#include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include "gen_qudpsocket.h" #include "_cgo_export.h" class MiqtVirtualQUdpSocket : public virtual QUdpSocket { public: MiqtVirtualQUdpSocket(): QUdpSocket() {}; MiqtVirtualQUdpSocket(QObject* parent): QUdpSocket(parent) {}; virtual ~MiqtVirtualQUdpSocket() = default; // cgo.Handle value for overwritten implementation intptr_t handle__Resume = 0; // Subclass to allow providing a Go implementation virtual void resume() override { if (handle__Resume == 0) { QUdpSocket::resume(); return; } miqt_exec_callback_QUdpSocket_Resume(this, handle__Resume); } // Wrapper to allow calling protected method void virtualbase_Resume() { QUdpSocket::resume(); } // cgo.Handle value for overwritten implementation intptr_t handle__Bind = 0; // Subclass to allow providing a Go implementation virtual bool bind(const QHostAddress& address, quint16 port, QAbstractSocket::BindMode mode) override { if (handle__Bind == 0) { return QUdpSocket::bind(address, port, mode); } const QHostAddress& address_ret = address; // Cast returned reference into pointer QHostAddress* sigval1 = const_cast(&address_ret); quint16 port_ret = port; uint16_t sigval2 = static_cast(port_ret); QAbstractSocket::BindMode mode_ret = mode; int sigval3 = static_cast(mode_ret); bool callback_return_value = miqt_exec_callback_QUdpSocket_Bind(this, handle__Bind, sigval1, sigval2, sigval3); return callback_return_value; } // Wrapper to allow calling protected method bool virtualbase_Bind(QHostAddress* address, uint16_t port, int mode) { return QUdpSocket::bind(*address, static_cast(port), static_cast(mode)); } // cgo.Handle value for overwritten implementation intptr_t handle__ConnectToHost = 0; // Subclass to allow providing a Go implementation virtual void connectToHost(const QString& hostName, quint16 port, QIODeviceBase::OpenMode mode, QAbstractSocket::NetworkLayerProtocol protocol) override { if (handle__ConnectToHost == 0) { QUdpSocket::connectToHost(hostName, port, mode, protocol); return; } const QString hostName_ret = hostName; // Convert QString from UTF-16 in C++ RAII memory to UTF-8 in manually-managed C memory QByteArray hostName_b = hostName_ret.toUtf8(); struct miqt_string hostName_ms; hostName_ms.len = hostName_b.length(); hostName_ms.data = static_cast(malloc(hostName_ms.len)); memcpy(hostName_ms.data, hostName_b.data(), hostName_ms.len); struct miqt_string sigval1 = hostName_ms; quint16 port_ret = port; uint16_t sigval2 = static_cast(port_ret); QIODeviceBase::OpenMode mode_ret = mode; int sigval3 = static_cast(mode_ret); QAbstractSocket::NetworkLayerProtocol protocol_ret = protocol; int sigval4 = static_cast(protocol_ret); miqt_exec_callback_QUdpSocket_ConnectToHost(this, handle__ConnectToHost, sigval1, sigval2, sigval3, sigval4); } // Wrapper to allow calling protected method void virtualbase_ConnectToHost(struct miqt_string hostName, uint16_t port, int mode, int protocol) { QString hostName_QString = QString::fromUtf8(hostName.data, hostName.len); QUdpSocket::connectToHost(hostName_QString, static_cast(port), static_cast(mode), static_cast(protocol)); } // cgo.Handle value for overwritten implementation intptr_t handle__DisconnectFromHost = 0; // Subclass to allow providing a Go implementation virtual void disconnectFromHost() override { if (handle__DisconnectFromHost == 0) { QUdpSocket::disconnectFromHost(); return; } miqt_exec_callback_QUdpSocket_DisconnectFromHost(this, handle__DisconnectFromHost); } // Wrapper to allow calling protected method void virtualbase_DisconnectFromHost() { QUdpSocket::disconnectFromHost(); } // cgo.Handle value for overwritten implementation intptr_t handle__BytesAvailable = 0; // Subclass to allow providing a Go implementation virtual qint64 bytesAvailable() const override { if (handle__BytesAvailable == 0) { return QUdpSocket::bytesAvailable(); } long long callback_return_value = miqt_exec_callback_QUdpSocket_BytesAvailable(const_cast(this), handle__BytesAvailable); return static_cast(callback_return_value); } // Wrapper to allow calling protected method long long virtualbase_BytesAvailable() const { qint64 _ret = QUdpSocket::bytesAvailable(); return static_cast(_ret); } // cgo.Handle value for overwritten implementation intptr_t handle__BytesToWrite = 0; // Subclass to allow providing a Go implementation virtual qint64 bytesToWrite() const override { if (handle__BytesToWrite == 0) { return QUdpSocket::bytesToWrite(); } long long callback_return_value = miqt_exec_callback_QUdpSocket_BytesToWrite(const_cast(this), handle__BytesToWrite); return static_cast(callback_return_value); } // Wrapper to allow calling protected method long long virtualbase_BytesToWrite() const { qint64 _ret = QUdpSocket::bytesToWrite(); return static_cast(_ret); } // cgo.Handle value for overwritten implementation intptr_t handle__SetReadBufferSize = 0; // Subclass to allow providing a Go implementation virtual void setReadBufferSize(qint64 size) override { if (handle__SetReadBufferSize == 0) { QUdpSocket::setReadBufferSize(size); return; } qint64 size_ret = size; long long sigval1 = static_cast(size_ret); miqt_exec_callback_QUdpSocket_SetReadBufferSize(this, handle__SetReadBufferSize, sigval1); } // Wrapper to allow calling protected method void virtualbase_SetReadBufferSize(long long size) { QUdpSocket::setReadBufferSize(static_cast(size)); } // cgo.Handle value for overwritten implementation intptr_t handle__SocketDescriptor = 0; // Subclass to allow providing a Go implementation virtual qintptr socketDescriptor() const override { if (handle__SocketDescriptor == 0) { return QUdpSocket::socketDescriptor(); } intptr_t callback_return_value = miqt_exec_callback_QUdpSocket_SocketDescriptor(const_cast(this), handle__SocketDescriptor); return (qintptr)(callback_return_value); } // Wrapper to allow calling protected method intptr_t virtualbase_SocketDescriptor() const { qintptr _ret = QUdpSocket::socketDescriptor(); return static_cast(_ret); } // cgo.Handle value for overwritten implementation intptr_t handle__SetSocketDescriptor = 0; // Subclass to allow providing a Go implementation virtual bool setSocketDescriptor(qintptr socketDescriptor, QAbstractSocket::SocketState state, QIODeviceBase::OpenMode openMode) override { if (handle__SetSocketDescriptor == 0) { return QUdpSocket::setSocketDescriptor(socketDescriptor, state, openMode); } qintptr socketDescriptor_ret = socketDescriptor; intptr_t sigval1 = static_cast(socketDescriptor_ret); QAbstractSocket::SocketState state_ret = state; int sigval2 = static_cast(state_ret); QIODeviceBase::OpenMode openMode_ret = openMode; int sigval3 = static_cast(openMode_ret); bool callback_return_value = miqt_exec_callback_QUdpSocket_SetSocketDescriptor(this, handle__SetSocketDescriptor, sigval1, sigval2, sigval3); return callback_return_value; } // Wrapper to allow calling protected method bool virtualbase_SetSocketDescriptor(intptr_t socketDescriptor, int state, int openMode) { return QUdpSocket::setSocketDescriptor((qintptr)(socketDescriptor), static_cast(state), static_cast(openMode)); } // cgo.Handle value for overwritten implementation intptr_t handle__SetSocketOption = 0; // Subclass to allow providing a Go implementation virtual void setSocketOption(QAbstractSocket::SocketOption option, const QVariant& value) override { if (handle__SetSocketOption == 0) { QUdpSocket::setSocketOption(option, value); return; } QAbstractSocket::SocketOption option_ret = option; int sigval1 = static_cast(option_ret); const QVariant& value_ret = value; // Cast returned reference into pointer QVariant* sigval2 = const_cast(&value_ret); miqt_exec_callback_QUdpSocket_SetSocketOption(this, handle__SetSocketOption, sigval1, sigval2); } // Wrapper to allow calling protected method void virtualbase_SetSocketOption(int option, QVariant* value) { QUdpSocket::setSocketOption(static_cast(option), *value); } // cgo.Handle value for overwritten implementation intptr_t handle__SocketOption = 0; // Subclass to allow providing a Go implementation virtual QVariant socketOption(QAbstractSocket::SocketOption option) override { if (handle__SocketOption == 0) { return QUdpSocket::socketOption(option); } QAbstractSocket::SocketOption option_ret = option; int sigval1 = static_cast(option_ret); QVariant* callback_return_value = miqt_exec_callback_QUdpSocket_SocketOption(this, handle__SocketOption, sigval1); return *callback_return_value; } // Wrapper to allow calling protected method QVariant* virtualbase_SocketOption(int option) { return new QVariant(QUdpSocket::socketOption(static_cast(option))); } // cgo.Handle value for overwritten implementation intptr_t handle__Close = 0; // Subclass to allow providing a Go implementation virtual void close() override { if (handle__Close == 0) { QUdpSocket::close(); return; } miqt_exec_callback_QUdpSocket_Close(this, handle__Close); } // Wrapper to allow calling protected method void virtualbase_Close() { QUdpSocket::close(); } // cgo.Handle value for overwritten implementation intptr_t handle__IsSequential = 0; // Subclass to allow providing a Go implementation virtual bool isSequential() const override { if (handle__IsSequential == 0) { return QUdpSocket::isSequential(); } bool callback_return_value = miqt_exec_callback_QUdpSocket_IsSequential(const_cast(this), handle__IsSequential); return callback_return_value; } // Wrapper to allow calling protected method bool virtualbase_IsSequential() const { return QUdpSocket::isSequential(); } // cgo.Handle value for overwritten implementation intptr_t handle__WaitForConnected = 0; // Subclass to allow providing a Go implementation virtual bool waitForConnected(int msecs) override { if (handle__WaitForConnected == 0) { return QUdpSocket::waitForConnected(msecs); } int sigval1 = msecs; bool callback_return_value = miqt_exec_callback_QUdpSocket_WaitForConnected(this, handle__WaitForConnected, sigval1); return callback_return_value; } // Wrapper to allow calling protected method bool virtualbase_WaitForConnected(int msecs) { return QUdpSocket::waitForConnected(static_cast(msecs)); } // cgo.Handle value for overwritten implementation intptr_t handle__WaitForReadyRead = 0; // Subclass to allow providing a Go implementation virtual bool waitForReadyRead(int msecs) override { if (handle__WaitForReadyRead == 0) { return QUdpSocket::waitForReadyRead(msecs); } int sigval1 = msecs; bool callback_return_value = miqt_exec_callback_QUdpSocket_WaitForReadyRead(this, handle__WaitForReadyRead, sigval1); return callback_return_value; } // Wrapper to allow calling protected method bool virtualbase_WaitForReadyRead(int msecs) { return QUdpSocket::waitForReadyRead(static_cast(msecs)); } // cgo.Handle value for overwritten implementation intptr_t handle__WaitForBytesWritten = 0; // Subclass to allow providing a Go implementation virtual bool waitForBytesWritten(int msecs) override { if (handle__WaitForBytesWritten == 0) { return QUdpSocket::waitForBytesWritten(msecs); } int sigval1 = msecs; bool callback_return_value = miqt_exec_callback_QUdpSocket_WaitForBytesWritten(this, handle__WaitForBytesWritten, sigval1); return callback_return_value; } // Wrapper to allow calling protected method bool virtualbase_WaitForBytesWritten(int msecs) { return QUdpSocket::waitForBytesWritten(static_cast(msecs)); } // cgo.Handle value for overwritten implementation intptr_t handle__WaitForDisconnected = 0; // Subclass to allow providing a Go implementation virtual bool waitForDisconnected(int msecs) override { if (handle__WaitForDisconnected == 0) { return QUdpSocket::waitForDisconnected(msecs); } int sigval1 = msecs; bool callback_return_value = miqt_exec_callback_QUdpSocket_WaitForDisconnected(this, handle__WaitForDisconnected, sigval1); return callback_return_value; } // Wrapper to allow calling protected method bool virtualbase_WaitForDisconnected(int msecs) { return QUdpSocket::waitForDisconnected(static_cast(msecs)); } // cgo.Handle value for overwritten implementation intptr_t handle__ReadData = 0; // Subclass to allow providing a Go implementation virtual qint64 readData(char* data, qint64 maxlen) override { if (handle__ReadData == 0) { return QUdpSocket::readData(data, maxlen); } char* sigval1 = data; qint64 maxlen_ret = maxlen; long long sigval2 = static_cast(maxlen_ret); long long callback_return_value = miqt_exec_callback_QUdpSocket_ReadData(this, handle__ReadData, sigval1, sigval2); return static_cast(callback_return_value); } // Wrapper to allow calling protected method long long virtualbase_ReadData(char* data, long long maxlen) { qint64 _ret = QUdpSocket::readData(data, static_cast(maxlen)); return static_cast(_ret); } // cgo.Handle value for overwritten implementation intptr_t handle__ReadLineData = 0; // Subclass to allow providing a Go implementation virtual qint64 readLineData(char* data, qint64 maxlen) override { if (handle__ReadLineData == 0) { return QUdpSocket::readLineData(data, maxlen); } char* sigval1 = data; qint64 maxlen_ret = maxlen; long long sigval2 = static_cast(maxlen_ret); long long callback_return_value = miqt_exec_callback_QUdpSocket_ReadLineData(this, handle__ReadLineData, sigval1, sigval2); return static_cast(callback_return_value); } // Wrapper to allow calling protected method long long virtualbase_ReadLineData(char* data, long long maxlen) { qint64 _ret = QUdpSocket::readLineData(data, static_cast(maxlen)); return static_cast(_ret); } // cgo.Handle value for overwritten implementation intptr_t handle__SkipData = 0; // Subclass to allow providing a Go implementation virtual qint64 skipData(qint64 maxSize) override { if (handle__SkipData == 0) { return QUdpSocket::skipData(maxSize); } qint64 maxSize_ret = maxSize; long long sigval1 = static_cast(maxSize_ret); long long callback_return_value = miqt_exec_callback_QUdpSocket_SkipData(this, handle__SkipData, sigval1); return static_cast(callback_return_value); } // Wrapper to allow calling protected method long long virtualbase_SkipData(long long maxSize) { qint64 _ret = QUdpSocket::skipData(static_cast(maxSize)); return static_cast(_ret); } // cgo.Handle value for overwritten implementation intptr_t handle__WriteData = 0; // Subclass to allow providing a Go implementation virtual qint64 writeData(const char* data, qint64 lenVal) override { if (handle__WriteData == 0) { return QUdpSocket::writeData(data, lenVal); } const char* sigval1 = (const char*) data; qint64 lenVal_ret = lenVal; long long sigval2 = static_cast(lenVal_ret); long long callback_return_value = miqt_exec_callback_QUdpSocket_WriteData(this, handle__WriteData, sigval1, sigval2); return static_cast(callback_return_value); } // Wrapper to allow calling protected method long long virtualbase_WriteData(const char* data, long long lenVal) { qint64 _ret = QUdpSocket::writeData(data, static_cast(lenVal)); return static_cast(_ret); } }; void QUdpSocket_new(QUdpSocket** outptr_QUdpSocket, QAbstractSocket** outptr_QAbstractSocket, QIODevice** outptr_QIODevice, QObject** outptr_QObject, QIODeviceBase** outptr_QIODeviceBase) { MiqtVirtualQUdpSocket* ret = new MiqtVirtualQUdpSocket(); *outptr_QUdpSocket = ret; *outptr_QAbstractSocket = static_cast(ret); *outptr_QIODevice = static_cast(ret); *outptr_QObject = static_cast(ret); *outptr_QIODeviceBase = static_cast(ret); } void QUdpSocket_new2(QObject* parent, QUdpSocket** outptr_QUdpSocket, QAbstractSocket** outptr_QAbstractSocket, QIODevice** outptr_QIODevice, QObject** outptr_QObject, QIODeviceBase** outptr_QIODeviceBase) { MiqtVirtualQUdpSocket* ret = new MiqtVirtualQUdpSocket(parent); *outptr_QUdpSocket = ret; *outptr_QAbstractSocket = static_cast(ret); *outptr_QIODevice = static_cast(ret); *outptr_QObject = static_cast(ret); *outptr_QIODeviceBase = static_cast(ret); } QMetaObject* QUdpSocket_MetaObject(const QUdpSocket* self) { return (QMetaObject*) self->metaObject(); } void* QUdpSocket_Metacast(QUdpSocket* self, const char* param1) { return self->qt_metacast(param1); } struct miqt_string QUdpSocket_Tr(const char* s) { QString _ret = QUdpSocket::tr(s); // Convert QString from UTF-16 in C++ RAII memory to UTF-8 in manually-managed C memory QByteArray _b = _ret.toUtf8(); struct miqt_string _ms; _ms.len = _b.length(); _ms.data = static_cast(malloc(_ms.len)); memcpy(_ms.data, _b.data(), _ms.len); return _ms; } bool QUdpSocket_Bind(QUdpSocket* self, int addr) { return self->bind(static_cast(addr)); } bool QUdpSocket_JoinMulticastGroup(QUdpSocket* self, QHostAddress* groupAddress) { return self->joinMulticastGroup(*groupAddress); } bool QUdpSocket_JoinMulticastGroup2(QUdpSocket* self, QHostAddress* groupAddress, QNetworkInterface* iface) { return self->joinMulticastGroup(*groupAddress, *iface); } bool QUdpSocket_LeaveMulticastGroup(QUdpSocket* self, QHostAddress* groupAddress) { return self->leaveMulticastGroup(*groupAddress); } bool QUdpSocket_LeaveMulticastGroup2(QUdpSocket* self, QHostAddress* groupAddress, QNetworkInterface* iface) { return self->leaveMulticastGroup(*groupAddress, *iface); } QNetworkInterface* QUdpSocket_MulticastInterface(const QUdpSocket* self) { return new QNetworkInterface(self->multicastInterface()); } void QUdpSocket_SetMulticastInterface(QUdpSocket* self, QNetworkInterface* iface) { self->setMulticastInterface(*iface); } bool QUdpSocket_HasPendingDatagrams(const QUdpSocket* self) { return self->hasPendingDatagrams(); } long long QUdpSocket_PendingDatagramSize(const QUdpSocket* self) { qint64 _ret = self->pendingDatagramSize(); return static_cast(_ret); } QNetworkDatagram* QUdpSocket_ReceiveDatagram(QUdpSocket* self) { return new QNetworkDatagram(self->receiveDatagram()); } long long QUdpSocket_ReadDatagram(QUdpSocket* self, char* data, long long maxlen) { qint64 _ret = self->readDatagram(data, static_cast(maxlen)); return static_cast(_ret); } long long QUdpSocket_WriteDatagram(QUdpSocket* self, QNetworkDatagram* datagram) { qint64 _ret = self->writeDatagram(*datagram); return static_cast(_ret); } long long QUdpSocket_WriteDatagram2(QUdpSocket* self, const char* data, long long lenVal, QHostAddress* host, uint16_t port) { qint64 _ret = self->writeDatagram(data, static_cast(lenVal), *host, static_cast(port)); return static_cast(_ret); } long long QUdpSocket_WriteDatagram3(QUdpSocket* self, struct miqt_string datagram, QHostAddress* host, uint16_t port) { QByteArray datagram_QByteArray(datagram.data, datagram.len); qint64 _ret = self->writeDatagram(datagram_QByteArray, *host, static_cast(port)); return static_cast(_ret); } struct miqt_string QUdpSocket_Tr2(const char* s, const char* c) { QString _ret = QUdpSocket::tr(s, c); // Convert QString from UTF-16 in C++ RAII memory to UTF-8 in manually-managed C memory QByteArray _b = _ret.toUtf8(); struct miqt_string _ms; _ms.len = _b.length(); _ms.data = static_cast(malloc(_ms.len)); memcpy(_ms.data, _b.data(), _ms.len); return _ms; } struct miqt_string QUdpSocket_Tr3(const char* s, const char* c, int n) { QString _ret = QUdpSocket::tr(s, c, static_cast(n)); // Convert QString from UTF-16 in C++ RAII memory to UTF-8 in manually-managed C memory QByteArray _b = _ret.toUtf8(); struct miqt_string _ms; _ms.len = _b.length(); _ms.data = static_cast(malloc(_ms.len)); memcpy(_ms.data, _b.data(), _ms.len); return _ms; } bool QUdpSocket_Bind2(QUdpSocket* self, int addr, uint16_t port) { return self->bind(static_cast(addr), static_cast(port)); } bool QUdpSocket_Bind3(QUdpSocket* self, int addr, uint16_t port, int mode) { return self->bind(static_cast(addr), static_cast(port), static_cast(mode)); } QNetworkDatagram* QUdpSocket_ReceiveDatagram1(QUdpSocket* self, long long maxSize) { return new QNetworkDatagram(self->receiveDatagram(static_cast(maxSize))); } long long QUdpSocket_ReadDatagram3(QUdpSocket* self, char* data, long long maxlen, QHostAddress* host) { qint64 _ret = self->readDatagram(data, static_cast(maxlen), host); return static_cast(_ret); } long long QUdpSocket_ReadDatagram4(QUdpSocket* self, char* data, long long maxlen, QHostAddress* host, uint16_t* port) { qint64 _ret = self->readDatagram(data, static_cast(maxlen), host, static_cast(port)); return static_cast(_ret); } void QUdpSocket_override_virtual_Resume(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__Resume = slot; } void QUdpSocket_virtualbase_Resume(void* self) { ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_Resume(); } void QUdpSocket_override_virtual_Bind(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__Bind = slot; } bool QUdpSocket_virtualbase_Bind(void* self, QHostAddress* address, uint16_t port, int mode) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_Bind(address, port, mode); } void QUdpSocket_override_virtual_ConnectToHost(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__ConnectToHost = slot; } void QUdpSocket_virtualbase_ConnectToHost(void* self, struct miqt_string hostName, uint16_t port, int mode, int protocol) { ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_ConnectToHost(hostName, port, mode, protocol); } void QUdpSocket_override_virtual_DisconnectFromHost(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__DisconnectFromHost = slot; } void QUdpSocket_virtualbase_DisconnectFromHost(void* self) { ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_DisconnectFromHost(); } void QUdpSocket_override_virtual_BytesAvailable(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__BytesAvailable = slot; } long long QUdpSocket_virtualbase_BytesAvailable(const void* self) { return ( (const MiqtVirtualQUdpSocket*)(self) )->virtualbase_BytesAvailable(); } void QUdpSocket_override_virtual_BytesToWrite(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__BytesToWrite = slot; } long long QUdpSocket_virtualbase_BytesToWrite(const void* self) { return ( (const MiqtVirtualQUdpSocket*)(self) )->virtualbase_BytesToWrite(); } void QUdpSocket_override_virtual_SetReadBufferSize(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__SetReadBufferSize = slot; } void QUdpSocket_virtualbase_SetReadBufferSize(void* self, long long size) { ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_SetReadBufferSize(size); } void QUdpSocket_override_virtual_SocketDescriptor(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__SocketDescriptor = slot; } intptr_t QUdpSocket_virtualbase_SocketDescriptor(const void* self) { return ( (const MiqtVirtualQUdpSocket*)(self) )->virtualbase_SocketDescriptor(); } void QUdpSocket_override_virtual_SetSocketDescriptor(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__SetSocketDescriptor = slot; } bool QUdpSocket_virtualbase_SetSocketDescriptor(void* self, intptr_t socketDescriptor, int state, int openMode) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_SetSocketDescriptor(socketDescriptor, state, openMode); } void QUdpSocket_override_virtual_SetSocketOption(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__SetSocketOption = slot; } void QUdpSocket_virtualbase_SetSocketOption(void* self, int option, QVariant* value) { ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_SetSocketOption(option, value); } void QUdpSocket_override_virtual_SocketOption(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__SocketOption = slot; } QVariant* QUdpSocket_virtualbase_SocketOption(void* self, int option) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_SocketOption(option); } void QUdpSocket_override_virtual_Close(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__Close = slot; } void QUdpSocket_virtualbase_Close(void* self) { ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_Close(); } void QUdpSocket_override_virtual_IsSequential(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__IsSequential = slot; } bool QUdpSocket_virtualbase_IsSequential(const void* self) { return ( (const MiqtVirtualQUdpSocket*)(self) )->virtualbase_IsSequential(); } void QUdpSocket_override_virtual_WaitForConnected(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__WaitForConnected = slot; } bool QUdpSocket_virtualbase_WaitForConnected(void* self, int msecs) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_WaitForConnected(msecs); } void QUdpSocket_override_virtual_WaitForReadyRead(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__WaitForReadyRead = slot; } bool QUdpSocket_virtualbase_WaitForReadyRead(void* self, int msecs) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_WaitForReadyRead(msecs); } void QUdpSocket_override_virtual_WaitForBytesWritten(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__WaitForBytesWritten = slot; } bool QUdpSocket_virtualbase_WaitForBytesWritten(void* self, int msecs) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_WaitForBytesWritten(msecs); } void QUdpSocket_override_virtual_WaitForDisconnected(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__WaitForDisconnected = slot; } bool QUdpSocket_virtualbase_WaitForDisconnected(void* self, int msecs) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_WaitForDisconnected(msecs); } void QUdpSocket_override_virtual_ReadData(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__ReadData = slot; } long long QUdpSocket_virtualbase_ReadData(void* self, char* data, long long maxlen) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_ReadData(data, maxlen); } void QUdpSocket_override_virtual_ReadLineData(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__ReadLineData = slot; } long long QUdpSocket_virtualbase_ReadLineData(void* self, char* data, long long maxlen) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_ReadLineData(data, maxlen); } void QUdpSocket_override_virtual_SkipData(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__SkipData = slot; } long long QUdpSocket_virtualbase_SkipData(void* self, long long maxSize) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_SkipData(maxSize); } void QUdpSocket_override_virtual_WriteData(void* self, intptr_t slot) { dynamic_cast( (QUdpSocket*)(self) )->handle__WriteData = slot; } long long QUdpSocket_virtualbase_WriteData(void* self, const char* data, long long lenVal) { return ( (MiqtVirtualQUdpSocket*)(self) )->virtualbase_WriteData(data, lenVal); } void QUdpSocket_Delete(QUdpSocket* self, bool isSubclass) { if (isSubclass) { delete dynamic_cast( self ); } else { delete self; } }