Example #1
0
File: bus.cpp Project: speakman/qlc
QStringList Bus::idNames() const
{
	QStringList list;
	for (quint32 bus = 0; bus < KBusCount; bus++)
		list << idName(bus);
	return list;
}
Example #2
0
PassRefPtr<EncodedFormData> PasswordCredential::encodeFormData(
    String& contentType) const {
  if (m_additionalData.isURLSearchParams()) {
    // If |additionalData| is a 'URLSearchParams' object, build a urlencoded
    // response.
    URLSearchParams* params = URLSearchParams::create(URLSearchParamsInit());
    URLSearchParams* additionalData = m_additionalData.getAsURLSearchParams();
    for (const auto& param : additionalData->params()) {
      const String& name = param.first;
      if (name != idName() && name != passwordName())
        params->append(name, param.second);
    }
    params->append(idName(), id());
    params->append(passwordName(), password());

    contentType =
        AtomicString("application/x-www-form-urlencoded;charset=UTF-8");

    return params->toEncodedFormData();
  }

  // Otherwise, we'll build a multipart response.
  FormData* formData = FormData::create(nullptr);
  if (m_additionalData.isFormData()) {
    FormData* additionalData = m_additionalData.getAsFormData();
    for (const FormData::Entry* entry : additionalData->entries()) {
      const String& name = formData->decode(entry->name());
      if (name == idName() || name == passwordName())
        continue;

      if (entry->blob())
        formData->append(name, entry->blob(), entry->filename());
      else
        formData->append(name, formData->decode(entry->value()));
    }
  }
  formData->append(idName(), id());
  formData->append(passwordName(), password());

  RefPtr<EncodedFormData> encodedData = formData->encodeMultiPartFormData();
  contentType = AtomicString("multipart/form-data; boundary=") +
                encodedData->boundary().data();
  return encodedData.release();
}
int
txXMLParser::StartElement(const XML_Char *aName, const XML_Char **aAtts)
{
    nsCOMPtr<nsIAtom> prefix, localName;
    PRInt32 nsID;
    XMLUtils::splitExpatName(aName, getter_AddRefs(prefix),
                             getter_AddRefs(localName), &nsID);
    Element* newElement = mDocument->createElementNS(prefix, localName, nsID);
    if (!newElement) {
        return XML_ERROR_NO_MEMORY;
    }

    const XML_Char** theAtts = aAtts;
    while (*theAtts) {
        XMLUtils::splitExpatName(*theAtts++, getter_AddRefs(prefix),
                                 getter_AddRefs(localName), &nsID);
        nsDependentString attValue(*theAtts++);
        nsresult rv = newElement->appendAttributeNS(prefix, localName, nsID,
                                                    attValue);
        if (NS_FAILED(rv)) {
            return XML_ERROR_NO_MEMORY;
        }
    }

    int idx;
    if ((idx = XML_GetIdAttributeIndex(mExpatParser)) > -1) {
        nsDependentString idName((const PRUnichar*)*(aAtts + idx));
        nsDependentString idValue((const PRUnichar*)*(aAtts + idx + 1));
        // make sure IDs are unique
        if (!idValue.IsEmpty()) {
            mDocument->setElementID(idValue, newElement);
        }
    }
    mCurrentNode->appendChild(newElement);
    mCurrentNode = newElement;

    return XML_ERROR_NONE;
}
Example #4
0
int Bus_Test::qt_metacall(QMetaObject::Call _c, int _id, void **_a)
{
    _id = QObject::qt_metacall(_c, _id, _a);
    if (_id < 0)
        return _id;
    if (_c == QMetaObject::InvokeMetaMethod) {
        switch (_id) {
        case 0: initTestCase(); break;
        case 1: defaults(); break;
        case 2: value(); break;
        case 3: name(); break;
        case 4: idName(); break;
        case 5: tap(); break;
        case 6: loadWrongRoot(); break;
        case 7: load(); break;
        case 8: loadWrongID(); break;
        case 9: save(); break;
        case 10: cleanupTestCase(); break;
        default: ;
        }
        _id -= 11;
    }
    return _id;
}
Example #5
0
void CodeBlock::dump(ExecState* exec, const Vector<Instruction>::const_iterator& begin, Vector<Instruction>::const_iterator& it) const
{
    int location = it - begin;
    switch (exec->machine()->getOpcodeID(it->u.opcode)) {
        case op_load: {
            int r0 = (++it)->u.operand;
            int k0 = (++it)->u.operand;
            printf("[%4d] load\t\t %s, %s\t\t\n", location, registerName(r0).c_str(), constantName(exec, k0, jsValues[k0]).c_str());
            break;
        }
        case op_new_object: {
            int r0 = (++it)->u.operand;
            printf("[%4d] new_object\t %s\n", location, registerName(r0).c_str());
            break;
        }
        case op_new_array: {
            int dst = (++it)->u.operand;
            int argv = (++it)->u.operand;
            int argc = (++it)->u.operand;
            printf("[%4d] new_array\t %s, %s, %d\n", location, registerName(dst).c_str(), registerName(argv).c_str(), argc);
            break;
        }
        case op_new_regexp: {
            int r0 = (++it)->u.operand;
            int re0 = (++it)->u.operand;
            printf("[%4d] new_regexp\t %s, %s\n", location, registerName(r0).c_str(), regexpName(re0, regexps[re0].get()).c_str());
            break;
        }
        case op_mov: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            printf("[%4d] mov\t\t %s, %s\n", location, registerName(r0).c_str(), registerName(r1).c_str());
            break;
        }
        case op_not: {
            printUnaryOp(location, it, "not");
            break;
        }
        case op_eq: {
            printBinaryOp(location, it, "eq");
            break;
        }
        case op_neq: {
            printBinaryOp(location, it, "neq");
            break;
        }
        case op_stricteq: {
            printBinaryOp(location, it, "stricteq");
            break;
        }
        case op_nstricteq: {
            printBinaryOp(location, it, "nstricteq");
            break;
        }
        case op_less: {
            printBinaryOp(location, it, "less");
            break;
        }
        case op_lesseq: {
            printBinaryOp(location, it, "lesseq");
            break;
        }
        case op_pre_inc: {
            int r0 = (++it)->u.operand;
            printf("[%4d] pre_inc\t\t %s\n", location, registerName(r0).c_str());
            break;
        }
        case op_pre_dec: {
            int r0 = (++it)->u.operand;
            printf("[%4d] pre_dec\t\t %s\n", location, registerName(r0).c_str());
            break;
        }
        case op_post_inc: {
            printUnaryOp(location, it, "post_inc");
            break;
        }
        case op_post_dec: {
            printUnaryOp(location, it, "post_dec");
            break;
        }
        case op_to_jsnumber: {
            printUnaryOp(location, it, "to_jsnumber");
            break;
        }
        case op_negate: {
            printUnaryOp(location, it, "negate");
            break;
        }
        case op_add: {
            printBinaryOp(location, it, "add");
            break;
        }
        case op_mul: {
            printBinaryOp(location, it, "mul");
            break;
        }
        case op_div: {
            printBinaryOp(location, it, "div");
            break;
        }
        case op_mod: {
            printBinaryOp(location, it, "mod");
            break;
        }
        case op_sub: {
            printBinaryOp(location, it, "sub");
            break;
        }
        case op_lshift: {
            printBinaryOp(location, it, "lshift");
            break;            
        }
        case op_rshift: {
            printBinaryOp(location, it, "rshift");
            break;
        }
        case op_urshift: {
            printBinaryOp(location, it, "urshift");
            break;
        }
        case op_bitand: {
            printBinaryOp(location, it, "bitand");
            break;
        }
        case op_bitxor: {
            printBinaryOp(location, it, "bitxor");
            break;
        }
        case op_bitor: {
            printBinaryOp(location, it, "bitor");
            break;
        }
        case op_bitnot: {
            printUnaryOp(location, it, "bitnot");
            break;
        }
        case op_instanceof: {
            printBinaryOp(location, it, "instanceof");
            break;
        }
        case op_typeof: {
            printUnaryOp(location, it, "typeof");
            break;
        }
        case op_in: {
            printBinaryOp(location, it, "in");
            break;
        }
        case op_resolve: {
            int r0 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            printf("[%4d] resolve\t\t %s, %s\n", location, registerName(r0).c_str(), idName(id0, identifiers[id0]).c_str());
            break;
        }
        case op_resolve_skip: {
            int r0 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            int skipLevels = (++it)->u.operand;
            printf("[%4d] resolve_skip\t %s, %s, %d\n", location, registerName(r0).c_str(), idName(id0, identifiers[id0]).c_str(), skipLevels);
            break;
        }
        case op_get_scoped_var: {
            int r0 = (++it)->u.operand;
            int index = (++it)->u.operand;
            int skipLevels = (++it)->u.operand;
            printf("[%4d] get_scoped_var\t\t %s, %d, %d\n", location, registerName(r0).c_str(), index, skipLevels);
            break;
        }
        case op_put_scoped_var: {
            int index = (++it)->u.operand;
            int skipLevels = (++it)->u.operand;
            int r0 = (++it)->u.operand;
            printf("[%4d] put_scoped_var\t\t %d, %d, %s\n", location, index, skipLevels, registerName(r0).c_str());
            break;
        }
        case op_resolve_base: {
            int r0 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            printf("[%4d] resolve_base\t %s, %s\n", location, registerName(r0).c_str(), idName(id0, identifiers[id0]).c_str());
            break;
        }
        case op_resolve_with_base: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            printf("[%4d] resolve_with_base %s, %s, %s\n", location, registerName(r0).c_str(), registerName(r1).c_str(), idName(id0, identifiers[id0]).c_str());
            break;
        }
        case op_resolve_func: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            printf("[%4d] resolve_func\t %s, %s, %s\n", location, registerName(r0).c_str(), registerName(r1).c_str(), idName(id0, identifiers[id0]).c_str());
            break;
        }
        case op_get_by_id: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            printf("[%4d] get_by_id\t %s, %s, %s\n", location, registerName(r0).c_str(), registerName(r1).c_str(), idName(id0, identifiers[id0]).c_str());
            break;
        }
        case op_put_by_id: {
            int r0 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            printf("[%4d] put_by_id\t %s, %s, %s\n", location, registerName(r0).c_str(), idName(id0, identifiers[id0]).c_str(), registerName(r1).c_str());
            break;
        }
        case op_put_getter: {
            int r0 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            printf("[%4d] put_getter\t %s, %s, %s\n", location, registerName(r0).c_str(), idName(id0, identifiers[id0]).c_str(), registerName(r1).c_str());
            break;
        }
        case op_put_setter: {
            int r0 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            printf("[%4d] put_setter\t %s, %s, %s\n", location, registerName(r0).c_str(), idName(id0, identifiers[id0]).c_str(), registerName(r1).c_str());
            break;
        }
        case op_del_by_id: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int id0 = (++it)->u.operand;
            printf("[%4d] del_by_id\t %s, %s, %s\n", location, registerName(r0).c_str(), registerName(r1).c_str(), idName(id0, identifiers[id0]).c_str());
            break;
        }
        case op_get_by_val: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int r2 = (++it)->u.operand;
            printf("[%4d] get_by_val\t %s, %s, %s\n", location, registerName(r0).c_str(), registerName(r1).c_str(), registerName(r2).c_str());
            break;
        }
        case op_put_by_val: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int r2 = (++it)->u.operand;
            printf("[%4d] put_by_val\t %s, %s, %s\n", location, registerName(r0).c_str(), registerName(r1).c_str(), registerName(r2).c_str());
            break;
        }
        case op_del_by_val: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int r2 = (++it)->u.operand;
            printf("[%4d] del_by_val\t %s, %s, %s\n", location, registerName(r0).c_str(), registerName(r1).c_str(), registerName(r2).c_str());
            break;
        }
        case op_put_by_index: {
            int r0 = (++it)->u.operand;
            unsigned n0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            printf("[%4d] put_by_index\t %s, %u, %s\n", location, registerName(r0).c_str(), n0, registerName(r1).c_str());
            break;
        }
        case op_jmp: {
            int offset = (++it)->u.operand;
            printf("[%4d] jmp\t\t %d(->%d)\n", location, offset, jumpTarget(begin, it, offset));
            break;
        }
        case op_loop: {
            int offset = (++it)->u.operand;
            printf("[%4d] loop\t\t %d(->%d)\n", location, offset, jumpTarget(begin, it, offset));
            break;
        }
        case op_jtrue: {
            printConditionalJump(begin, it, location, "jtrue");
            break;
        }
        case op_loop_if_true: {
            printConditionalJump(begin, it, location, "loop_if_true");
            break;
        }
        case op_jfalse: {
            printConditionalJump(begin, it, location, "jfalse");
            break;
        }
        case op_jless: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int offset = (++it)->u.operand;
            printf("[%4d] jless\t\t %s, %s, %d(->%d)\n", location, registerName(r0).c_str(), registerName(r1).c_str(), offset, jumpTarget(begin, it, offset));
            break;
        }
        case op_jnless: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int offset = (++it)->u.operand;
            printf("[%4d] jnless\t\t %s, %s, %d(->%d)\n", location, registerName(r0).c_str(), registerName(r1).c_str(), offset, jumpTarget(begin, it, offset));
            break;
        }
        case op_loop_if_less: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int offset = (++it)->u.operand;
            printf("[%4d] loop_if_less %s, %s, %d(->%d)\n", location, registerName(r0).c_str(), registerName(r1).c_str(), offset, jumpTarget(begin, it, offset));
            break;
        }
        case op_new_func: {
            int r0 = (++it)->u.operand;
            int f0 = (++it)->u.operand;
            printf("[%4d] new_func\t\t %s, f%d\n", location, registerName(r0).c_str(), f0);
            break;
        }
        case op_new_func_exp: {
            int r0 = (++it)->u.operand;
            int f0 = (++it)->u.operand;
            printf("[%4d] new_func_exp\t %s, f%d\n", location, registerName(r0).c_str(), f0);
            break;
        }
        case op_call: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int r2 = (++it)->u.operand;
            int tempCount = (++it)->u.operand;
            int argCount = (++it)->u.operand;
            printf("[%4d] call\t\t %s, %s, %s, %d, %d\n", location, registerName(r0).c_str(), registerName(r1).c_str(), registerName(r2).c_str(), tempCount, argCount);
            break;
        }
        case op_call_eval: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int r2 = (++it)->u.operand;
            int tempCount = (++it)->u.operand;
            int argCount = (++it)->u.operand;
            printf("[%4d] call_eval\t\t %s, %s, %s, %d, %d\n", location, registerName(r0).c_str(), registerName(r1).c_str(), registerName(r2).c_str(), tempCount, argCount);
            break;
        }
        case op_ret: {
            int r0 = (++it)->u.operand;
            printf("[%4d] ret\t\t %s\n", location, registerName(r0).c_str());
            break;
        }
        case op_construct: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            int tempCount = (++it)->u.operand;
            int argCount = (++it)->u.operand;
            printf("[%4d] construct\t %s, %s, %d, %d\n", location, registerName(r0).c_str(), registerName(r1).c_str(), tempCount, argCount);
            break;
        }
        case op_get_pnames: {
            int r0 = (++it)->u.operand;
            int r1 = (++it)->u.operand;
            printf("[%4d] get_pnames\t %s, %s\n", location, registerName(r0).c_str(), registerName(r1).c_str());
            break;
        }
        case op_next_pname: {
            int dest = (++it)->u.operand;
            int iter = (++it)->u.operand;
            int offset = (++it)->u.operand;
            printf("[%4d] next_pname\t %s, %s, %d(->%d)\n", location, registerName(dest).c_str(), registerName(iter).c_str(), offset, jumpTarget(begin, it, offset));
            break;
        }
        case op_push_scope: {
            int r0 = (++it)->u.operand;
            printf("[%4d] push_scope\t %s\n", location, registerName(r0).c_str());
            break;
        }
        case op_pop_scope: {
            printf("[%4d] pop_scope\n", location);
            break;
        }
        case op_jmp_scopes: {
            int scopeDelta = (++it)->u.operand;
            int offset = (++it)->u.operand;
            printf("[%4d] jmp_scopes\t^%d, %d(->%d)\n", location, scopeDelta, offset, jumpTarget(begin, it, offset));
            break;
        }
        case op_catch: {
            int r0 = (++it)->u.operand;
            printf("[%4d] catch\t\t %s\n", location, registerName(r0).c_str());
            break;
        }
        case op_throw: {
            int r0 = (++it)->u.operand;
            printf("[%4d] throw\t\t %s\n", location, registerName(r0).c_str());
            break;
        }
        case op_new_error: {
            int r0 = (++it)->u.operand;
            int errorType = (++it)->u.operand;
            int k0 = (++it)->u.operand;
            printf("[%4d] new_error\t %s, %d, %s\n", location, registerName(r0).c_str(), errorType, constantName(exec, k0, jsValues[k0]).c_str());
            break;
        }
        case op_jsr: {
            int retAddrDst = (++it)->u.operand;
            int offset = (++it)->u.operand;
            printf("[%4d] jsr\t\t %s, %d(->%d)\n", location, registerName(retAddrDst).c_str(), offset, jumpTarget(begin, it, offset));
            break;
        }
        case op_sret: {
            int retAddrSrc = (++it)->u.operand;
            printf("[%4d] sret\t\t %s\n", location, registerName(retAddrSrc).c_str());
            break;
        }
        case op_debug: {
            int debugHookID = (++it)->u.operand;
            int firstLine = (++it)->u.operand;
            int lastLine = (++it)->u.operand;
            printf("[%4d] debug\t\t %s, %d, %d\n", location, debugHookName(debugHookID), firstLine, lastLine);
            break;
        }
        case op_end: {
            int r0 = (++it)->u.operand;
            printf("[%4d] end\t\t %s\n", location, registerName(r0).c_str());
            break;
        }
        default: {
            ASSERT_NOT_REACHED();
            break;
        }
    }
}
Example #6
0
void PaneSubWidget::addWidget(QWidget *newWidget, const PanePosition Pos)
{
    if(qobject_cast<PaneSubWidget*>(newWidget)){
        qDebug() << "current wid: "<< qobject_cast<PaneSubWidget*>(newWidget)->idName() << " from parent "<< idName();
        qDebug() << "ask for position "<<Pos;
    }

    // how is your dady?
    newWidget->setParent(this);
    // try to interpret the widget as PaneSubWidget
    PaneSubWidget *paneWidget = qobject_cast<PaneSubWidget*>(newWidget);
    // unfortunetaly I cannot override the "windowTitle" method, so use the cast-result
    QString winTitle= (!paneWidget) ? newWidget->windowTitle() : paneWidget->windowTitle();

    // place widget at correct position
    switch(Pos)
    {
    default:
        qDebug() << Pos;
        qErrnoWarning("not implemented yet");
        break;
    case TabIn:
    {
        // this is easy just add a Tab
        int idx;
        idx = addTab(newWidget,winTitle);
        if(paneWidget)
        {
            // if widget is a PaneSubWidget --> create connections
            connect(paneWidget,SIGNAL(clickPane(QWidget*)),this,SLOT(onClickSubPane(QWidget*)));
            connect(paneWidget,SIGNAL(dragPane(CurrentWidget)),this,SLOT(onDragSubPane(CurrentWidget)));
            connect(paneWidget,SIGNAL(movePane(bool)),this,SLOT(onMoveSubPane(bool)));
            connect(paneWidget,SIGNAL(releasePane()),this,SLOT(onReleaseSubPane()));
        }
        setCurrentIndex(idx);
        break;
    }

    case RightOut:
    {
        // the new widget should be placed left of "this"
        // ----------------------------------------------
        // get parent panesub-object

        QWidget* parent = findGoodParent(this);

        if(qobject_cast<PaneSubWidget*>(parent)){
            // next interesting parent is PaneSubWidget --> use that
            PaneSubWidget* parentPane =  findParentOfType<PaneSubWidget*>(this);
            QWidget* find = parentPane->currentWidget();
            QSplitter *replace = createSplitter(this,newWidget,parentPane);

            parentPane->replaceTab(find,replace);
        }
        if(qobject_cast<QSplitter*>(parent)){
            // TODO :: QSplitter --> PaneSplitter for easier removing
        }
        break;
    }
    }
}