node/lib/_tls_wrap.js
Fedor Indutny b9686233fc stream_base: introduce StreamBase
StreamBase is an improved way to write C++ streams. The class itself is
for separting `StreamWrap` (with the methods like `.writeAsciiString`,
`.writeBuffer`, `.writev`, etc) from the `HandleWrap` class, making
possible to write abstract C++ streams that are not bound to any uv
socket.

The following methods are important part of the abstraction (which
mimics libuv's stream API):

* Events:
  * `OnAlloc(size_t size, uv_buf_t*)`
  * `OnRead(ssize_t nread, const uv_buf_t*, uv_handle_type pending)`
  * `OnAfterWrite(WriteWrap*)`
* Wrappers:
  * `DoShutdown(ShutdownWrap*)`
  * `DoTryWrite(uv_buf_t** bufs, size_t* count)`
  * `DoWrite(WriteWrap*, uv_buf_t*, size_t count, uv_stream_t* handle)`
  * `Error()`
  * `ClearError()`

The implementation should provide all of these methods, thus providing
the access to the underlying resource (be it uv handle, TLS socket, or
anything else).

A C++ stream may consume the input of another stream by replacing the
event callbacks and proxying the writes. This kind of API is actually
used now for the TLSWrap implementation, making it possible to wrap TLS
stream into another TLS stream. Thus legacy API calls are no longer
required in `_tls_wrap.js`.

PR-URL: https://github.com/iojs/io.js/pull/840
Reviewed-By: Trevor Norris <trev.norris@gmail.com>
Reviewed-By: Chris Dickinson <christopher.s.dickinson@gmail.com>
2015-02-22 22:31:57 +03:00

932 lines
25 KiB
JavaScript

'use strict';
const assert = require('assert');
const crypto = require('crypto');
const net = require('net');
const tls = require('tls');
const util = require('util');
const listenerCount = require('events').listenerCount;
const common = require('_tls_common');
const debug = util.debuglog('tls');
const Timer = process.binding('timer_wrap').Timer;
const tls_wrap = process.binding('tls_wrap');
// constructor for lazy loading
function createTCP() {
var TCP = process.binding('tcp_wrap').TCP;
return new TCP();
}
// constructor for lazy loading
function createPipe() {
var Pipe = process.binding('pipe_wrap').Pipe;
return new Pipe();
}
function onhandshakestart() {
debug('onhandshakestart');
var self = this;
var ssl = self._handle;
var now = Timer.now();
assert(now >= ssl.lastHandshakeTime);
if ((now - ssl.lastHandshakeTime) >= tls.CLIENT_RENEG_WINDOW * 1000) {
ssl.handshakes = 0;
}
var first = (ssl.lastHandshakeTime === 0);
ssl.lastHandshakeTime = now;
if (first) return;
if (++ssl.handshakes > tls.CLIENT_RENEG_LIMIT) {
// Defer the error event to the next tick. We're being called from OpenSSL's
// state machine and OpenSSL is not re-entrant. We cannot allow the user's
// callback to destroy the connection right now, it would crash and burn.
setImmediate(function() {
var err = new Error('TLS session renegotiation attack detected.');
self._tlsError(err);
});
}
}
function onhandshakedone() {
// for future use
debug('onhandshakedone');
this._finishInit();
}
function loadSession(self, hello, cb) {
var once = false;
function onSession(err, session) {
if (once)
return cb(new Error('TLS session callback was called 2 times'));
once = true;
if (err)
return cb(err);
// NOTE: That we have disabled OpenSSL's internal session storage in
// `node_crypto.cc` and hence its safe to rely on getting servername only
// from clienthello or this place.
var ret = self._handle.loadSession(session);
cb(null, ret);
}
if (hello.sessionId.length <= 0 ||
hello.tlsTicket ||
self.server &&
!self.server.emit('resumeSession', hello.sessionId, onSession)) {
cb(null);
}
}
function loadSNI(self, servername, cb) {
if (!servername || !self._SNICallback)
return cb(null);
var once = false;
self._SNICallback(servername, function(err, context) {
if (once)
return cb(new Error('TLS SNI callback was called 2 times'));
once = true;
if (err)
return cb(err);
// TODO(indutny): eventually disallow raw `SecureContext`
if (context)
self._handle.sni_context = context.context || context;
cb(null, self._handle.sni_context);
});
}
function requestOCSP(self, hello, ctx, cb) {
if (!hello.OCSPRequest || !self.server)
return cb(null);
if (!ctx)
ctx = self.server._sharedCreds;
if (ctx.context)
ctx = ctx.context;
if (listenerCount(self.server, 'OCSPRequest') === 0) {
return cb(null);
} else {
self.server.emit('OCSPRequest',
ctx.getCertificate(),
ctx.getIssuer(),
onOCSP);
}
var once = false;
function onOCSP(err, response) {
if (once)
return cb(new Error('TLS OCSP callback was called 2 times'));
once = true;
if (err)
return cb(err);
if (response)
self._handle.setOCSPResponse(response);
cb(null);
}
}
function onclienthello(hello) {
var self = this;
loadSession(self, hello, function(err, session) {
if (err)
return self.destroy(err);
// Servername came from SSL session
// NOTE: TLS Session ticket doesn't include servername information
//
// Another note, From RFC3546:
//
// If, on the other hand, the older
// session is resumed, then the server MUST ignore extensions appearing
// in the client hello, and send a server hello containing no
// extensions; in this case the extension functionality negotiated
// during the original session initiation is applied to the resumed
// session.
//
// Therefore we should account session loading when dealing with servername
var servername = session && session.servername || hello.servername;
loadSNI(self, servername, function(err, ctx) {
if (err)
return self.destroy(err);
requestOCSP(self, hello, ctx, function(err) {
if (err)
return self.destroy(err);
self._handle.endParser();
});
});
});
}
function onnewsession(key, session) {
if (!this.server)
return;
var self = this;
var once = false;
this._newSessionPending = true;
if (!this.server.emit('newSession', key, session, done))
done();
function done() {
if (once)
return;
once = true;
self._handle.newSessionDone();
self._newSessionPending = false;
if (self._securePending)
self._finishInit();
self._securePending = false;
}
}
function onocspresponse(resp) {
this.emit('OCSPResponse', resp);
}
/**
* Provides a wrap of socket stream to do encrypted communication.
*/
function TLSSocket(socket, options) {
this._tlsOptions = options;
this._secureEstablished = false;
this._securePending = false;
this._newSessionPending = false;
this._controlReleased = false;
this._SNICallback = null;
this.servername = null;
this.npnProtocol = null;
this.authorized = false;
this.authorizationError = null;
// Just a documented property to make secure sockets
// distinguishable from regular ones.
this.encrypted = true;
net.Socket.call(this, {
handle: this._wrapHandle(socket && socket._handle),
allowHalfOpen: socket && socket.allowHalfOpen,
readable: false,
writable: false
});
// Proxy for API compatibility
this.ssl = this._handle;
this.on('error', this._tlsError);
this._init(socket);
// Make sure to setup all required properties like: `_connecting` before
// starting the flow of the data
this.readable = true;
this.writable = true;
this.read(0);
}
util.inherits(TLSSocket, net.Socket);
exports.TLSSocket = TLSSocket;
var proxiedMethods = [
'close', 'ref', 'unref', 'open', 'bind', 'listen', 'connect', 'bind6',
'connect6', 'getsockname', 'getpeername', 'setNoDelay', 'setKeepAlive',
'setSimultaneousAccepts', 'setBlocking',
// PipeWrap
'setPendingInstances'
];
TLSSocket.prototype._wrapHandle = function(handle) {
var res;
var options = this._tlsOptions;
if (!handle) {
handle = options.pipe ? createPipe() : createTCP();
handle.owner = this;
}
// Wrap socket's handle
var context = options.secureContext ||
options.credentials ||
tls.createSecureContext();
res = tls_wrap.wrap(handle, context.context, options.isServer);
res._parent = handle;
res._reading = handle._reading;
// Proxy HandleWrap, PipeWrap and TCPWrap methods
proxiedMethods.forEach(function(name) {
res[name] = function methodProxy() {
return handle[name].apply(handle, arguments);
};
});
return res;
};
TLSSocket.prototype._init = function(socket) {
var self = this;
var options = this._tlsOptions;
var ssl = this._handle;
// lib/net.js expect this value to be non-zero if write hasn't been flushed
// immediately
// TODO(indutny): rewise this solution, it might be 1 before handshake and
// represent real writeQueueSize during regular writes.
ssl.writeQueueSize = 1;
this.server = options.server || null;
// For clients, we will always have either a given ca list or be using
// default one
var requestCert = !!options.requestCert || !options.isServer,
rejectUnauthorized = !!options.rejectUnauthorized;
this._requestCert = requestCert;
this._rejectUnauthorized = rejectUnauthorized;
if (requestCert || rejectUnauthorized)
ssl.setVerifyMode(requestCert, rejectUnauthorized);
if (options.isServer) {
ssl.onhandshakestart = onhandshakestart.bind(this);
ssl.onhandshakedone = onhandshakedone.bind(this);
ssl.onclienthello = onclienthello.bind(this);
ssl.onnewsession = onnewsession.bind(this);
ssl.lastHandshakeTime = 0;
ssl.handshakes = 0;
if (this.server &&
(listenerCount(this.server, 'resumeSession') > 0 ||
listenerCount(this.server, 'newSession') > 0 ||
listenerCount(this.server, 'OCSPRequest') > 0)) {
ssl.enableSessionCallbacks();
}
} else {
ssl.onhandshakestart = function() {};
ssl.onhandshakedone = this._finishInit.bind(this);
ssl.onocspresponse = onocspresponse.bind(this);
if (options.session)
ssl.setSession(options.session);
}
ssl.onerror = function(err) {
if (self._writableState.errorEmitted)
return;
self._writableState.errorEmitted = true;
// Destroy socket if error happened before handshake's finish
if (!this._secureEstablished) {
self._tlsError(err);
self.destroy();
} else if (options.isServer &&
rejectUnauthorized &&
/peer did not return a certificate/.test(err.message)) {
// Ignore server's authorization errors
self.destroy();
} else {
// Throw error
self._tlsError(err);
}
};
// If custom SNICallback was given, or if
// there're SNI contexts to perform match against -
// set `.onsniselect` callback.
if (process.features.tls_sni &&
options.isServer &&
options.server &&
(options.SNICallback !== SNICallback ||
options.server._contexts.length)) {
assert(typeof options.SNICallback === 'function');
this._SNICallback = options.SNICallback;
ssl.enableHelloParser();
}
if (process.features.tls_npn && options.NPNProtocols)
ssl.setNPNProtocols(options.NPNProtocols);
if (options.handshakeTimeout > 0)
this.setTimeout(options.handshakeTimeout, this._handleTimeout);
// Socket already has some buffered data - emulate receiving it
if (socket && socket._readableState.length) {
var buf;
while ((buf = socket.read()) !== null)
ssl.receive(buf);
}
if (socket) {
this._parent = socket;
// To prevent assertion in afterConnect() and properly kick off readStart
this._connecting = socket._connecting;
socket.once('connect', function() {
self._connecting = false;
self.emit('connect');
});
}
// Assume `tls.connect()`
if (!socket)
this._connecting = true;
};
TLSSocket.prototype.renegotiate = function(options, callback) {
var requestCert = this._requestCert,
rejectUnauthorized = this._rejectUnauthorized;
if (typeof options.requestCert !== 'undefined')
requestCert = !!options.requestCert;
if (typeof options.rejectUnauthorized !== 'undefined')
rejectUnauthorized = !!options.rejectUnauthorized;
if (requestCert !== this._requestCert ||
rejectUnauthorized !== this._rejectUnauthorized) {
this._handle.setVerifyMode(requestCert, rejectUnauthorized);
this._requestCert = requestCert;
this._rejectUnauthorized = rejectUnauthorized;
}
if (!this._handle.renegotiate()) {
if (callback) {
process.nextTick(function() {
callback(new Error('Failed to renegotiate'));
});
}
return false;
}
// Ensure that we'll cycle through internal openssl's state
this.write('');
if (callback) {
this.once('secure', function() {
callback(null);
});
}
return true;
};
TLSSocket.prototype.setMaxSendFragment = function setMaxSendFragment(size) {
return this._handle.setMaxSendFragment(size) == 1;
};
TLSSocket.prototype.getTLSTicket = function getTLSTicket() {
return this._handle.getTLSTicket();
};
TLSSocket.prototype._handleTimeout = function() {
this._tlsError(new Error('TLS handshake timeout'));
};
TLSSocket.prototype._tlsError = function(err) {
this.emit('_tlsError', err);
if (this._controlReleased)
this.emit('error', err);
};
TLSSocket.prototype._releaseControl = function() {
if (this._controlReleased)
return false;
this._controlReleased = true;
this.removeListener('error', this._tlsError);
return true;
};
TLSSocket.prototype._finishInit = function() {
// `newSession` callback wasn't called yet
if (this._newSessionPending) {
this._securePending = true;
return;
}
if (process.features.tls_npn) {
this.npnProtocol = this._handle.getNegotiatedProtocol();
}
if (process.features.tls_sni && this._tlsOptions.isServer) {
this.servername = this._handle.getServername();
}
debug('secure established');
this._secureEstablished = true;
if (this._tlsOptions.handshakeTimeout > 0)
this.setTimeout(0, this._handleTimeout);
this.emit('secure');
};
TLSSocket.prototype._start = function() {
if (this._connecting) {
this.once('connect', function() {
this._start();
});
return;
}
if (this._tlsOptions.requestOCSP)
this._handle.requestOCSP();
this._handle.start();
};
TLSSocket.prototype.setServername = function(name) {
this._handle.setServername(name);
};
TLSSocket.prototype.setSession = function(session) {
if (typeof session === 'string')
session = new Buffer(session, 'binary');
this._handle.setSession(session);
};
TLSSocket.prototype.getPeerCertificate = function(detailed) {
if (this._handle) {
return common.translatePeerCertificate(
this._handle.getPeerCertificate(detailed));
}
return null;
};
TLSSocket.prototype.getSession = function() {
if (this._handle) {
return this._handle.getSession();
}
return null;
};
TLSSocket.prototype.isSessionReused = function() {
if (this._handle) {
return this._handle.isSessionReused();
}
return null;
};
TLSSocket.prototype.getCipher = function(err) {
if (this._handle) {
return this._handle.getCurrentCipher();
} else {
return null;
}
};
// TODO: support anonymous (nocert) and PSK
// AUTHENTICATION MODES
//
// There are several levels of authentication that TLS/SSL supports.
// Read more about this in "man SSL_set_verify".
//
// 1. The server sends a certificate to the client but does not request a
// cert from the client. This is common for most HTTPS servers. The browser
// can verify the identity of the server, but the server does not know who
// the client is. Authenticating the client is usually done over HTTP using
// login boxes and cookies and stuff.
//
// 2. The server sends a cert to the client and requests that the client
// also send it a cert. The client knows who the server is and the server is
// requesting the client also identify themselves. There are several
// outcomes:
//
// A) verifyError returns null meaning the client's certificate is signed
// by one of the server's CAs. The server know's the client idenity now
// and the client is authorized.
//
// B) For some reason the client's certificate is not acceptable -
// verifyError returns a string indicating the problem. The server can
// either (i) reject the client or (ii) allow the client to connect as an
// unauthorized connection.
//
// The mode is controlled by two boolean variables.
//
// requestCert
// If true the server requests a certificate from client connections. For
// the common HTTPS case, users will want this to be false, which is what
// it defaults to.
//
// rejectUnauthorized
// If true clients whose certificates are invalid for any reason will not
// be allowed to make connections. If false, they will simply be marked as
// unauthorized but secure communication will continue. By default this is
// true.
//
//
//
// Options:
// - requestCert. Send verify request. Default to false.
// - rejectUnauthorized. Boolean, default to true.
// - key. string.
// - cert: string.
// - ca: string or array of strings.
// - sessionTimeout: integer.
//
// emit 'secureConnection'
// function (tlsSocket) { }
//
// "UNABLE_TO_GET_ISSUER_CERT", "UNABLE_TO_GET_CRL",
// "UNABLE_TO_DECRYPT_CERT_SIGNATURE", "UNABLE_TO_DECRYPT_CRL_SIGNATURE",
// "UNABLE_TO_DECODE_ISSUER_PUBLIC_KEY", "CERT_SIGNATURE_FAILURE",
// "CRL_SIGNATURE_FAILURE", "CERT_NOT_YET_VALID" "CERT_HAS_EXPIRED",
// "CRL_NOT_YET_VALID", "CRL_HAS_EXPIRED" "ERROR_IN_CERT_NOT_BEFORE_FIELD",
// "ERROR_IN_CERT_NOT_AFTER_FIELD", "ERROR_IN_CRL_LAST_UPDATE_FIELD",
// "ERROR_IN_CRL_NEXT_UPDATE_FIELD", "OUT_OF_MEM",
// "DEPTH_ZERO_SELF_SIGNED_CERT", "SELF_SIGNED_CERT_IN_CHAIN",
// "UNABLE_TO_GET_ISSUER_CERT_LOCALLY", "UNABLE_TO_VERIFY_LEAF_SIGNATURE",
// "CERT_CHAIN_TOO_LONG", "CERT_REVOKED" "INVALID_CA",
// "PATH_LENGTH_EXCEEDED", "INVALID_PURPOSE" "CERT_UNTRUSTED",
// "CERT_REJECTED"
//
function Server(/* [options], listener */) {
var options, listener;
if (arguments[0] !== null && typeof arguments[0] === 'object') {
options = arguments[0];
listener = arguments[1];
} else if (typeof arguments[0] === 'function') {
options = {};
listener = arguments[0];
}
if (!(this instanceof Server)) return new Server(options, listener);
this._contexts = [];
var self = this;
// Handle option defaults:
this.setOptions(options);
var sharedCreds = tls.createSecureContext({
pfx: self.pfx,
key: self.key,
passphrase: self.passphrase,
cert: self.cert,
ca: self.ca,
ciphers: self.ciphers,
ecdhCurve: self.ecdhCurve,
dhparam: self.dhparam,
secureProtocol: self.secureProtocol,
secureOptions: self.secureOptions,
honorCipherOrder: self.honorCipherOrder,
crl: self.crl,
sessionIdContext: self.sessionIdContext
});
this._sharedCreds = sharedCreds;
var timeout = options.handshakeTimeout || (120 * 1000);
if (typeof timeout !== 'number') {
throw new TypeError('handshakeTimeout must be a number');
}
if (self.sessionTimeout) {
sharedCreds.context.setSessionTimeout(self.sessionTimeout);
}
if (self.ticketKeys) {
sharedCreds.context.setTicketKeys(self.ticketKeys);
}
// constructor call
net.Server.call(this, function(raw_socket) {
var socket = new TLSSocket(raw_socket, {
secureContext: sharedCreds,
isServer: true,
server: self,
requestCert: self.requestCert,
rejectUnauthorized: self.rejectUnauthorized,
handshakeTimeout: timeout,
NPNProtocols: self.NPNProtocols,
SNICallback: options.SNICallback || SNICallback
});
socket.on('secure', function() {
if (socket._requestCert) {
var verifyError = socket._handle.verifyError();
if (verifyError) {
socket.authorizationError = verifyError.code;
if (socket._rejectUnauthorized)
socket.destroy();
} else {
socket.authorized = true;
}
}
if (!socket.destroyed && socket._releaseControl())
self.emit('secureConnection', socket);
});
var errorEmitted = false;
socket.on('close', function() {
// Emit ECONNRESET
if (!socket._controlReleased && !errorEmitted) {
errorEmitted = true;
var connReset = new Error('socket hang up');
connReset.code = 'ECONNRESET';
self.emit('clientError', connReset, socket);
}
});
socket.on('_tlsError', function(err) {
if (!socket._controlReleased && !errorEmitted) {
errorEmitted = true;
self.emit('clientError', err, socket);
}
});
});
if (listener) {
this.on('secureConnection', listener);
}
}
util.inherits(Server, net.Server);
exports.Server = Server;
exports.createServer = function(options, listener) {
return new Server(options, listener);
};
Server.prototype._getServerData = function() {
return {
ticketKeys: this._sharedCreds.context.getTicketKeys().toString('hex')
};
};
Server.prototype._setServerData = function(data) {
this._sharedCreds.context.setTicketKeys(new Buffer(data.ticketKeys, 'hex'));
};
Server.prototype.setOptions = function(options) {
if (typeof options.requestCert === 'boolean') {
this.requestCert = options.requestCert;
} else {
this.requestCert = false;
}
if (typeof options.rejectUnauthorized === 'boolean') {
this.rejectUnauthorized = options.rejectUnauthorized;
} else {
this.rejectUnauthorized = false;
}
if (options.pfx) this.pfx = options.pfx;
if (options.key) this.key = options.key;
if (options.passphrase) this.passphrase = options.passphrase;
if (options.cert) this.cert = options.cert;
if (options.ca) this.ca = options.ca;
if (options.secureProtocol) this.secureProtocol = options.secureProtocol;
if (options.crl) this.crl = options.crl;
if (options.ciphers) this.ciphers = options.ciphers;
if (options.ecdhCurve !== undefined)
this.ecdhCurve = options.ecdhCurve;
if (options.dhparam) this.dhparam = options.dhparam;
if (options.sessionTimeout) this.sessionTimeout = options.sessionTimeout;
if (options.ticketKeys) this.ticketKeys = options.ticketKeys;
var secureOptions = options.secureOptions || 0;
if (options.honorCipherOrder !== undefined)
this.honorCipherOrder = !!options.honorCipherOrder;
else
this.honorCipherOrder = true;
if (secureOptions) this.secureOptions = secureOptions;
if (options.NPNProtocols) tls.convertNPNProtocols(options.NPNProtocols, this);
if (options.sessionIdContext) {
this.sessionIdContext = options.sessionIdContext;
} else {
this.sessionIdContext = crypto.createHash('md5')
.update(process.argv.join(' '))
.digest('hex');
}
};
// SNI Contexts High-Level API
Server.prototype.addContext = function(servername, context) {
if (!servername) {
throw new Error('Servername is required parameter for Server.addContext');
}
var re = new RegExp('^' +
servername.replace(/([\.^$+?\-\\[\]{}])/g, '\\$1')
.replace(/\*/g, '[^\.]*') +
'$');
this._contexts.push([re, tls.createSecureContext(context).context]);
};
function SNICallback(servername, callback) {
var ctx;
this.server._contexts.some(function(elem) {
if (servername.match(elem[0]) !== null) {
ctx = elem[1];
return true;
}
});
callback(null, ctx);
}
// Target API:
//
// var s = tls.connect({port: 8000, host: "google.com"}, function() {
// if (!s.authorized) {
// s.destroy();
// return;
// }
//
// // s.socket;
//
// s.end("hello world\n");
// });
//
//
function normalizeConnectArgs(listArgs) {
var args = net._normalizeConnectArgs(listArgs);
var options = args[0];
var cb = args[1];
if (listArgs[1] !== null && typeof listArgs[1] === 'object') {
options = util._extend(options, listArgs[1]);
} else if (listArgs[2] !== null && typeof listArgs[2] === 'object') {
options = util._extend(options, listArgs[2]);
}
return (cb) ? [options, cb] : [options];
}
exports.connect = function(/* [port, host], options, cb */) {
var args = normalizeConnectArgs(arguments);
var options = args[0];
var cb = args[1];
var defaults = {
rejectUnauthorized: '0' !== process.env.NODE_TLS_REJECT_UNAUTHORIZED,
ciphers: tls.DEFAULT_CIPHERS,
checkServerIdentity: tls.checkServerIdentity
};
options = util._extend(defaults, options || {});
assert(typeof options.checkServerIdentity === 'function');
var hostname = options.servername ||
options.host ||
options.socket && options.socket._host,
NPN = {},
context = tls.createSecureContext(options);
tls.convertNPNProtocols(options.NPNProtocols, NPN);
var socket = new TLSSocket(options.socket, {
pipe: options.path && !options.port,
secureContext: context,
isServer: false,
requestCert: true,
rejectUnauthorized: options.rejectUnauthorized,
session: options.session,
NPNProtocols: NPN.NPNProtocols,
requestOCSP: options.requestOCSP
});
if (cb)
socket.once('secureConnect', cb);
if (!options.socket) {
var connect_opt;
if (options.path && !options.port) {
connect_opt = { path: options.path };
} else {
connect_opt = {
port: options.port,
host: options.host,
localAddress: options.localAddress
};
}
socket.connect(connect_opt, function() {
socket._start();
});
}
socket._releaseControl();
if (options.session)
socket.setSession(options.session);
if (options.servername)
socket.setServername(options.servername);
if (options.socket)
socket._start();
socket.on('secure', function() {
var verifyError = socket._handle.verifyError();
// Verify that server's identity matches it's certificate's names
if (!verifyError) {
var cert = socket.getPeerCertificate();
verifyError = options.checkServerIdentity(hostname, cert);
}
if (verifyError) {
socket.authorized = false;
socket.authorizationError = verifyError.code || verifyError.message;
if (options.rejectUnauthorized) {
socket.emit('error', verifyError);
socket.destroy();
return;
} else {
socket.emit('secureConnect');
}
} else {
socket.authorized = true;
socket.emit('secureConnect');
}
// Uncork incoming data
socket.removeListener('end', onHangUp);
});
function onHangUp() {
// NOTE: This logic is shared with _http_client.js
if (!socket._hadError) {
socket._hadError = true;
var error = new Error('socket hang up');
error.code = 'ECONNRESET';
socket.destroy();
socket.emit('error', error);
}
}
socket.once('end', onHangUp);
return socket;
};