handler used to custom verify certificates in the chain.
* getCertificate: an optional callback used to get a certificate.
* getPrivateKey: an optional callback used to get a private key.
* getSignature: an optional callback used to get a signature.
* deflate: function(inBytes) if provided, will deflate TLS records using
* the deflate algorithm if the server supports it.
* inflate: function(inBytes) if provided, will inflate TLS records using
* the deflate algorithm if the server supports it.
*
* @return the TLS-wrapped socket.
*/
forge.tls.wrapSocket = function(options) {
// get raw socket
var socket = options.socket;
// create TLS socket
var tlsSocket = {
id: socket.id,
// set handlers
connected: socket.connected || function(e) {},
closed: socket.closed || function(e) {},
data: socket.data || function(e) {},
error: socket.error || function(e) {}
};
// create TLS connection
var c = forge.tls.createConnection({
server: false,
sessionId: options.sessionId || null,
caStore: options.caStore || [],
sessionCache: options.sessionCache || null,
cipherSuites: options.cipherSuites || null,
virtualHost: options.virtualHost,
verify: options.verify,
getCertificate: options.getCertificate,
getPrivateKey: options.getPrivateKey,
getSignature: options.getSignature,
deflate: options.deflate,
inflate: options.inflate,
connected: function(c) {
// first handshake complete, call handler
if(c.handshakes === 1) {
tlsSocket.connected({
id: socket.id,
type: 'connect',
bytesAvailable: c.data.length()
});
}
},
tlsDataReady: function(c) {
// send TLS data over socket
return socket.send(c.tlsData.getBytes());
},
dataReady: function(c) {
// indicate application data is ready
tlsSocket.data({
id: socket.id,
type: 'socketData',
bytesAvailable: c.data.length()
});
},
closed: function(c) {
// close socket
socket.close();
},
error: function(c, e) {
// send error, close socket
tlsSocket.error({
id: socket.id,
type: 'tlsError',
message: e.message,
bytesAvailable: 0,
error: e
});
socket.close();
}
});
// handle doing handshake after connecting
socket.connected = function(e) {
c.handshake(options.sessionId);
};
// handle closing TLS connection
socket.closed = function(e) {
if(c.open && c.handshaking) {
// error
tlsSocket.error({
id: socket.id,
type: 'ioError',
message: 'Connection closed during handshake.',
bytesAvailable: 0
});
}
c.close();
// call socket handler
tlsSocket.closed({
id: socket.id,
type: 'close',
bytesAvailable: 0
});
};
// handle error on socket
socket.error = function(e) {
// error
tlsSocket.error({
id: socket.id,
type: e.type,
message: e.message,
bytesAvailable: 0
});
c.close();
};
// handle receiving raw TLS data from socket
var _requiredBytes = 0;
socket.data = function(e) {
// drop data if connection not open
if(!c.open) {
socket.receive(e.bytesAvailable);
} else {
// only receive if there are enough bytes available to
// process a record
if(e.bytesAvailable >= _requiredBytes) {
var count = Math.max(e.bytesAvailable, _requiredBytes);
var data = socket.receive(count);
if(data !== null) {
_requiredBytes = c.process(data);
}
}
}
};
/**
* Destroys this socket.
*/
tlsSocket.destroy = function() {
socket.destroy();
};
/**
* Sets this socket's TLS session cache. This should be called before
* the socket is connected or after it is closed.
*
* The cache is an object mapping session IDs to internal opaque state.
* An application might need to change the cache used by a particular
* tlsSocket between connections if it accesses multiple TLS hosts.
*
* @param cache the session cache to use.
*/
tlsSocket.setSessionCache = function(cache) {
c.sessionCache = tls.createSessionCache(cache);
};
/**
* Connects this socket.
*
* @param options:
* host: the host to connect to.
* port: the port to connect to.
* policyPort: the policy port to use (if non-default), 0 to
* use the flash default.
* policyUrl: the policy file URL to use (instead of port).
*/
tlsSocket.connect = function(options) {
socket.connect(options);
};
/**
* Closes this socket.
*/
tlsSocket.close = function() {
c.close();
};
/**
* Determines if the socket is connected or not.
*
* @return true if connected, false if not.
*/
tlsSocket.isConnected = function() {
return c.isConnected && socket.isConnected();
};
/**
* Writes bytes to this socket.
*
* @param bytes the bytes (as a string) to write.
*
* @return true on success, false on failure.
*/
tlsSocket.send = function(bytes) {
return c.prepare(bytes);
};
/**
* Reads bytes from this socket (non-blocking). Fewer than the number of
* bytes requested may be read if enough bytes are not available.
*
* This method should be called from the data handler if there are enough
* bytes available. To see how many bytes are available, check the
* 'bytesAvailable' property on the event in the data handler or call the
* bytesAvailable() function on the socket. If the browser is msie, then the
* bytesAvailable() function should be used to avoid race conditions.
* Otherwise, using the property on the data handler's event may be quicker.
*
* @param count the maximum number of bytes to read.
*
* @return the bytes read (as a string) or null on error.
*/
tlsSocket.receive = function(count) {
return c.data.getBytes(count);
};
/**
* Gets the number of bytes available for receiving on the socket.
*
* @return the number of bytes available for receiving.
*/
tlsSocket.bytesAvailable = function() {
return c.data.length();
};
return tlsSocket;
};

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node_modules/node-forge/lib/util.js generated vendored Normal file

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node_modules/node-forge/lib/x509.js generated vendored Normal file

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node_modules/node-forge/lib/xhr.js generated vendored Normal file
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/**
* XmlHttpRequest implementation that uses TLS and flash SocketPool.
*
* @author Dave Longley
*
* Copyright (c) 2010-2013 Digital Bazaar, Inc.
*/
var forge = require('./forge');
require('./socket');
require('./http');
/* XHR API */
var xhrApi = module.exports = forge.xhr = forge.xhr || {};
(function($) {
// logging category
var cat = 'forge.xhr';
/*
XMLHttpRequest interface definition from:
http://www.w3.org/TR/XMLHttpRequest
interface XMLHttpRequest {
// event handler
attribute EventListener onreadystatechange;
// state
const unsigned short UNSENT = 0;
const unsigned short OPENED = 1;
const unsigned short HEADERS_RECEIVED = 2;
const unsigned short LOADING = 3;
const unsigned short DONE = 4;
readonly attribute unsigned short readyState;
// request
void open(in DOMString method, in DOMString url);
void open(in DOMString method, in DOMString url, in boolean async);
void open(in DOMString method, in DOMString url,
in boolean async, in DOMString user);
void open(in DOMString method, in DOMString url,
in boolean async, in DOMString user, in DOMString password);
void setRequestHeader(in DOMString header, in DOMString value);
void send();
void send(in DOMString data);
void send(in Document data);
void abort();
// response
DOMString getAllResponseHeaders();
DOMString getResponseHeader(in DOMString header);
readonly attribute DOMString responseText;
readonly attribute Document responseXML;
readonly attribute unsigned short status;
readonly attribute DOMString statusText;
};
*/
// readyStates
var UNSENT = 0;
var OPENED = 1;
var HEADERS_RECEIVED = 2;
var LOADING = 3;
var DONE = 4;
// exceptions
var INVALID_STATE_ERR = 11;
var SYNTAX_ERR = 12;
var SECURITY_ERR = 18;
var NETWORK_ERR = 19;
var ABORT_ERR = 20;
// private flash socket pool vars
var _sp = null;
var _policyPort = 0;
var _policyUrl = null;
// default client (used if no special URL provided when creating an XHR)
var _client = null;
// all clients including the default, key'd by full base url
// (multiple cross-domain http clients are permitted so there may be more
// than one client in this map)
// TODO: provide optional clean up API for non-default clients
var _clients = {};
// the default maximum number of concurrents connections per client
var _maxConnections = 10;
var net = forge.net;
var http = forge.http;
/**
* Initializes flash XHR support.
*
* @param options:
* url: the default base URL to connect to if xhr URLs are relative,
* ie: https://myserver.com.
* flashId: the dom ID of the flash SocketPool.
* policyPort: the port that provides the server's flash policy, 0 to use
* the flash default.
* policyUrl: the policy file URL to use instead of a policy port.
* msie: true if browser is internet explorer, false if not.
* connections: the maximum number of concurrent connections.
* caCerts: a list of PEM-formatted certificates to trust.
* cipherSuites: an optional array of cipher suites to use,
* see forge.tls.CipherSuites.
* verify: optional TLS certificate verify callback to use (see forge.tls
* for details).
* getCertificate: an optional callback used to get a client-side
* certificate (see forge.tls for details).
* getPrivateKey: an optional callback used to get a client-side private
* key (see forge.tls for details).
* getSignature: an optional callback used to get a client-side signature
* (see forge.tls for details).
* persistCookies: true to use persistent cookies via flash local storage,
* false to only keep cookies in javascript.
* primeTlsSockets: true to immediately connect TLS sockets on their
* creation so that they will cache TLS sessions for reuse.
*/
xhrApi.init = function(options) {
forge.log.debug(cat, 'initializing', options);
// update default policy port and max connections
_policyPort = options.policyPort || _policyPort;
_policyUrl = options.policyUrl || _policyUrl;
_maxConnections = options.connections || _maxConnections;
// create the flash socket pool
_sp = net.createSocketPool({
flashId: options.flashId,
policyPort: _policyPort,
policyUrl: _policyUrl,
msie: options.msie || false
});
// create default http client
_client = http.createClient({
url: options.url || (
window.location.protocol + '//' + window.location.host),
socketPool: _sp,
policyPort: _policyPort,
policyUrl: _policyUrl,
connections: options.connections || _maxConnections,
caCerts: options.caCerts,
cipherSuites: options.cipherSuites,
persistCookies: options.persistCookies || true,
primeTlsSockets: options.primeTlsSockets || false,
verify: options.verify,
getCertificate: options.getCertificate,
getPrivateKey: options.getPrivateKey,
getSignature: options.getSignature
});
_clients[_client.url.full] = _client;
forge.log.debug(cat, 'ready');
};
/**
* Called to clean up the clients and socket pool.
*/
xhrApi.cleanup = function() {
// destroy all clients
for(var key in _clients) {
_clients[key].destroy();
}
_clients = {};
_client = null;
// destroy socket pool
_sp.destroy();
_sp = null;
};
/**
* Sets a cookie.
*
* @param cookie the cookie with parameters:
* name: the name of the cookie.
* value: the value of the cookie.
* comment: an optional comment string.
* maxAge: the age of the cookie in seconds relative to created time.
* secure: true if the cookie must be sent over a secure protocol.
* httpOnly: true to restrict access to the cookie from javascript
* (inaffective since the cookies are stored in javascript).
* path: the path for the cookie.
* domain: optional domain the cookie belongs to (must start with dot).
* version: optional version of the cookie.
* created: creation time, in UTC seconds, of the cookie.
*/
xhrApi.setCookie = function(cookie) {
// default cookie expiration to never
cookie.maxAge = cookie.maxAge || -1;
// if the cookie's domain is set, use the appropriate client
if(cookie.domain) {
// add the cookies to the applicable domains
for(var key in _clients) {
var client = _clients[key];
if(http.withinCookieDomain(client.url, cookie) &&
client.secure === cookie.secure) {
client.setCookie(cookie);
}
}
} else {
// use the default domain
// FIXME: should a null domain cookie be added to all clients? should
// this be an option?
_client.setCookie(cookie);
}
};
/**
* Gets a cookie.
*
* @param name the name of the cookie.
* @param path an optional path for the cookie (if there are multiple cookies
* with the same name but different paths).
* @param domain an optional domain for the cookie (if not using the default
* domain).
*
* @return the cookie, cookies (if multiple matches), or null if not found.
*/
xhrApi.getCookie = function(name, path, domain) {
var rval = null;
if(domain) {
// get the cookies from the applicable domains
for(var key in _clients) {
var client = _clients[key];
if(http.withinCookieDomain(client.url, domain)) {
var cookie = client.getCookie(name, path);
if(cookie !== null) {
if(rval === null) {
rval = cookie;
} else if(!forge.util.isArray(rval)) {
rval = [rval, cookie];
} else {
rval.push(cookie);
}
}
}
}
} else {
// get cookie from default domain
rval = _client.getCookie(name, path);
}
return rval;
};
/**
* Removes a cookie.
*
* @param name the name of the cookie.
* @param path an optional path for the cookie (if there are multiple cookies
* with the same name but different paths).
* @param domain an optional domain for the cookie (if not using the default
* domain).
*
* @return true if a cookie was removed, false if not.
*/
xhrApi.removeCookie = function(name, path, domain) {
var rval = false;
if(domain) {
// remove the cookies from the applicable domains
for(var key in _clients) {
var client = _clients[key];
if(http.withinCookieDomain(client.url, domain)) {
if(client.removeCookie(name, path)) {
rval = true;
}
}
}
} else {
// remove cookie from default domain
rval = _client.removeCookie(name, path);
}
return rval;
};
/**
* Creates a new XmlHttpRequest. By default the base URL, flash policy port,
* etc, will be used. However, an XHR can be created to point at another
* cross-domain URL.
*
* @param options:
* logWarningOnError: If true and an HTTP error status code is received then
* log a warning, otherwise log a verbose message.
* verbose: If true be very verbose in the output including the response
* event and response body, otherwise only include status, timing, and
* data size.
* logError: a multi-var log function for warnings that takes the log
* category as the first var.
* logWarning: a multi-var log function for warnings that takes the log
* category as the first var.
* logDebug: a multi-var log function for warnings that takes the log
* category as the first var.
* logVerbose: a multi-var log function for warnings that takes the log
* category as the first var.
* url: the default base URL to connect to if xhr URLs are relative,
* eg: https://myserver.com, and note that the following options will be
* ignored if the URL is absent or the same as the default base URL.
* policyPort: the port that provides the server's flash policy, 0 to use
* the flash default.
* policyUrl: the policy file URL to use instead of a policy port.
* connections: the maximum number of concurrent connections.
* caCerts: a list of PEM-formatted certificates to trust.
* cipherSuites: an optional array of cipher suites to use, see
* forge.tls.CipherSuites.
* verify: optional TLS certificate verify callback to use (see forge.tls
* for details).
* getCertificate: an optional callback used to get a client-side
* certificate.
* getPrivateKey: an optional callback used to get a client-side private key.
* getSignature: an optional callback used to get a client-side signature.
* persistCookies: true to use persistent cookies via flash local storage,
* false to only keep cookies in javascript.
* primeTlsSockets: true to immediately connect TLS sockets on their
* creation so that they will cache TLS sessions for reuse.
*
* @return the XmlHttpRequest.
*/
xhrApi.create = function(options) {
// set option defaults
options = $.extend({
logWarningOnError: true,
verbose: false,
logError: function() {},
logWarning: function() {},
logDebug: function() {},
logVerbose: function() {},
url: null
}, options || {});
// private xhr state
var _state = {
// the http client to use
client: null,
// request storage
request: null,
// response storage
response: null,
// asynchronous, true if doing asynchronous communication
asynchronous: true,
// sendFlag, true if send has been called
sendFlag: false,
// errorFlag, true if a network error occurred
errorFlag: false
};
// private log functions
var _log = {
error: options.logError || forge.log.error,
warning: options.logWarning || forge.log.warning,
debug: options.logDebug || forge.log.debug,
verbose: options.logVerbose || forge.log.verbose
};
// create public xhr interface
var xhr = {
// an EventListener
onreadystatechange: null,
// readonly, the current readyState
readyState: UNSENT,
// a string with the response entity-body
responseText: '',
// a Document for response entity-bodies that are XML
responseXML: null,
// readonly, returns the HTTP status code (i.e. 404)
status: 0,
// readonly, returns the HTTP status message (i.e. 'Not Found')
statusText: ''
};
// determine which http client to use
if(options.url === null) {
// use default
_state.client = _client;
} else {
var url = http.parseUrl(options.url);
if(!url) {
var error = new Error('Invalid url.');
error.details = {
url: options.url
};
}
// find client
if(url.full in _clients) {
// client found
_state.client = _clients[url.full];
} else {
// create client
_state.client = http.createClient({
url: options.url,
socketPool: _sp,
policyPort: options.policyPort || _policyPort,
policyUrl: options.policyUrl || _policyUrl,
connections: options.connections || _maxConnections,
caCerts: options.caCerts,
cipherSuites: options.cipherSuites,
persistCookies: options.persistCookies || true,
primeTlsSockets: options.primeTlsSockets || false,
verify: options.verify,
getCertificate: options.getCertificate,
getPrivateKey: options.getPrivateKey,
getSignature: options.getSignature
});
_clients[url.full] = _state.client;
}
}
/**
* Opens the request. This method will create the HTTP request to send.
*
* @param method the HTTP method (i.e. 'GET').
* @param url the relative url (the HTTP request path).
* @param async always true, ignored.
* @param user always null, ignored.
* @param password always null, ignored.
*/
xhr.open = function(method, url, async, user, password) {
// 1. validate Document if one is associated
// TODO: not implemented (not used yet)
// 2. validate method token
// 3. change method to uppercase if it matches a known
// method (here we just require it to be uppercase, and
// we do not allow the standard methods)
// 4. disallow CONNECT, TRACE, or TRACK with a security error
switch(method) {
case 'DELETE':
case 'GET':
case 'HEAD':
case 'OPTIONS':
case 'PATCH':
case 'POST':
case 'PUT':
// valid method
break;
case 'CONNECT':
case 'TRACE':
case 'TRACK':
throw new Error('CONNECT, TRACE and TRACK methods are disallowed');
default:
throw new Error('Invalid method: ' + method);
}
// TODO: other validation steps in algorithm are not implemented
// 19. set send flag to false
// set response body to null
// empty list of request headers
// set request method to given method
// set request URL
// set username, password
// set asychronous flag
_state.sendFlag = false;
xhr.responseText = '';
xhr.responseXML = null;
// custom: reset status and statusText
xhr.status = 0;
xhr.statusText = '';
// create the HTTP request
_state.request = http.createRequest({
method: method,
path: url
});
// 20. set state to OPENED
xhr.readyState = OPENED;
// 21. dispatch onreadystatechange
if(xhr.onreadystatechange) {
xhr.onreadystatechange();
}
};
/**
* Adds an HTTP header field to the request.
*
* @param header the name of the header field.
* @param value the value of the header field.
*/
xhr.setRequestHeader = function(header, value) {
// 1. if state is not OPENED or send flag is true, raise exception
if(xhr.readyState != OPENED || _state.sendFlag) {
throw new Error('XHR not open or sending');
}
// TODO: other validation steps in spec aren't implemented
// set header
_state.request.setField(header, value);
};
/**
* Sends the request and any associated data.
*
* @param data a string or Document object to send, null to send no data.
*/
xhr.send = function(data) {
// 1. if state is not OPENED or 2. send flag is true, raise
// an invalid state exception
if(xhr.readyState != OPENED || _state.sendFlag) {
throw new Error('XHR not open or sending');
}
// 3. ignore data if method is GET or HEAD
if(data &&
_state.request.method !== 'GET' &&
_state.request.method !== 'HEAD') {
// handle non-IE case
if(typeof(XMLSerializer) !== 'undefined') {
if(data instanceof Document) {
var xs = new XMLSerializer();
_state.request.body = xs.serializeToString(data);
} else {
_state.request.body = data;
}
} else {
// poorly implemented IE case
if(typeof(data.xml) !== 'undefined') {
_state.request.body = data.xml;
} else {
_state.request.body = data;
}
}
}
// 4. release storage mutex (not used)
// 5. set error flag to false
_state.errorFlag = false;
// 6. if asynchronous is true (must be in this implementation)
// 6.1 set send flag to true
_state.sendFlag = true;
// 6.2 dispatch onreadystatechange
if(xhr.onreadystatechange) {
xhr.onreadystatechange();
}
// create send options
var options = {};
options.request = _state.request;
options.headerReady = function(e) {
// make cookies available for ease of use/iteration
xhr.cookies = _state.client.cookies;
// TODO: update document.cookie with any cookies where the
// script's domain matches
// headers received
xhr.readyState = HEADERS_RECEIVED;
xhr.status = e.response.code;
xhr.statusText = e.response.message;
_state.response = e.response;
if(xhr.onreadystatechange) {
xhr.onreadystatechange();
}
if(!_state.response.aborted) {
// now loading body
xhr.readyState = LOADING;
if(xhr.onreadystatechange) {
xhr.onreadystatechange();
}
}
};
options.bodyReady = function(e) {
xhr.readyState = DONE;
var ct = e.response.getField('Content-Type');
// Note: this null/undefined check is done outside because IE
// dies otherwise on a "'null' is null" error
if(ct) {
if(ct.indexOf('text/xml') === 0 ||
ct.indexOf('application/xml') === 0 ||
ct.indexOf('+xml') !== -1) {
try {
var doc = new ActiveXObject('MicrosoftXMLDOM');
doc.async = false;
doc.loadXML(e.response.body);
xhr.responseXML = doc;
} catch(ex) {
var parser = new DOMParser();
xhr.responseXML = parser.parseFromString(ex.body, 'text/xml');
}
}
}
var length = 0;
if(e.response.body !== null) {
xhr.responseText = e.response.body;
length = e.response.body.length;
}
// build logging output
var req = _state.request;
var output =
req.method + ' ' + req.path + ' ' +
xhr.status + ' ' + xhr.statusText + ' ' +
length + 'B ' +
(e.request.connectTime + e.request.time + e.response.time) +
'ms';
var lFunc;
if(options.verbose) {
lFunc = (xhr.status >= 400 && options.logWarningOnError) ?
_log.warning : _log.verbose;
lFunc(cat, output,
e, e.response.body ? '\n' + e.response.body : '\nNo content');
} else {
lFunc = (xhr.status >= 400 && options.logWarningOnError) ?
_log.warning : _log.debug;
lFunc(cat, output);
}
if(xhr.onreadystatechange) {
xhr.onreadystatechange();
}
};
options.error = function(e) {
var req = _state.request;
_log.error(cat, req.method + ' ' + req.path, e);
// 1. set response body to null
xhr.responseText = '';
xhr.responseXML = null;
// 2. set error flag to true (and reset status)
_state.errorFlag = true;
xhr.status = 0;
xhr.statusText = '';
// 3. set state to done
xhr.readyState = DONE;
// 4. asyc flag is always true, so dispatch onreadystatechange
if(xhr.onreadystatechange) {
xhr.onreadystatechange();
}
};
// 7. send request
_state.client.send(options);
};
/**
* Aborts the request.
*/
xhr.abort = function() {
// 1. abort send
// 2. stop network activity
_state.request.abort();
// 3. set response to null
xhr.responseText = '';
xhr.responseXML = null;
// 4. set error flag to true (and reset status)
_state.errorFlag = true;
xhr.status = 0;
xhr.statusText = '';
// 5. clear user headers
_state.request = null;
_state.response = null;
// 6. if state is DONE or UNSENT, or if OPENED and send flag is false
if(xhr.readyState === DONE || xhr.readyState === UNSENT ||
(xhr.readyState === OPENED && !_state.sendFlag)) {
// 7. set ready state to unsent
xhr.readyState = UNSENT;
} else {
// 6.1 set state to DONE
xhr.readyState = DONE;
// 6.2 set send flag to false
_state.sendFlag = false;
// 6.3 dispatch onreadystatechange
if(xhr.onreadystatechange) {
xhr.onreadystatechange();
}
// 7. set state to UNSENT
xhr.readyState = UNSENT;
}
};
/**
* Gets all response headers as a string.
*
* @return the HTTP-encoded response header fields.
*/
xhr.getAllResponseHeaders = function() {
var rval = '';
if(_state.response !== null) {
var fields = _state.response.fields;
$.each(fields, function(name, array) {
$.each(array, function(i, value) {
rval += name + ': ' + value + '\r\n';
});
});
}
return rval;
};
/**
* Gets a single header field value or, if there are multiple
* fields with the same name, a comma-separated list of header
* values.
*
* @return the header field value(s) or null.
*/
xhr.getResponseHeader = function(header) {
var rval = null;
if(_state.response !== null) {
if(header in _state.response.fields) {
rval = _state.response.fields[header];
if(forge.util.isArray(rval)) {
rval = rval.join();
}
}
}
return rval;
};
return xhr;
};
})(jQuery);

163
node_modules/node-forge/package.json generated vendored Normal file
View File

@ -0,0 +1,163 @@
{
"_args": [
[
"node-forge@0.7.4",
"C:\\Users\\matia\\Musix"
]
],
"_from": "node-forge@0.7.4",
"_id": "node-forge@0.7.4",
"_inBundle": false,
"_integrity": "sha512-8Df0906+tq/omxuCZD6PqhPaQDYuyJ1d+VITgxoIA8zvQd1ru+nMJcDChHH324MWitIgbVkAkQoGEEVJNpn/PA==",
"_location": "/node-forge",
"_phantomChildren": {},
"_requested": {
"type": "version",
"registry": true,
"raw": "node-forge@0.7.4",
"name": "node-forge",
"escapedName": "node-forge",
"rawSpec": "0.7.4",
"saveSpec": null,
"fetchSpec": "0.7.4"
},
"_requiredBy": [
"/firebase-admin"
],
"_resolved": "https://registry.npmjs.org/node-forge/-/node-forge-0.7.4.tgz",
"_spec": "0.7.4",
"_where": "C:\\Users\\matia\\Musix",
"author": {
"name": "Digital Bazaar, Inc.",
"email": "support@digitalbazaar.com",
"url": "http://digitalbazaar.com/"
},
"browser": {
"buffer": false,
"crypto": false,
"process": false
},
"bugs": {
"url": "https://github.com/digitalbazaar/forge/issues",
"email": "support@digitalbazaar.com"
},
"contributors": [
{
"name": "Dave Longley",
"email": "dlongley@digitalbazaar.com"
},
{
"name": "David I. Lehn",
"email": "dlehn@digitalbazaar.com"
},
{
"name": "Stefan Siegl",
"email": "stesie@brokenpipe.de"
},
{
"name": "Christoph Dorn",
"email": "christoph@christophdorn.com"
}
],
"description": "JavaScript implementations of network transports, cryptography, ciphers, PKI, message digests, and various utilities.",
"devDependencies": {
"browserify": "^16.1.0",
"commander": "^2.14.1",
"cross-env": "^5.1.3",
"express": "^4.16.2",
"jscs": "^3.0.7",
"jshint": "^2.9.5",
"karma": "^2.0.0",
"karma-browserify": "^5.2.0",
"karma-chrome-launcher": "^2.2.0",
"karma-edge-launcher": "^0.4.2",
"karma-firefox-launcher": "^1.1.0",
"karma-ie-launcher": "^1.0.0",
"karma-mocha": "^1.3.0",
"karma-mocha-reporter": "^2.2.5",
"karma-phantomjs-launcher": "^1.0.2",
"karma-safari-launcher": "^1.0.0",
"karma-sauce-launcher": "^1.2.0",
"karma-sourcemap-loader": "^0.3.7",
"karma-tap-reporter": "0.0.6",
"karma-webpack": "^2.0.13",
"mocha": "^5.0.1",
"mocha-lcov-reporter": "^1.2.0",
"nodejs-websocket": "^1.7.1",
"nyc": "^11.5.0",
"opts": "^1.2.2",
"webpack": "^3.11.0"
},
"engines": {
"node": "*"
},
"files": [
"lib/*.js",
"flash/swf/*.swf",
"dist/*.min.js",
"dist/*.min.js.map"
],
"homepage": "https://github.com/digitalbazaar/forge",
"jspm": {
"format": "amd"
},
"keywords": [
"aes",
"asn",
"asn.1",
"cbc",
"crypto",
"cryptography",
"csr",
"des",
"gcm",
"hmac",
"http",
"https",
"md5",
"network",
"pkcs",
"pki",
"prng",
"rc2",
"rsa",
"sha1",
"sha256",
"sha384",
"sha512",
"ssh",
"tls",
"x.509",
"x509"
],
"license": "(BSD-3-Clause OR GPL-2.0)",
"main": "lib/index.js",
"name": "node-forge",
"nyc": {
"exclude": [
"tests"
]
},
"repository": {
"type": "git",
"url": "git+https://github.com/digitalbazaar/forge.git"
},
"scripts": {
"_jscs": "jscs *.js lib/*.js tests/*.js tests/unit/*.js tests/legacy/*.js tests/issues/*.js tests/websockets/*.js",
"_jshint": "jshint *.js lib/*.js tests/*.js tests/unit/*.js tests/legacy/*.js tests/issues/*.js tests/websockets/*.js",
"build": "webpack",
"coverage": "rm -rf coverage && nyc --reporter=lcov --reporter=text-summary npm test",
"coverage-report": "nyc report",
"jscs": "jscs *.js lib/*.js tests/*.js tests/unit/*.js tests/legacy/*.js tests/issues/*.js tests/websockets/*.js",
"jshint": "jshint *.js lib/*.js tests/unit/*.js tests/legacy/*.js tests/issues/*.js tests/websockets/*.js",
"prepublish": "npm run build",
"test": "cross-env NODE_ENV=test mocha -t 30000 -R ${REPORTER:-spec} tests/unit/index.js",
"test-build": "webpack --config webpack-tests.config.js",
"test-karma": "karma start",
"test-karma-sauce": "karma start karma-sauce.conf",
"test-server": "node tests/server.js",
"test-server-webid": "node tests/websockets/server-webid.js",
"test-server-ws": "node tests/websockets/server-ws.js"
},
"version": "0.7.4"
}