Module Module::GetProviding(std::string name)
{
#if defined(_WIN32)
try
{
Module psapi(L"Psapi.dll");
auto EnumProcessModules = (BOOL WINAPI (*)(HANDLE, HMODULE*, DWORD, LPDWORD))psapi["EnumProcessModules"];
auto GetModuleFileNameExW = (DWORD WINAPI (*)(HANDLE, HMODULE, LPWSTR, DWORD))psapi["GetModuleFileNameExW"];
HANDLE process = GetCurrentProcess();
DWORD bytes_needed = 0;
EnumProcessModules(process, nullptr, 0, &bytes_needed);
size_t n_modules = bytes_needed / sizeof(HMODULE);
std::vector<HMODULE> modules(n_modules);
EnumProcessModules(process, modules.data(), modules.size()*sizeof(HMODULE), &bytes_needed);
for (auto m: modules)
{
Module module(m);
if (module.Probe(name))
{
wchar_t filename[MAX_PATH];
GetModuleFileNameExW(process, m, filename, MAX_PATH);
//LOG(Info, "Symbol \"" << name.c_str() << "\" was found in \"" << filename << "\""); // FIXME: global object dependency failure
return module;
}
}
}
catch (std::exception& e)
{
//LOG(Error, "Module enumeration has failed: " << e.what()); // FIXME: global object dependency failure
}
#else
void* m = dlopen(0, RTLD_NOW|RTLD_GLOBAL);
if (dlsym(m, name.c_str()) != nullptr)
{
return Module(m);
}
#endif
return Module();
}
bool generateOutput(const string& fileContents, const string& outputBitCodeName) {
// Parse the source file
//cout << "Parsing..." << endl;
base_expr_node rootAst;
if (!parse(fileContents, rootAst)) {
cerr << "Failed to parse source file!" << endl;
return false;
}
// Generate the code
//cout << "Generating code..." << endl;
LLVMContext &context = getGlobalContext();
unique_ptr<Module> module(new Module("", context));
IRBuilder<> builder(getGlobalContext());
ast_codegen codeGenerator(module.get(), builder);
// Generate code for each expression at the root level
const base_expr* expr = boost::get<base_expr>(&rootAst);
for (auto& itr : expr->children) {
boost::apply_visitor(codeGenerator, itr);
}
// Perform an LLVM verify as a sanity check
string errorInfo;
raw_string_ostream errorOut(errorInfo);
if (verifyModule(*module, &errorOut)) {
cerr << "Failed to generate LLVM IR: " << errorInfo << endl;
module->print(errorOut, nullptr);
cerr << "Module:" << endl << errorInfo << endl;
return false;
}
// Dump the LLVM IR to a file
llvm::raw_fd_ostream outStream(outputBitCodeName.c_str(), errorInfo, llvm::sys::fs::F_None);
llvm::WriteBitcodeToFile(module.get(), outStream);
return true;
}
void test_module()
{
v8pp::context context;
v8::HandleScope scope(context.isolate());
v8pp::module module(context.isolate());
v8pp::module consts(context.isolate());
consts
.set_const("bool", true)
.set_const("char", 'Z')
.set_const("int", 100)
.set_const("str", "str")
.set_const("num", 99.9)
;
module
.set("consts", consts)
.set("var", var)
.set("fun", &fun)
.set("empty", v8::Null(context.isolate()))
.set("rprop", v8pp::property(get_x))
.set("wprop", v8pp::property(get_x, set_x))
;
context.set("module", module);
check_eq("module.consts.bool", run_script<bool>(context, "module.consts.bool"), true);
check_eq("module.consts.char", run_script<char>(context, "module.consts.char"), 'Z');
check_eq("module.consts.int", run_script<char>(context, "module.consts.int"), 100);
check_eq("module.consts.str", run_script<std::string>(context, "module.consts.str"), "str");
check_eq("module.var", run_script<std::string>(context, "module.var = 'test'; module.var"), "test");
check_eq("var", var, "test");
check_eq("module.fun", run_script<int>(context, "module.fun(100)"), 101);
check_eq("module.rprop", run_script<int>(context, "module.rprop"), 2);
check_eq("module.wrop", run_script<int>(context, "++module.wprop"), 3);
check_eq("x", x, 2);
}
int cmd_enable(FILE * f, int argc, char ** argv)
{
uint32_t sb[160 / 32];
uint32_t mb[160 / 32];
int ret;
if (argc == 1) {
struct ss_device * dev;
unsigned int addr;
/* Print enabled status flag of all the devices */
fprintf(f, "Sensors:");
for (addr = 0; addr < 160; ++addr) {
dev = sensor(addr);
if (dev->enabled)
fprintf(f, " %3d", addr);
}
fprintf(f, "\nModules:");
for (addr = 0; addr < 160; ++addr) {
dev = module(addr);
if (dev->enabled)
fprintf(f, " %3d", addr);
}
fprintf(f, "\n");
return 0;
}
if ((ret = dev_lst_cmd_parse(f, argc, argv, sb, mb)) < 0)
return ret;
dev_lst_remove_unconfigured(sb, mb);
dev_sim_multiple_enable(sb, mb);
fprintf(f, "Enabled.\n");
return 0;
}
Module Process::isInjected(const Library& lib)
{
MEMORY_BASIC_INFORMATION mem_basic_info = { 0 };
SYSTEM_INFO sys_info = getSystemInfo();
for (SIZE_T mem = 0; mem < (SIZE_T)sys_info.lpMaximumApplicationAddress; mem += mem_basic_info.RegionSize)
{
mem_basic_info = memBasicInfo((const void*)mem);
if ((mem_basic_info.AllocationProtect & PAGE_EXECUTE_WRITECOPY) &&
(mem_basic_info.Protect & (PAGE_EXECUTE | PAGE_EXECUTE_READ |
PAGE_EXECUTE_READWRITE | PAGE_EXECUTE_WRITECOPY)))
{
Module module((HMODULE)mem_basic_info.AllocationBase, *this);
if (boost::iequals(module.mappedFilename(*this), lib.ntFilename()))
return module;
}
}
return Module(); // access denied or not found
}
void JsonObject::bindToScript(lua_State* lua_state)
{
module(lua_state)
[
class_<JsonObject>("JsonObject")
.def(constructor<>())
.def("isNull", &JsonObject::isNull)
.def("asInt", &JsonObject::asInt)
.def("asDouble", &JsonObject::asDouble)
.def("asString", &JsonObject::asString)
.def("asBool", &JsonObject::asBool)
.def("asArray", &JsonObject::asArray)
.def("asMember", &JsonObject::asMember)
.def("getTypeAsString", &JsonObject::getTypeAsString)
.def("show", &JsonObject::show)
.def("selectChildNode", static_cast<JsonObject(JsonObject::*)(const string&)>(&JsonObject::selectChildNode))
.def("selectChildNode", static_cast<JsonObject(JsonObject::*)(int)>(&JsonObject::selectChildNode))
.def("count", &JsonObject::count)
];
}
void UndoDiagramModulePasteActionFn(void *info)
{
TransformNode *dgmNode = ((UndoDiagramModuleCut *)info)->mpDiagramNode;
int nScriptNode = ((UndoDiagramModulePaste *)info)->mnScriptNode;
ScriptNode **scriptNode = ((UndoDiagramModulePaste *)info)->mpScriptNode;
int nRoute = ((UndoDiagramModulePaste *)info)->mnRoute;
Route **route = ((UndoDiagramModulePaste *)info)->mpRoute;
for (int n=0; n<nRoute; n++) {
GetWorld()->getSceneGraph()->removeRoute(route[n]);
}
CDiagram dgm(dgmNode);
for (n=0; n<nScriptNode; n++) {
CModule module(scriptNode[n]);
dgm.removeModule(&module);
}
delete []scriptNode;
delete []route;
}
void UndoDiagramModuleDeleteActionFn(void *info)
{
UndoDiagramModuleDelete *dmInfo = (UndoDiagramModuleDelete *)info;
TransformNode *diagramNode = dmInfo->mpDiagramNode;
ScriptNode *moduleNode = dmInfo->mpNode;
CDiagram diagram(diagramNode);
CModule module(moduleNode);
diagram.addModule(&module);
if (0 < dmInfo->mnRouteInfo) {
for (int n=0; n<dmInfo->mnRouteInfo; n++) {
RouteInfo *routeInfo = &dmInfo->maRouteInfo[n];
GetWorld()->getSceneGraph()->addRoute(routeInfo->mOutNode, routeInfo->mOutField, routeInfo->mInNode, routeInfo->mInField);
}
}
if (dmInfo->maRouteInfo)
delete dmInfo->maRouteInfo;
}
//------------------------------------------------------------------------------------
void CHomogeneousTexture_Extractor::FeatureExtraction(unsigned char* image)
{
int n, m;
Num_pixel = 180*64;
vatomdesign();
hatomdesign();
module(image, image_height, image_width);
m_dc = (int)dc;
m_std = (int)stdev;
for(n=0; n<5; n++)
for(m=0; m<6; m++)
mean2[n][m]=(int)(vec[n][m]); // mean : 30 energy features
for(n=0; n<5; n++)
for(m=0; m<6; m++)
dev2[n][m]=(int)(dvec[n][m]); // dev : 30 deviation features
}
CUresult CuContext::LoadModuleFilenameEx(const std::string& filename,
ModulePtr* ppModule, uint maxRegisters) {
std::ifstream file(filename.c_str());
if(!file.good()) return CUDA_ERROR_FILE_NOT_FOUND;
std::string contents(std::istreambuf_iterator<char>(file),
std::istreambuf_iterator<char>(0));
ModulePtr module(new CuModule);
CUjit_option options[1] = { CU_JIT_MAX_REGISTERS };
uint values[1] = { maxRegisters };
CUresult result = cuModuleLoadDataEx(&module->_module, contents.c_str(),
1, options, (void**)values);
HANDLE_RESULT();
module->_context = this;
ppModule->swap(module);
return CUDA_SUCCESS;
}
void x86_kernel_main(struct multiboot *multiboot)
{
init_output();
init_paging(multiboot);
init_acpi();
init_descriptor_tables();
kprint("Stack pointer: ");
kprint_hexnl(read_esp());
kprint("Mod count: ");
kprint_hexnl(multiboot->mods_count);
kprint("Kernel phys end : ");
kprint_hexnl((u32)&__phys_end);
kprint("Mod addr start : ");
kprint_hexnl(*(u32*)(phys_to_virt(multiboot->mods_addr)));
kprint("Mod addr end : ");
kprint_hexnl(*(u32*)(phys_to_virt(multiboot->mods_addr) + 4));
//init_tasking();
kernel_main();
if (multiboot->mods_count == 13) {
kprint("Executing module..\n");
typedef void (*module_fun)(void);
u32 modaddr = phys_to_virt(multiboot->mods_addr);
modaddr = phys_to_virt(*(u32*)modaddr);
//kprint_hexnl(modaddr);
//kprint_hexnl(*(u32*)modaddr);
module_fun module = (module_fun)modaddr;
module();
kprint("Modadr is ");
}
}
// Add a new PKCS11 module to the user's profile.
NS_IMETHODIMP
nsPkcs11::AddModule(const nsAString& aModuleName,
const nsAString& aLibraryFullPath,
int32_t aCryptoMechanismFlags,
int32_t aCipherFlags)
{
nsNSSShutDownPreventionLock locker;
if (isAlreadyShutDown()) {
return NS_ERROR_NOT_AVAILABLE;
}
if (aModuleName.IsEmpty()) {
return NS_ERROR_INVALID_ARG;
}
NS_ConvertUTF16toUTF8 moduleName(aModuleName);
nsCString fullPath;
// NSS doesn't support Unicode path. Use native charset
NS_CopyUnicodeToNative(aLibraryFullPath, fullPath);
uint32_t mechFlags = SECMOD_PubMechFlagstoInternal(aCryptoMechanismFlags);
uint32_t cipherFlags = SECMOD_PubCipherFlagstoInternal(aCipherFlags);
SECStatus srv = SECMOD_AddNewModule(moduleName.get(), fullPath.get(),
mechFlags, cipherFlags);
if (srv != SECSuccess) {
return NS_ERROR_FAILURE;
}
#ifndef MOZ_NO_SMART_CARDS
mozilla::UniqueSECMODModule module(SECMOD_FindModule(moduleName.get()));
if (!module) {
return NS_ERROR_FAILURE;
}
nsCOMPtr<nsINSSComponent> nssComponent(
do_GetService(PSM_COMPONENT_CONTRACTID));
nssComponent->LaunchSmartCardThread(module.get());
#endif
return NS_OK;
}
/** @note This function looks quite similar to @ref register_logger_module. */
tmodule* tmodule::find(const std::string& path)
{
VALIDATE(!path.empty());
tmodule* result{&module()};
/*
* Note lib::split returns 2 elements if path == "/".
* So handle this case manually. Since the register function can never
* have a non-existing root the test is not there.
*/
if(path == "/") {
return result;
}
std::vector<std::string> walk;
boost::split(walk, path, boost::is_any_of("/"));
VALIDATE(!walk.empty());
VALIDATE(walk.front().empty());
walk.erase(walk.begin());
while(!walk.empty()) {
VALIDATE(!walk.front().empty());
VALIDATE(walk.front().find('*') == std::string::npos);
for(auto& child : result->children()) {
if(child.id() == walk.front()) {
result = &child;
goto loop;
}
}
/* Didn't find the path. */
return nullptr;
loop:
walk.erase(walk.begin());
}
return result;
}
/* rename chain... we have to let our modules know our name has
* changed so they can take the appropriate action (in particular the
* JACK module). */
void
Chain::name ( const char *name )
{
char ename[512];
snprintf( ename, sizeof(ename), "%s/%s", instance_name, name );
if ( ! _engine )
{
_engine = new Engine( &Chain::process, this );
engine()->buffer_size_callback( &Chain::buffer_size, this );
const char *jack_name = engine()->init( ename );
if ( ! jack_name )
{
_engine = NULL;
fl_alert( "Could not create JACK client. Perhaps the sound device already in use. In any event, now I'll die." );
exit( 1 );
return;
}
}
else
{
DMESSAGE( "Renaming JACK client from \"%s\" to \"%s\"", _name, ename );
_name = engine()->name( ename );
/* FIXME: discarding the name jack picked is technically wrong! */
}
_name = name;
for ( int i = 0; i < modules(); ++i )
{
module( i )->handle_chain_name_changed();
}
}
void EmacsPythonCommand::runPythonStringInsideTryExcept( const EmacsString &_command )
{
EmacsString command( _command );
//_dbg_msg( FormatString( "runPythonStringInsideTryExcept: Command: %s" ) << command );
int pos=0;
for(;;)
{
pos = command.index( '\n', pos );
if( pos < 0 )
break;
command.insert( pos+1, '\t' );
pos = pos + 2;
}
EmacsString wrapped_command( FormatString( python_try_command_except_structure ) << command );
PyRun_SimpleString( wrapped_command.sdataHack() );
try
{
Py::Module module( "__main__" );
Py::Dict dict( module.getDict() );
Py::Object error_reason( dict[ "__bemacs_error" ] );
if( error_reason.isString() )
{
std::string reason_1 = Py::String( error_reason );
commandFailed( EmacsString( EmacsString::copy, reason_1.c_str() ) );
}
}
catch( Py::Exception &e )
{
//_dbg_msg( "runPythonStringInsideTryExcept: catch()" );
e.clear();
}
}
//Initialize application
Application::Application(int argc, char** argv) : app(nullptr)
{
//Logging system initialization
this->log.init("log.txt");
//Initialize application type
if( argc > 1 )
{
std::string module (argv [ 1 ]);
if( module == "gen" )
{
this->app = new Generator(argc, argv);
}
else
{
if( module == "run" )
{
this->app = new Runner(argc, argv);
}
}
}
}
VError VRIAJSCallbackModuleFunction::Call( VJSContext& inContext, const std::vector<VJSValue> *inParameters, VJSValue* outResult)
{
VError err = VE_OK;
JS4D::ExceptionRef exception = NULL;
VJSObject object( inContext.GetGlobalObject());
VJSValue nameParam( inContext);
nameParam.SetString( fModuleName);
std::vector<VJSValue> params;
params.push_back( nameParam);
VJSValue module( inContext);
if (object.CallMemberFunction( L"require", ¶ms, &module, &exception))
{
if (!module.IsUndefined() && !module.IsNull())
{
VJSObject moduleObject( inContext);
module.GetObject( moduleObject);
if (!moduleObject.CallMemberFunction( fFunctionName, inParameters, outResult, &exception))
{
JS4D::ThrowVErrorForException( inContext, exception);
err = VE_RIA_JS_CALL_TO_FUNCTION_FAILED;
}
}
else
{
err = VE_RIA_JS_CALL_TO_REQUIRE_FAILED;
}
}
else
{
JS4D::ThrowVErrorForException( inContext, exception);
err = VE_RIA_JS_CALL_TO_REQUIRE_FAILED;
}
return err;
}
void accel_update(Accel& accel , double vref, double mass){
float x1=0.0,y1=0.0;
double v[3], angle[3];
//read accelerometer
adxl.readG(&v[X],&v[Y],&v[Z]);
double r=module((v[X]),(v[Y]),(v[Z]));
// rotate XYZ to fit G
angle[X]=alpha((v[X]),r)+offset[X];
angle[Y]=alpha((v[Y]),r)+offset[Y];
angle[Z]=alpha((v[Z]),r)+offset[Z];
// get the new projected vectors[x,y,z] after rotation and
// compute the force F[N]=m*accel
accel.force[X]=aalpha(angle[X]+ORTHOGONAL,r) * 9.81 * mass ;
accel.force[Y]=aalpha(angle[Y]+ORTHOGONAL,r) * 9.81 * mass ;
accel.force[Z]=aalpha(angle[Z],r) * 9.81 * mass ;
// low-freq force on X
accel.filtered_forward_force=0.2*accel.force[X]+0.8*accel.filtered_forward_force;
//
// remove high freq for pedelec A,B
float pedelec=highpass(accel.force[X],x1,y1,0.2,0.14);
if (pedelec>0.0)
accel.pedelec_a= 0.6*pedelec + 0.4*accel.pedelec_a;
else
accel.pedelec_b= 0.6*pedelec + 0.4*accel.pedelec_b;
//rotate to the initial position
if (offset[Z]==0.0 && offset[X]==ORTHOGONAL){
offset[X]=offset[X]-accel.force[X];
offset[Y]=offset[Y]-accel.force[Y];
offset[Z]=offset[Z]-accel.force[Z];
}
}
void Particle::update(float dt, glm::vec2 mpos) {
if (REPULSION) {
if (pos.x != mpos.x and pos.y != mpos.y) {
float dist = module(pos.x-mpos.x, pos.y-mpos.y);
glm::vec2 uvect = glm::vec2(pos.x-mpos.x, pos.y-mpos.y)/dist;
glm::vec2 force = uvect / (dist*dist);
vel += force*dt;
//if (module(vel) > maxVel) vel = uvect * maxVel;
}
}
if (GRAVITY) {
vel.y -= dt*5;
}
pos += vel*dt;
if (pos.x < -1) {
vel.x *= -1;
pos.x = -1 + (-1 -pos.x);
}
else if (pos.x > 1) {
vel.x *= -1;
pos.x = 1 - (pos.x -1);
}
if (pos.y < -1) {
vel.y *= -0.9;
pos.y = -1 + (-1 -pos.y);
}
else if (pos.y > 1) {
vel.y *= -1;
pos.y = 1 - (pos.y -1);
}
//LIFE UPDATE
life = std::max(0.0f, life-dt);
}
TEST_F(TestModule, basic)
{
ib_module_t ib_module;
ib_module.ib = m_engine.ib();
IronBee::Module module(&ib_module);
ASSERT_EQ(&ib_module, module.ib());
ASSERT_EQ(m_engine, module.engine());
ib_module.vernum = 1;
ib_module.abinum = 2;
ib_module.version = "hello";
ib_module.filename = "foobar";
ib_module.idx = 3;
ib_module.name = "IAmModule";
ASSERT_EQ(ib_module.vernum, module.version_number());
ASSERT_EQ(ib_module.abinum, module.abi_number());
ASSERT_EQ(ib_module.version, module.version());
ASSERT_EQ(ib_module.filename, module.filename());
ASSERT_EQ(ib_module.idx, module.index());
ASSERT_EQ(ib_module.name, module.name());
}
/* called by a module when it wants to alter the number of its
* outputs. Also used to test for chain validity when inserting /
* removing modules */
bool
Chain::can_configure_outputs ( Module *m, int n ) const
{
/* start at the requesting module */
int outs = n;
int i = modules_pack->find( m );
if ( modules() - 1 == i )
/* last module */
return true;
for ( i++ ; i < modules(); ++i )
{
outs = module( i )->can_support_inputs( outs );
if ( outs < 0 )
return false;
}
return true;
}
void BtBookshelfDockWidget::slotItemActionTriggered(QAction *action) {
CSwordModuleInfo *module((CSwordModuleInfo*) m_itemContextMenu->property("BtModule").value<void*>());
if (module == 0) return;
if (action == m_itemOpenAction) {
emit moduleOpenTriggered(module);
}
else if (action == m_itemSearchAction) {
emit moduleSearchTriggered(module);
}
else if (action == m_itemEditPlainAction) {
emit moduleEditPlainTriggered(module);
}
else if (action == m_itemEditHtmlAction) {
emit moduleEditHtmlTriggered(module);
}
else if (action == m_itemUnlockAction) {
emit moduleUnlockTriggered(module);
}
else if (action == m_itemAboutAction) {
emit moduleAboutTriggered(module);
}
}
/** Returns true if his module has the text of desired type of testament */
bool CSwordBibleModuleInfo::hasTestament( CSwordBibleModuleInfo::Testament type ) {
if (m_hasOT == -1 || m_hasNT == -1) {
const bool oldStatus = module()->getSkipConsecutiveLinks();
module()->setSkipConsecutiveLinks(true);
*module() = sword::TOP; //position to first entry
sword::VerseKey key( module()->KeyText() );
if (key.Testament() == 1) { // OT && NT
m_hasOT = 1;
}
else if (key.Testament() == 2) { //no OT
m_hasOT = 0;
}
*module() = sword::BOTTOM;
key = module()->KeyText();
if (key.Testament() == 1) { // only OT, no NT
m_hasNT = 0;
}
else if (key.Testament() == 2) { //has NT
m_hasNT = 1;
}
module()->setSkipConsecutiveLinks(oldStatus);
}
switch (type) {
case OldTestament:
return m_hasOT>0;
case NewTestament:
return m_hasNT>0;
default:
return false;
}
}
void KotOREngine::mainMenuLoop() {
playMenuMusic();
Console console;
Module module(console);
console.setModule(&module);
while (!EventMan.quitRequested()) {
GUI *mainMenu = new MainMenu(module, _platform == Aurora::kPlatformXbox);
EventMan.flushEvents();
mainMenu->show();
mainMenu->run();
mainMenu->hide();
delete mainMenu;
if (EventMan.quitRequested())
break;
stopMenuMusic();
module.run();
if (EventMan.quitRequested())
break;
playMenuMusic();
console.hide();
module.clear();
}
console.setModule();
stopMenuMusic();
}
/** Returns the current book as Text, not as integer. */
QString CSwordVerseKey::book( const QString& newBook ) {
int min = 0;
int max = 1;
if (CSwordBibleModuleInfo* bible = dynamic_cast<CSwordBibleModuleInfo*>(module())) {
const bool hasOT = bible->hasTestament(CSwordBibleModuleInfo::OldTestament);
const bool hasNT = bible->hasTestament(CSwordBibleModuleInfo::NewTestament);
if (hasOT && hasNT) {
min = 0;
max = 1;
}
else if (hasOT && !hasNT) {
min = 0;
max = 0;
}
else if (!hasOT && hasNT) {
min = 1;
max = 1;
}
else if (!hasOT && !hasNT) {
min = 0;
max = -1; //no loop
}
}
if (!newBook.isEmpty()) {
setBookName(newBook.toUtf8().constData());
}
if ( (Testament() >= min + 1) && (Testament() <= max + 1) && (Book() <= BMAX[min]) ) {
return QString::fromUtf8( getBookName() );
}
//return QString::fromUtf8( books[min][0].name ); //return the first book, i.e. Genesis
return QString::null;
}
void Trajectory::getPositioVelocity(float time, vec &position, vec &velocity)
{
if (time > _currentEndTime)
{
_currentInitCheckpoint++;
_currentInitTime = _currentEndTime;
}
time -= _currentInitTime;
vec start = *_currentInitCheckpoint;
list<vec>::iterator temp = next(_currentInitCheckpoint,1);
vec end = *temp;
float mod = module(start, end);
float m = (end[1]-start[1])/(end[0]-start[0]);
float theta_d = atan(m);
//Traiettoria tra due punti
position[0] = start[0] + (_velocity * time) / mod * (end[0]- start[0]);
position[1] = start[1] + (_velocity * time) / mod * (end[1]- start[1]);
_robotPosition = position;
//X and y velocity beetwen the two point
velocity[0] = _velocity * cos(theta_d);
velocity[1] = _velocity * sin(theta_d);
if (time > _currentEndTime)
_currentEndTime = _velocity * mod;
}
void EmacsPythonCallCommand::executeCommandImpl()
{
try
{
Py::Module module( "__main__" );
Py::Dict dict( module.getDict() );
//
// create the tuple of arguments
//
Py::Tuple args_tuple( num_args );
for( int arg=0; arg < num_args; arg++ )
{
args_tuple[ arg ] = convertEmacsExpressionToPyObject( python_args[arg] );
}
dict[ "__bemacs_call_args__" ] = args_tuple;
EmacsString command( FormatString
(
"__bemacs_eval_tmp__ = apply( %s, __bemacs_call_args__ )\n"
) << python_function );
runPythonStringInsideTryExcept( command );
if( !failed() )
{
Py::Object py_result( dict[ "__bemacs_eval_tmp__" ] );
commandSucceeded( convertPyObjectToEmacsExpression( py_result ) );
}
}
catch( Py::Exception &e )
{
e.clear();
}
}
// Delete a PKCS11 module from the user's profile.
NS_IMETHODIMP
nsPkcs11::DeleteModule(const nsAString& aModuleName)
{
nsNSSShutDownPreventionLock locker;
if (isAlreadyShutDown()) {
return NS_ERROR_NOT_AVAILABLE;
}
if (aModuleName.IsEmpty()) {
return NS_ERROR_INVALID_ARG;
}
NS_ConvertUTF16toUTF8 moduleName(aModuleName);
// Introduce additional scope for module so all references to it are released
// before we call SECMOD_DeleteModule, below.
#ifndef MOZ_NO_SMART_CARDS
{
mozilla::UniqueSECMODModule module(SECMOD_FindModule(moduleName.get()));
if (!module) {
return NS_ERROR_FAILURE;
}
nsCOMPtr<nsINSSComponent> nssComponent(
do_GetService(PSM_COMPONENT_CONTRACTID));
nssComponent->ShutdownSmartCardThread(module.get());
}
#endif
// modType is an output variable. We ignore it.
int32_t modType;
SECStatus srv = SECMOD_DeleteModule(moduleName.get(), &modType);
if (srv != SECSuccess) {
return NS_ERROR_FAILURE;
}
return NS_OK;
}
/*===========================================================================*/
bool VisualizationPipeline::create_renderer_module( const kvs::ObjectBase* object )
{
switch ( object->objectType() )
{
case kvs::ObjectBase::Geometry:
{
return this->create_renderer_module( kvs::GeometryObjectBase::DownCast( object ) );
}
case kvs::ObjectBase::Volume:
{
return this->create_renderer_module( kvs::VolumeObjectBase::DownCast( object ) );
}
case kvs::ObjectBase::Image:
{
kvs::PipelineModule module( new kvs::ImageRenderer );
m_module_list.push_back( module );
return true;
}
default:
break;
}
return false;
}
interpreter_t::interpreter_t()
{
PyImport_AppendInittab(( char *) "_ramen", &init_ramen);
Py_Initialize();
bpy::object main_module( bpy::handle<>( bpy::borrowed( PyImport_AddModule( "__main__"))));
main_namespace_ = main_module.attr( "__dict__");
setup_python_paths( main_namespace_);
init_pyside();
// default import our module.
bpy::object module(( bpy::handle<>( PyImport_ImportModule( "ramen"))));
main_namespace_[ "ramen"] = module;
exec( "from ramen import *");
// execute startup files
bfs::path exec_path = app().system().executable_path();
bfs::path py_path = exec_path.parent_path() / "../python";
exec_file( py_path / "app/init.py");
exec_file( app().system().home_path() / "ramen/python/init.py");
}