Browse Source

crypto: Move encoding logic to JS, default=buffer

crypto: Hash and Hmac default to buffers

crypto: Move Cipher encoding logic to JS

crypto: Move Cipheriv encoding logic to JS

crypto: Move Decipher encoding logic to JS

crypto: Move Decipheriv into JS, default to buffers

crypto: Move Sign class to JS

crypto: Better encoding handling in Hash.update

crypto: Move Verify class to JS

crypto: Move DiffieHellman to JS, default to buffers

crypto: Move DiffieHellmanGroup to JS, default to buffers

Also, create a test for this feature
v0.9.3-release
isaacs 12 years ago
parent
commit
9901b69c8e
  1. 47
      doc/api/crypto.markdown
  2. 294
      lib/crypto.js
  3. 2
      test/simple/test-crypto-padding-aes256.js
  4. 34
      test/simple/test-crypto.js

47
doc/api/crypto.markdown

@ -87,14 +87,15 @@ Returned by `crypto.createHash`.
Updates the hash content with the given `data`, the encoding of which is given Updates the hash content with the given `data`, the encoding of which is given
in `input_encoding` and can be `'buffer'`, `'utf8'`, `'ascii'` or `'binary'`. in `input_encoding` and can be `'buffer'`, `'utf8'`, `'ascii'` or `'binary'`.
Defaults to `'binary'`. Defaults to `'buffer'`.
This can be called many times with new data as it is streamed. This can be called many times with new data as it is streamed.
### hash.digest([encoding]) ### hash.digest([encoding])
Calculates the digest of all of the passed data to be hashed. Calculates the digest of all of the passed data to be hashed.
The `encoding` can be `'buffer'`, `'hex'`, `'binary'` or `'base64'`. The `encoding` can be `'buffer'`, `'hex'`, `'binary'` or `'base64'`.
Defaults to `'binary'`. Defaults to `'buffer'`.
Note: `hash` object can not be used after `digest()` method been called. Note: `hash` object can not be used after `digest()` method been called.
@ -121,7 +122,7 @@ This can be called many times with new data as it is streamed.
Calculates the digest of all of the passed data to the hmac. Calculates the digest of all of the passed data to the hmac.
The `encoding` can be `'buffer'`, `'hex'`, `'binary'` or `'base64'`. The `encoding` can be `'buffer'`, `'hex'`, `'binary'` or `'base64'`.
Defaults to `'binary'`. Defaults to `'buffer'`.
Note: `hmac` object can not be used after `digest()` method been called. Note: `hmac` object can not be used after `digest()` method been called.
@ -157,17 +158,18 @@ Returned by `crypto.createCipher` and `crypto.createCipheriv`.
Updates the cipher with `data`, the encoding of which is given in Updates the cipher with `data`, the encoding of which is given in
`input_encoding` and can be `'buffer'`, `'utf8'`, `'ascii'` or `'binary'`. `input_encoding` and can be `'buffer'`, `'utf8'`, `'ascii'` or `'binary'`.
Defaults to `'binary'`. Defaults to `'buffer'`.
The `output_encoding` specifies the output format of the enciphered data, The `output_encoding` specifies the output format of the enciphered data,
and can be `'buffer'`, `'binary'`, `'base64'` or `'hex'`. Defaults to `'binary'`. and can be `'buffer'`, `'binary'`, `'base64'` or `'hex'`. Defaults to
`'buffer'`.
Returns the enciphered contents, and can be called many times with new data as it is streamed. Returns the enciphered contents, and can be called many times with new data as it is streamed.
### cipher.final([output_encoding]) ### cipher.final([output_encoding])
Returns any remaining enciphered contents, with `output_encoding` being one of: Returns any remaining enciphered contents, with `output_encoding` being one of:
`'buffer'`, `'binary'`, `'base64'` or `'hex'`. Defaults to `'binary'`. `'buffer'`, `'binary'`, `'base64'` or `'hex'`. Defaults to `'buffer'`.
Note: `cipher` object can not be used after `final()` method been called. Note: `cipher` object can not be used after `final()` method been called.
@ -197,18 +199,18 @@ Returned by `crypto.createDecipher` and `crypto.createDecipheriv`.
### decipher.update(data, [input_encoding], [output_encoding]) ### decipher.update(data, [input_encoding], [output_encoding])
Updates the decipher with `data`, which is encoded in `'buffer'`, `'binary'`, Updates the decipher with `data`, which is encoded in `'buffer'`, `'binary'`,
`'base64'` or `'hex'`. Defaults to `'binary'`. `'base64'` or `'hex'`. Defaults to `'buffer'`.
The `output_decoding` specifies in what format to return the deciphered The `output_decoding` specifies in what format to return the deciphered
plaintext: `'buffer'`, `'binary'`, `'ascii'` or `'utf8'`. plaintext: `'buffer'`, `'binary'`, `'ascii'` or `'utf8'`.
Defaults to `'binary'`. Defaults to `'buffer'`.
### decipher.final([output_encoding]) ### decipher.final([output_encoding])
Returns any remaining plaintext which is deciphered, Returns any remaining plaintext which is deciphered,
with `output_encoding` being one of: `'buffer'`, `'binary'`, `'ascii'` or with `output_encoding` being one of: `'buffer'`, `'binary'`, `'ascii'` or
`'utf8'`. `'utf8'`.
Defaults to `'binary'`. Defaults to `'buffer'`.
Note: `decipher` object can not be used after `final()` method been called. Note: `decipher` object can not be used after `final()` method been called.
@ -241,7 +243,7 @@ Calculates the signature on all the updated data passed through the signer.
`private_key` is a string containing the PEM encoded private key for signing. `private_key` is a string containing the PEM encoded private key for signing.
Returns the signature in `output_format` which can be `'buffer'`, `'binary'`, Returns the signature in `output_format` which can be `'buffer'`, `'binary'`,
`'hex'` or `'base64'`. Defaults to `'binary'`. `'hex'` or `'base64'`. Defaults to `'buffer'`.
Note: `signer` object can not be used after `sign()` method been called. Note: `signer` object can not be used after `sign()` method been called.
@ -267,7 +269,7 @@ Verifies the signed data by using the `object` and `signature`. `object` is a
string containing a PEM encoded object, which can be one of RSA public key, string containing a PEM encoded object, which can be one of RSA public key,
DSA public key, or X.509 certificate. `signature` is the previously calculated DSA public key, or X.509 certificate. `signature` is the previously calculated
signature for the data, in the `signature_format` which can be `'buffer'`, signature for the data, in the `signature_format` which can be `'buffer'`,
`'binary'`, `'hex'` or `'base64'`. Defaults to `'binary'`. `'binary'`, `'hex'` or `'base64'`. Defaults to `'buffer'`.
Returns true or false depending on the validity of the signature for the data and public key. Returns true or false depending on the validity of the signature for the data and public key.
@ -283,7 +285,7 @@ given bit length. The generator used is `2`.
Creates a Diffie-Hellman key exchange object using the supplied prime. The Creates a Diffie-Hellman key exchange object using the supplied prime. The
generator used is `2`. Encoding can be `'buffer'`, `'binary'`, `'hex'`, or generator used is `2`. Encoding can be `'buffer'`, `'binary'`, `'hex'`, or
`'base64'`. `'base64'`.
Defaults to `'binary'`. Defaults to `'buffer'`.
## Class: DiffieHellman ## Class: DiffieHellman
@ -296,7 +298,7 @@ Returned by `crypto.createDiffieHellman`.
Generates private and public Diffie-Hellman key values, and returns the Generates private and public Diffie-Hellman key values, and returns the
public key in the specified encoding. This key should be transferred to the public key in the specified encoding. This key should be transferred to the
other party. Encoding can be `'binary'`, `'hex'`, or `'base64'`. other party. Encoding can be `'binary'`, `'hex'`, or `'base64'`.
Defaults to `'binary'`. Defaults to `'buffer'`.
### diffieHellman.computeSecret(other_public_key, [input_encoding], [output_encoding]) ### diffieHellman.computeSecret(other_public_key, [input_encoding], [output_encoding])
@ -304,38 +306,39 @@ Computes the shared secret using `other_public_key` as the other party's
public key and returns the computed shared secret. Supplied key is public key and returns the computed shared secret. Supplied key is
interpreted using specified `input_encoding`, and secret is encoded using interpreted using specified `input_encoding`, and secret is encoded using
specified `output_encoding`. Encodings can be `'buffer'`, `'binary'`, `'hex'`, specified `output_encoding`. Encodings can be `'buffer'`, `'binary'`, `'hex'`,
or `'base64'`. The input encoding defaults to `'binary'`. or `'base64'`. The input encoding defaults to `'buffer'`.
If no output encoding is given, the input encoding is used as output encoding. If no output encoding is given, the input encoding is used as output encoding.
### diffieHellman.getPrime([encoding]) ### diffieHellman.getPrime([encoding])
Returns the Diffie-Hellman prime in the specified encoding, which can be Returns the Diffie-Hellman prime in the specified encoding, which can be
`'buffer'`, `'binary'`, `'hex'`, or `'base64'`. Defaults to `'binary'`. `'buffer'`, `'binary'`, `'hex'`, or `'base64'`. Defaults to `'buffer'`.
### diffieHellman.getGenerator([encoding]) ### diffieHellman.getGenerator([encoding])
Returns the Diffie-Hellman prime in the specified encoding, which can be Returns the Diffie-Hellman prime in the specified encoding, which can be
`'buffer'`, `'binary'`, `'hex'`, or `'base64'`. Defaults to `'binary'`. `'buffer'`, `'binary'`, `'hex'`, or `'base64'`. Defaults to `'buffer'`.
### diffieHellman.getPublicKey([encoding]) ### diffieHellman.getPublicKey([encoding])
Returns the Diffie-Hellman public key in the specified encoding, which can Returns the Diffie-Hellman public key in the specified encoding, which can
be `'binary'`, `'hex'`, or `'base64'`. Defaults to `'binary'`. be `'binary'`, `'hex'`, or `'base64'`. Defaults to `'buffer'`.
### diffieHellman.getPrivateKey([encoding]) ### diffieHellman.getPrivateKey([encoding])
Returns the Diffie-Hellman private key in the specified encoding, which can Returns the Diffie-Hellman private key in the specified encoding, which can
be `'buffer'`, `'binary'`, `'hex'`, or `'base64'`. Defaults to `'binary'`. be `'buffer'`, `'binary'`, `'hex'`, or `'base64'`. Defaults to
`'buffer'`.
### diffieHellman.setPublicKey(public_key, [encoding]) ### diffieHellman.setPublicKey(public_key, [encoding])
Sets the Diffie-Hellman public key. Key encoding can be `'buffer', ``'binary'`, Sets the Diffie-Hellman public key. Key encoding can be `'buffer', ``'binary'`,
`'hex'` or `'base64'`. Defaults to `'binary'`. `'hex'` or `'base64'`. Defaults to `'buffer'`.
### diffieHellman.setPrivateKey(public_key, [encoding]) ### diffieHellman.setPrivateKey(public_key, [encoding])
Sets the Diffie-Hellman private key. Key encoding can be `'buffer'`, `'binary'`, Sets the Diffie-Hellman private key. Key encoding can be `'buffer'`, `'binary'`,
`'hex'` or `'base64'`. Defaults to `'binary'`. `'hex'` or `'base64'`. Defaults to `'buffer'`.
## crypto.getDiffieHellman(group_name) ## crypto.getDiffieHellman(group_name)
@ -361,8 +364,8 @@ Example (obtaining a shared secret):
alice.generateKeys(); alice.generateKeys();
bob.generateKeys(); bob.generateKeys();
var alice_secret = alice.computeSecret(bob.getPublicKey(), 'binary', 'hex'); var alice_secret = alice.computeSecret(bob.getPublicKey(), null, 'hex');
var bob_secret = bob.computeSecret(alice.getPublicKey(), 'binary', 'hex'); var bob_secret = bob.computeSecret(alice.getPublicKey(), null, 'hex');
/* alice_secret and bob_secret should be the same */ /* alice_secret and bob_secret should be the same */
console.log(alice_secret == bob_secret); console.log(alice_secret == bob_secret);

294
lib/crypto.js

@ -23,14 +23,6 @@
try { try {
var binding = process.binding('crypto'); var binding = process.binding('crypto');
var SecureContext = binding.SecureContext; var SecureContext = binding.SecureContext;
var Hmac = binding.Hmac;
var Hash = binding.Hash;
var Cipher = binding.Cipher;
var Decipher = binding.Decipher;
var Sign = binding.Sign;
var Verify = binding.Verify;
var DiffieHellman = binding.DiffieHellman;
var DiffieHellmanGroup = binding.DiffieHellmanGroup;
var PBKDF2 = binding.PBKDF2; var PBKDF2 = binding.PBKDF2;
var randomBytes = binding.randomBytes; var randomBytes = binding.randomBytes;
var pseudoRandomBytes = binding.pseudoRandomBytes; var pseudoRandomBytes = binding.pseudoRandomBytes;
@ -42,6 +34,8 @@ try {
var crypto = false; var crypto = false;
} }
var assert = require('assert');
var StringDecoder = require('string_decoder').StringDecoder;
function Credentials(secureProtocol, flags, context) { function Credentials(secureProtocol, flags, context) {
if (!(this instanceof Credentials)) { if (!(this instanceof Credentials)) {
@ -129,65 +123,285 @@ exports.createCredentials = function(options, context) {
}; };
exports.Hash = Hash; exports.createHash = exports.Hash = Hash;
exports.createHash = function(hash) { function Hash(algorithm) {
return new Hash(hash); if (!(this instanceof Hash))
return new Hash(algorithm);
this._binding = new binding.Hash(algorithm);
}
Hash.prototype.update = function(data, encoding) {
if (encoding === 'buffer')
encoding = null;
if (encoding || typeof data === 'string')
data = new Buffer(data, encoding);
this._binding.update(data);
return this;
};
Hash.prototype.digest = function(outputEncoding) {
var result = this._binding.digest('buffer');
if (outputEncoding && outputEncoding !== 'buffer')
result = result.toString(outputEncoding);
return result;
}; };
exports.Hmac = Hmac; exports.createHmac = exports.Hmac = Hmac;
exports.createHmac = function(hmac, key) {
return (new Hmac).init(hmac, key); function Hmac(hmac, key) {
if (!(this instanceof Hmac))
return new Hmac(hmac, key);
this._binding = new binding.Hmac();
this._binding.init(hmac, key);
}; };
Hmac.prototype.update = Hash.prototype.update;
Hmac.prototype.digest = Hash.prototype.digest;
function getDecoder(decoder, encoding) {
decoder = decoder || new StringDecoder(encoding);
assert(decoder.encoding === encoding, 'Cannot change encoding');
return decoder;
}
exports.Cipher = Cipher; exports.createCipher = exports.Cipher = Cipher;
exports.createCipher = function(cipher, password) { function Cipher(cipher, password) {
return (new Cipher).init(cipher, password); if (!(this instanceof Cipher))
return new Cipher(cipher, password);
this._binding = new binding.Cipher;
this._binding.init(cipher, password);
this._decoder = null;
}; };
Cipher.prototype.update = function(data, inputEncoding, outputEncoding) {
if (inputEncoding && inputEncoding !== 'buffer')
data = new Buffer(data, inputEncoding);
var ret = this._binding.update(data, 'buffer', 'buffer');
if (outputEncoding && outputEncoding !== 'buffer') {
this._decoder = getDecoder(this._decoder, outputEncoding);
ret = this._decoder.write(ret);
}
exports.createCipheriv = function(cipher, key, iv) { return ret;
return (new Cipher).initiv(cipher, key, iv);
}; };
Cipher.prototype.final = function(outputEncoding) {
var ret = this._binding.final('buffer');
if (outputEncoding && outputEncoding !== 'buffer') {
this._decoder = getDecoder(this._decoder, outputEncoding);
ret = this._decoder.write(ret);
}
return ret;
};
exports.Decipher = Decipher; Cipher.prototype.setAutoPadding = function(ap) {
exports.createDecipher = function(cipher, password) { this._binding.setAutoPadding(ap);
return (new Decipher).init(cipher, password); return this;
}; };
exports.createDecipheriv = function(cipher, key, iv) {
return (new Decipher).initiv(cipher, key, iv); exports.createCipheriv = exports.Cipheriv = Cipheriv;
function Cipheriv(cipher, key, iv) {
if (!(this instanceof Cipheriv))
return new Cipheriv(cipher, key, iv);
this._binding = new binding.Cipher();
this._binding.initiv(cipher, key, iv);
this._decoder = null;
}
Cipheriv.prototype.update = Cipher.prototype.update;
Cipheriv.prototype.final = Cipher.prototype.final;
Cipheriv.prototype.setAutoPadding = Cipher.prototype.setAutoPadding;
exports.createDecipher = exports.Decipher = Decipher;
function Decipher(cipher, password) {
if (!(this instanceof Decipher))
return new Decipher(cipher, password);
this._binding = new binding.Decipher
this._binding.init(cipher, password);
this._decoder = null;
}; };
Decipher.prototype.update = Cipher.prototype.update;
Decipher.prototype.final = Cipher.prototype.final;
Decipher.prototype.finaltol = Cipher.prototype.final;
Decipher.prototype.setAutoPadding = Cipher.prototype.setAutoPadding;
exports.Sign = Sign; exports.createDecipheriv = exports.Decipheriv = Decipheriv;
exports.createSign = function(algorithm) { function Decipheriv(cipher, key, iv) {
return (new Sign).init(algorithm); if (!(this instanceof Decipheriv))
return new Decipheriv(cipher, key, iv);
this._binding = new binding.Decipher;
this._binding.initiv(cipher, key, iv);
this._decoder = null;
}; };
exports.Verify = Verify; Decipheriv.prototype.update = Cipher.prototype.update;
exports.createVerify = function(algorithm) { Decipheriv.prototype.final = Cipher.prototype.final;
return (new Verify).init(algorithm); Decipheriv.prototype.finaltol = Cipher.prototype.final;
Decipheriv.prototype.setAutoPadding = Cipher.prototype.setAutoPadding;
exports.createSign = exports.Sign = Sign;
function Sign(algorithm) {
if (!(this instanceof Sign))
return new Sign(algorithm);
this._binding = new binding.Sign();
this._binding.init(algorithm);
}; };
exports.DiffieHellman = DiffieHellman; Sign.prototype.update = Hash.prototype.update;
exports.createDiffieHellman = function(size_or_key, enc) {
if (!size_or_key) { Sign.prototype.sign = function(key, encoding) {
return new DiffieHellman(); var ret = this._binding.sign(key, 'buffer');
} else if (!enc) { if (encoding && encoding !== 'buffer')
return new DiffieHellman(size_or_key); ret = ret.toString(encoding);
} else { return ret;
return new DiffieHellman(size_or_key, enc); };
exports.createVerify = exports.Verify = Verify;
function Verify(algorithm) {
if (!(this instanceof Verify))
return new Verify(algorithm);
this._binding = new binding.Verify;
this._binding.init(algorithm);
}
Verify.prototype.update = Hash.prototype.update;
Verify.prototype.verify = function(object, signature, sigEncoding) {
if (sigEncoding === 'buffer')
sigEncoding = null;
if (sigEncoding || typeof signature === 'string')
signature = new Buffer(signature, sigEncoding);
return this._binding.verify(object, signature, 'buffer');
};
exports.createDiffieHellman = exports.DiffieHellman = DiffieHellman;
function DiffieHellman(sizeOrKey, encoding) {
if (!(this instanceof DiffieHellman))
return new DiffieHellman(sizeOrKey, encoding);
if (!sizeOrKey)
this._binding = new binding.DiffieHellman();
else {
if (encoding === 'buffer')
encoding = null;
if (encoding || typeof sizeOrKey === 'string')
sizeOrKey = new Buffer(sizeOrKey, encoding);
this._binding = new binding.DiffieHellman(sizeOrKey, 'buffer');
} }
}
DiffieHellman.prototype.generateKeys = function(encoding) {
var keys = this._binding.generateKeys('buffer');
if (encoding)
keys = keys.toString(encoding);
return keys;
};
DiffieHellman.prototype.computeSecret = function(key, inEnc, outEnc) {
if (inEnc === 'buffer')
inEnc = null;
if (outEnc === 'buffer')
outEnc = null;
if (inEnc || typeof key === 'string')
key = new Buffer(key, inEnc);
var ret = this._binding.computeSecret(key, 'buffer', 'buffer');
if (outEnc)
ret = ret.toString(outEnc);
return ret;
};
DiffieHellman.prototype.getPrime = function(encoding) {
var prime = this._binding.getPrime('buffer');
if (encoding && encoding !== 'buffer')
prime = prime.toString(encoding);
return prime;
};
DiffieHellman.prototype.getGenerator = function(encoding) {
var generator = this._binding.getGenerator('buffer');
if (encoding && encoding !== 'buffer')
generator = generator.toString(encoding);
return generator;
};
DiffieHellman.prototype.getPublicKey = function(encoding) {
var key = this._binding.getPublicKey('buffer');
if (encoding && encoding !== 'buffer')
key = key.toString(encoding);
return key;
}; };
exports.getDiffieHellman = function(group_name) {
return new DiffieHellmanGroup(group_name); DiffieHellman.prototype.getPrivateKey = function(encoding) {
var key = this._binding.getPrivateKey('buffer');
if (encoding && encoding !== 'buffer')
key = key.toString(encoding);
return key;
}; };
DiffieHellman.prototype.setPublicKey = function(key, encoding) {
if (encoding === 'buffer')
encoding = null;
if (encoding || typeof key === 'string')
key = new Buffer(key, encoding);
this._binding.setPublicKey(key, 'buffer');
return this;
};
DiffieHellman.prototype.setPrivateKey = function(key, encoding) {
if (encoding === 'buffer')
encoding = null;
if (encoding || typeof key === 'string')
key = new Buffer(key, encoding);
this._binding.setPrivateKey(key, 'buffer');
return this;
};
exports.DiffieHellmanGroup =
exports.createDiffieHellmanGroup =
exports.getDiffieHellman = DiffieHellmanGroup;
function DiffieHellmanGroup(name) {
if (!(this instanceof DiffieHellmanGroup))
return new DiffieHellmanGroup(name);
this._binding = new binding.DiffieHellmanGroup(name);
};
DiffieHellmanGroup.prototype.generateKeys =
DiffieHellman.prototype.generateKeys;
DiffieHellmanGroup.prototype.computeSecret =
DiffieHellman.prototype.computeSecret;
DiffieHellmanGroup.prototype.getPrime =
DiffieHellman.prototype.getPrime;
DiffieHellmanGroup.prototype.getGenerator =
DiffieHellman.prototype.getGenerator;
DiffieHellmanGroup.prototype.getPublicKey =
DiffieHellman.prototype.getPublicKey;
DiffieHellmanGroup.prototype.getPrivateKey =
DiffieHellman.prototype.getPrivateKey;
exports.pbkdf2 = PBKDF2; exports.pbkdf2 = PBKDF2;
exports.randomBytes = randomBytes; exports.randomBytes = randomBytes;

2
test/simple/test-crypto-padding-aes256.js

@ -43,7 +43,7 @@ function aes256(decipherFinal) {
function decrypt(val, pad) { function decrypt(val, pad) {
var c = crypto.createDecipheriv('aes256', key, iv); var c = crypto.createDecipheriv('aes256', key, iv);
c.setAutoPadding(pad); c.setAutoPadding(pad);
return c.update(val, 'binary', 'binary') + c[decipherFinal]('utf8'); return c.update(val, 'binary', 'utf8') + c[decipherFinal]('utf8');
} }
// echo 0123456789abcdef0123456789abcdef \ // echo 0123456789abcdef0123456789abcdef \

34
test/simple/test-crypto.js

@ -376,12 +376,16 @@ assert.equal(a1, 'h\u00ea\u00cb\u0097\u00d8o\fF!\u00fa+\u000e\u0017\u00ca' +
'\u00bd\u008c', 'Test MD5 as binary'); '\u00bd\u008c', 'Test MD5 as binary');
assert.equal(a2, '2bX1jws4GYKTlxhloUB09Z66PoJZW+y+hq5R8dnx9l4=', assert.equal(a2, '2bX1jws4GYKTlxhloUB09Z66PoJZW+y+hq5R8dnx9l4=',
'Test SHA256 as base64'); 'Test SHA256 as base64');
assert.equal(a3, '\u00c1(4\u00f1\u0003\u001fd\u0097!O\'\u00d4C/&Qz\u00d4' + assert.deepEqual(
'\u0094\u0015l\u00b8\u008dQ+\u00db\u001d\u00c4\u00b5}\u00b2' + a3,
'\u00d6\u0092\u00a3\u00df\u00a2i\u00a1\u009b\n\n*\u000f' + new Buffer(
'\u00d7\u00d6\u00a2\u00a8\u0085\u00e3<\u0083\u009c\u0093' + '\u00c1(4\u00f1\u0003\u001fd\u0097!O\'\u00d4C/&Qz\u00d4' +
'\u00c2\u0006\u00da0\u00a1\u00879(G\u00ed\'', '\u0094\u0015l\u00b8\u008dQ+\u00db\u001d\u00c4\u00b5}\u00b2' +
'Test SHA512 as assumed binary'); '\u00d6\u0092\u00a3\u00df\u00a2i\u00a1\u009b\n\n*\u000f' +
'\u00d7\u00d6\u00a2\u00a8\u0085\u00e3<\u0083\u009c\u0093' +
'\u00c2\u0006\u00da0\u00a1\u00879(G\u00ed\'',
'binary'),
'Test SHA512 as assumed buffer');
assert.deepEqual(a4, assert.deepEqual(a4,
new Buffer('8308651804facb7b9af8ffc53a33a22d6a1c8ac2', 'hex'), new Buffer('8308651804facb7b9af8ffc53a33a22d6a1c8ac2', 'hex'),
'Test SHA1'); 'Test SHA1');
@ -554,10 +558,10 @@ var privkey1 = dh1.getPrivateKey();
dh3.setPublicKey(key1); dh3.setPublicKey(key1);
dh3.setPrivateKey(privkey1); dh3.setPrivateKey(privkey1);
assert.equal(dh1.getPrime(), dh3.getPrime()); assert.deepEqual(dh1.getPrime(), dh3.getPrime());
assert.equal(dh1.getGenerator(), dh3.getGenerator()); assert.deepEqual(dh1.getGenerator(), dh3.getGenerator());
assert.equal(dh1.getPublicKey(), dh3.getPublicKey()); assert.deepEqual(dh1.getPublicKey(), dh3.getPublicKey());
assert.equal(dh1.getPrivateKey(), dh3.getPrivateKey()); assert.deepEqual(dh1.getPrivateKey(), dh3.getPrivateKey());
var secret3 = dh3.computeSecret(key2, 'hex', 'base64'); var secret3 = dh3.computeSecret(key2, 'hex', 'base64');
@ -567,6 +571,16 @@ assert.throws(function() {
dh3.computeSecret(''); dh3.computeSecret('');
}, /key is too small/i); }, /key is too small/i);
// Create a shared using a DH group.
var alice = crypto.createDiffieHellmanGroup('modp5');
var bob = crypto.createDiffieHellmanGroup('modp5');
alice.generateKeys();
bob.generateKeys();
var aSecret = alice.computeSecret(bob.getPublicKey()).toString('hex');
var bSecret = bob.computeSecret(alice.getPublicKey()).toString('hex');
assert.equal(aSecret, bSecret);
// https://github.com/joyent/node/issues/2338 // https://github.com/joyent/node/issues/2338
assert.throws(function() { assert.throws(function() {
var p = 'FFFFFFFFFFFFFFFFC90FDAA22168C234C4C6628B80DC1CD129024E088A67CC74' + var p = 'FFFFFFFFFFFFFFFFC90FDAA22168C234C4C6628B80DC1CD129024E088A67CC74' +

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