if (!uv_is_active((uv_handle_t*) &gc_timer)) {

uv_timer_start(&node::gc_timer, node::CheckStatus, 5000, 5000);

}

if (uv_is_active((uv_handle_t*) &gc_timer)) {

uv_timer_stop(&gc_timer);

}

assert((uv_idle_t*) watcher == &gc_idle);

if (V8::IdleNotification()) {

uv_idle_stop(&gc_idle);

StopGCTimer();

}

assert(watcher == &gc_check);

tick_times[tick_time_head] = uv_now(uv_default_loop());

tick_time_head = (tick_time_head + 1) % RPM_SAMPLES;

StartGCTimer();

for (int i = 0; i < (int)(GC_WAIT_TIME/FAST_TICK); i++) {

double d = TICK_TIME(i+1) - TICK_TIME(i+2);

//printf("d = %f\n", d);

// If in the last 5 ticks the difference between

// ticks was less than 0.7 seconds, then continue.

if (d < FAST_TICK) {

//printf("---\n");

return;

}

}

// Otherwise start the gc!

//fprintf(stderr, "start idle 2\n");

uv_idle_start(&node::gc_idle, node::Idle);

// Avoid entering a V8 scope.

if (!need_tick_cb) return;

need_tick_cb = false;

if (uv_is_active((uv_handle_t*) &tick_spinner)) {

uv_idle_stop(&tick_spinner);

uv_unref(uv_default_loop());

}

HandleScope scope;

if (tick_callback_sym.IsEmpty()) {

// Lazily set the symbol

tick_callback_sym =

Persistent<String>::New(String::NewSymbol("_tickCallback"));

}

Local<Value> cb_v = process->Get(tick_callback_sym);

if (!cb_v->IsFunction()) return;

Local<Function> cb = Local<Function>::Cast(cb_v);

TryCatch try_catch;

cb->Call(process, 0, NULL);

if (try_catch.HasCaught()) {

FatalException(try_catch);

}

assert((uv_idle_t*) handle == &tick_spinner);

assert(status == 0);

Tick();

HandleScope scope;

need_tick_cb = true;

// TODO: this tick_spinner shouldn't be necessary. An ev_prepare should be

// sufficent, the problem is only in the case of the very last "tick" -

// there is nothing left to do in the event loop and libev will exit. The

// ev_prepare callback isn't called before exiting. Thus we start this

// tick_spinner to keep the event loop alive long enough to handle it.

if (!uv_is_active((uv_handle_t*) &tick_spinner)) {

uv_idle_start(&tick_spinner, Spin);

uv_ref(uv_default_loop());

}

return Undefined();

assert(handle == &prepare_tick_watcher);

assert(status == 0);

Tick();

assert(handle == &check_tick_watcher);

assert(status == 0);

Tick();

const char *syscall,

const char *msg,

const char *path) {

Local<Value> e;

Local<String> estring = String::NewSymbol(errno_string(errorno));

if (!msg[0]) {

msg = strerror(errorno);

}

Local<String> message = String::NewSymbol(msg);

Local<String> cons1 = String::Concat(estring, String::NewSymbol(", "));

Local<String> cons2 = String::Concat(cons1, message);

if (syscall_symbol.IsEmpty()) {

syscall_symbol = NODE_PSYMBOL("syscall");

errno_symbol = NODE_PSYMBOL("errno");

errpath_symbol = NODE_PSYMBOL("path");

code_symbol = NODE_PSYMBOL("code");

}

if (path) {

Local<String> cons3 = String::Concat(cons2, String::NewSymbol(" '"));

Local<String> cons4 = String::Concat(cons3, String::New(path));

Local<String> cons5 = String::Concat(cons4, String::NewSymbol("'"));

e = Exception::Error(cons5);

} else {

e = Exception::Error(cons2);

}

Local<Object> obj = e->ToObject();

obj->Set(errno_symbol, Integer::New(errorno));

obj->Set(code_symbol, estring);

if (path) obj->Set(errpath_symbol, String::New(path));

if (syscall) obj->Set(syscall_symbol, String::NewSymbol(syscall));

return e;

const char* syscall,

const char* msg,

const char* path) {

Local<Value> e;

if (!msg || !msg[0]) {

msg = winapi_strerror(errorno);

}

Local<String> message = String::NewSymbol(msg);

if (syscall_symbol.IsEmpty()) {

syscall_symbol = NODE_PSYMBOL("syscall");

errno_symbol = NODE_PSYMBOL("errno");

errpath_symbol = NODE_PSYMBOL("path");

code_symbol = NODE_PSYMBOL("code");

}

if (path) {

Local<String> cons1 = String::Concat(message, String::NewSymbol(" '"));

Local<String> cons2 = String::Concat(cons1, String::New(path));

Local<String> cons3 = String::Concat(cons2, String::NewSymbol("'"));

e = Exception::Error(cons3);

} else {

e = Exception::Error(message);

}

Local<Object> obj = e->ToObject();

obj->Set(errno_symbol, Integer::New(errorno));

if (path) obj->Set(errpath_symbol, String::New(path));

if (syscall) obj->Set(syscall_symbol, String::NewSymbol(syscall));

return e;

const Arguments& args) {

HandleScope scope;

const int argc = args.Length();

Local<Value>* argv = new Local<Value>[argc];

for (int i = 0; i < argc; ++i) {

argv[i] = args[i];

}

Local<Object> instance = t->GetFunction()->NewInstance(argc, argv);

delete[] argv;

return scope.Close(instance);

const char* method,

int argc,

Handle<Value> argv[]) {

HandleScope scope;

if (use_domains) {

// If this assert fires it means that somehow we're getting into the event

// loop before Load() function could complete.

assert(!process_dispatch.IsEmpty());

// TODO Hook for long stack traces to be made here.

assert(argc <= 4);

Handle<Value> dispatch_argv[6];

dispatch_argv[0] = Local<Value>::New(object);

dispatch_argv[1] = String::New(method);

for (int i = 0; i < argc; i++) {

dispatch_argv[2 + i] = argv[i];

}

// Do not try-catch here - we'll catch any problems in process.dispatch.

process_dispatch->Call(process, 2 + argc, dispatch_argv);

} else {

// Legacy dispatch

Local<Value> callback_v = object->Get(String::New(method));

if (!callback_v->IsFunction()) {

fprintf(stderr, "method = %s", method);

}

assert(callback_v->IsFunction());

Local<Function> callback = Local<Function>::Cast(callback_v);

// TODO Hook for long stack traces to be made here.

TryCatch try_catch;

callback->Call(object, argc, argv);

if (try_catch.HasCaught()) {

FatalException(try_catch);

}

}

HandleScope scope;

if (errno_symbol.IsEmpty()) {

errno_symbol = NODE_PSYMBOL("errno");

}

if (err.code == UV_UNKNOWN) {

char errno_buf[100];

snprintf(errno_buf, 100, "Unknown system errno %d", err.sys_errno_);

Context::GetCurrent()->Global()->Set(errno_symbol, String::New(errno_buf));

} else {

Context::GetCurrent()->Global()->Set(errno_symbol,

String::NewSymbol(uv_err_name(err)));

}

HandleScope scope;

if (!encoding_v->IsString()) return _default;

String::Utf8Value encoding(encoding_v->ToString());

if (strcasecmp(*encoding, "utf8") == 0) {

return UTF8;

} else if (strcasecmp(*encoding, "utf-8") == 0) {

return UTF8;

} else if (strcasecmp(*encoding, "ascii") == 0) {

return ASCII;

} else if (strcasecmp(*encoding, "base64") == 0) {

return BASE64;

} else if (strcasecmp(*encoding, "ucs2") == 0) {

return UCS2;

} else if (strcasecmp(*encoding, "ucs-2") == 0) {

return UCS2;

} else if (strcasecmp(*encoding, "binary") == 0) {

return BINARY;

} else if (strcasecmp(*encoding, "hex") == 0) {

return HEX;

} else if (strcasecmp(*encoding, "raw") == 0) {

fprintf(stderr, "'raw' (array of integers) has been removed. "

"Use 'binary'.\n");

return BINARY;

} else if (strcasecmp(*encoding, "raws") == 0) {

fprintf(stderr, "'raws' encoding has been renamed to 'binary'. "

"Please update your code.\n");

return BINARY;

} else {

return _default;

}

HandleScope scope;

if (!len) return scope.Close(String::Empty());

if (encoding == BINARY) {

const unsigned char *cbuf = static_cast<const unsigned char*>(buf);

uint16_t * twobytebuf = new uint16_t[len];

for (size_t i = 0; i < len; i++) {

// XXX is the following line platform independent?

twobytebuf[i] = cbuf[i];

}

Local<String> chunk = String::New(twobytebuf, len);

delete [] twobytebuf; // TODO use ExternalTwoByteString?

return scope.Close(chunk);

}

// utf8 or ascii encoding

Local<String> chunk = String::New((const char*)buf, len);

return scope.Close(chunk);

HandleScope scope;

if (val->IsArray()) {

fprintf(stderr, "'raw' encoding (array of integers) has been removed. "

"Use 'binary'.\n");

assert(0);

return -1;

}