int pqExtractMax(struct pq_t *pThis, void *pRetKey, void *pRetObj){
if(pThis->size == 0)
return __DS__PQ__EMPTY__;
void *max = pThis->keyArray, *iter;
size_t max_i = 0, i;
for(i=1; i<pThis->size; i++){
/* find max */
iter = getAddr(pThis->keyArray, i, pThis->keySize);
if((*(pThis->cmp))(max, iter) < 0){
max = iter;
max_i = i;
}
}
getItem(pThis->keyArray, max_i, pRetKey, pThis->keySize);
getItem(pThis->objArray, max_i, pRetObj, pThis->objSize);
for(i=max_i; i<pThis->size-1; i++){
void *iter1 = getAddr(pThis->keyArray, i, pThis->keySize);
void *iter2 = getAddr(pThis->keyArray, i+1, pThis->keySize);
memcpy(iter1, iter2, pThis->keySize);
iter1 = getAddr(pThis->objArray, i, pThis->objSize);
iter2 = getAddr(pThis->objArray, i+1, pThis->objSize);
memcpy(iter1, iter2, pThis->objSize);
hmSet(pThis->pObjToIndex, iter1, &i);
}
hmDelete(pThis->pObjToIndex, pRetObj);
pThis->size--;
return __DS__PQ__NORMAL__;
}
void *getTinyOrSmall(char type, size_t size) {
void *ptr;
if (type == TINY)
ptr = getAddr(size, TINY_M, &g_memory.tiny_array, g_memory.tiny_addrs);
else
ptr = getAddr(size, SMALL_M, &g_memory.small_array, g_memory.small_addrs);
return (ptr);
}
bool SockAddr::isLocalHost() const {
switch (getType()) {
case AF_INET: return getAddr() == "127.0.0.1";
case AF_INET6: return getAddr() == "::1";
case AF_UNIX: return true;
default: return false;
}
fassert(16502, false);
return false;
}
/*!
* Create server listening on socket
* Subscribes to connection events with ID SERVER_ID
*/
void GdbServerWindow::createServer() {
// Create the address
IPaddress listenAddr;
listenAddr.Service(shared->getGdbServerPort());
listenAddr.Hostname(_("localhost"));
serverAddr = getAddr(listenAddr);
closeServer();
// Create the socket
serverSocket = new wxSocketServer(listenAddr, wxSOCKET_NOWAIT);
// We use IsOk() here to see if the server is really listening
if (!serverSocket->IsOk()) {
statusTextControl->AppendText(_("ERROR: Could not create server at the specified port !\n"));
return;
}
string bdmSerialNumber = shared->getBdmSerialNumber();
if (bdmSerialNumber.length() > 0) {
if (shared->getBdmMatchRequired()) {
statusTextControl->AppendText(_("Using required USBDM interface S/N = \'")+wxString(bdmSerialNumber.c_str(), wxConvUTF8)+_("\'\n"));
}
else {
statusTextControl->AppendText(_("Using preferred USBDM interface S/N = \'")+wxString(bdmSerialNumber.c_str(), wxConvUTF8)+_("\'\n"));
}
}
else {
statusTextControl->AppendText(_("Using any suitable USBDM interface\n"));
}
IPaddress addrReal;
if (!serverSocket->GetLocal(addrReal) ) {
statusTextControl->AppendText(_("ERROR: couldn't get the address we bound to\n"));
}
else {
serverAddr = getAddr(addrReal);
wxString s;
s.Printf(_("Server created @%s\n"), (const char *)serverAddr.c_str());
statusTextControl->AppendText(s);
}
// Setup the event handler and subscribe to connection events
serverSocket->SetEventHandler(*this, SERVER_ID);
serverSocket->SetNotify(wxSOCKET_CONNECTION_FLAG);
serverSocket->Notify(true);
serverState = listening;
UpdateStatusBar();
}
/* resetTab()
*/
static void
resetTab (hTab * tabPtr)
{
int lastSize;
int slot;
struct hLinks *lastSlotPtr;
struct hLinks *lastList;
hEnt *hEntPtr;
lastSlotPtr = tabPtr->slotPtr;
lastSize = tabPtr->size;
h_initTab_ (tabPtr, tabPtr->size * RESETFACTOR);
for (lastList = lastSlotPtr; lastSize > 0; lastSize--, lastList++)
{
while (lastList != lastList->bwPtr)
{
hEntPtr = (hEnt *) lastList->bwPtr;
remList_ ((struct hLinks *) hEntPtr);
slot = getAddr (tabPtr, (char *) hEntPtr->keyname);
insList_ ((struct hLinks *) hEntPtr,
(struct hLinks *) (&(tabPtr->slotPtr[slot])));
tabPtr->numEnts++;
}
}
free (lastSlotPtr);
}
static int ncp6335d_get_voltage(struct regulator_dev *rdev)
{
unsigned int val;
int rc;
struct ncp6335d_info *dd = rdev_get_drvdata(rdev);
struct i2c_client *client = to_i2c_client(dd->dev);
mutex_lock(&dd->ncp_mutex);
if (dd->is_suspend) {
rc = dd->curr_voltage;
dev_dbg(dd->dev, "Get voltage after suspend, (%d)\n", rc);
goto out;
}
rc = regmap_read(dd->regmap, dd->vsel_reg, &val);
if (rc) {
dev_err(dd->dev, "Unable to get volatge rc(%d), %x\n", rc, client->addr);
getAddr(client);
rc = regmap_read(dd->regmap, dd->vsel_reg, &val);
if (rc) {
dev_err(dd->dev, "Unable to get voltage rc(%d), %x\n", rc, client->addr);
goto out;
}
}
dd->curr_voltage = ((val & NCP6335D_VOUT_SEL_MASK) * dd->step_size) +
dd->min_voltage;
rc = dd->curr_voltage;
dump_registers(dd, dd->vsel_reg, __func__);
out:
mutex_unlock(&dd->ncp_mutex);
return rc;
}
void FstopComms::respondWrite()
{
if(!checkcheck())
return;
unsigned int addr=getAddr();
char len=cmd[PKT_LEN];
if(len < 1 || len > PKT_MAXREQ || addr < EEPROM_MIN_WRITE || addr+len > EEPROM_MAX_WRITE){
nak(BAD_WRITE);
return;
}
// copy from buffer to EEPROM
char bp=PKT_SHORTHDR;
for(char i=0;i<len;++i){
EEPROM.write(addr++, cmd[bp++]);
}
cmd[PKT_CMD]=COM_WRITEACK;
buflen=PKT_SHORTHDR;
// recompute checksum, send without data
txCmd();
}
unsigned char SONAR::initAddr(unsigned char addr) {
debug();
if(0x11<=addr && addr<=0x30) _addr=addr;
generateTrigCmd();
generateDistCmd();
return getAddr();
}
static asynStatus uint32Read(void *pvt,asynUser *pasynUser,
epicsUInt32 *value,epicsUInt32 mask)
{
drvPvt *pdrvPvt = (drvPvt *)pvt;
int addr;
asynStatus status;
status = getAddr(pdrvPvt,pasynUser,&addr,0);
if(status!=asynSuccess) return status;
asynPrint(pasynUser, ASYN_TRACE_FLOW,
"%s %d uint32DigitalDriver:readInt32\n",pdrvPvt->portName,addr);
if(!pdrvPvt->connected) {
asynPrint(pasynUser,ASYN_TRACE_ERROR,
"%s uint32DigitalDriver:read not connected\n",pdrvPvt->portName);
epicsSnprintf(pasynUser->errorMessage,pasynUser->errorMessageSize,
"%s uint32DigitalDriver:read not connected",pdrvPvt->portName);
return asynError;
}
epicsMutexMustLock(pdrvPvt->lock);
*value = mask & pdrvPvt->channel[addr].value;
epicsMutexUnlock(pdrvPvt->lock);
asynPrint(pasynUser,ASYN_TRACEIO_DRIVER,
"%s read %d\n",pdrvPvt->portName,*value);
return asynSuccess;
}
InspectorItem::InspectorItem(Any pointer, List<IFieldMeta*>* fields, InspectorItem* parent, int row)
: pointer{pointer}
, fields{fields}
, parent{parent}
, row{row}
{
for (auto i = 0; i < fields->size(); i++)
{
InspectorItem* child = nullptr;
auto field = fields->at(i);
auto type = field->getType();
auto subFields = getFields(type);
if (subFields->size() > 0)
{
bool isProperty = dynamic_cast<PropertyMeta*>(field);
if (!isProperty)
{
auto subPointer = field->getAddr(pointer);
child = new InspectorItem(subPointer, subFields, this, i);
}
}
childs.push_back(child);
}
}
static unsigned int ncp6335d_get_mode(struct regulator_dev *rdev)
{
unsigned int val;
int rc;
struct ncp6335d_info *dd = rdev_get_drvdata(rdev);
struct i2c_client *client = to_i2c_client(dd->dev);
rc = regmap_read(dd->regmap, REG_NCP6335D_COMMAND, &val);
if (rc) {
dev_err(dd->dev, "Unable to get regulator mode rc(%d), %x\n", rc, client->addr);
getAddr(client);
rc = regmap_read(dd->regmap, REG_NCP6335D_COMMAND, &val);
if (rc) {
dev_err(dd->dev, "Unable to get regulator mode rc1(%d), %x\n", rc, client->addr);
return rc;
}
}
dump_registers(dd, REG_NCP6335D_COMMAND, __func__);
if (val & dd->mode_bit)
return REGULATOR_MODE_FAST;
return REGULATOR_MODE_NORMAL;
}
void MemBufferEntry::mergeDestroy()
{
if (wrmask)
chunkCopy(realAddr, getAddr(), wrmask);
mePool.in(this);
}
/******************************************************************
Title:instruction
Function:Pin calls this function every time a new instruction is
executed
Input:
RTN rtn:The current instruction.
VOID *v:The second argument.
Output:
VOID
******************************************************************/
VOID instruction(INS ins, VOID *v)
{
/*fprintf(trace,insName.c_str());
fprintf(trace,"\n");
decode(ins);*/
if(flag==0&&hasFound==0)
return;
else
hasFound=1;
if(flag==1&&hasFound==1){
fprintf(output,"****************************************************\n");
fprintf(output,"Before the application\n");
ADDRINT baseAdd = getAddr();
ADDRINT length = getSizeL();
memManager->markTaintedBlock(baseAdd,length);
memManager->printState(output);
flag=0;
}
OPCODE opcode = INS_Opcode(ins);
UINT32 operandCount = INS_OperandCount(ins);
UINT insExt = INS_Extension(ins);
unsigned int realOpcode = opcode&0xffff;
OperandKind kind = getOperandKind(ins);
unsigned int insKind = INSNUM(realOpcode,kind);
handleIns(insKind,ins);
}
static asynStatus float64Read(void *pvt,asynUser *pasynUser,
epicsFloat64 *value)
{
drvPvt *pdrvPvt = (drvPvt *)pvt;
int addr;
asynStatus status;
status = getAddr(pdrvPvt,pasynUser,&addr,0);
if(status!=asynSuccess) return status;
asynPrint(pasynUser, ASYN_TRACE_FLOW,
"%s %d uint32DigitalDriver:float64Read\n",pdrvPvt->portName,addr);
if(!pdrvPvt->connected) {
asynPrint(pasynUser,ASYN_TRACE_ERROR,
"%s uint32DigitalDriver:read not connected\n",pdrvPvt->portName);
epicsSnprintf(pasynUser->errorMessage,pasynUser->errorMessageSize,
"%s uint32DigitalDriver:read not connected",pdrvPvt->portName);
return asynError;
}
epicsMutexMustLock(pdrvPvt->lock);
*value = pdrvPvt->interruptDelay;
epicsMutexUnlock(pdrvPvt->lock);
asynPrint(pasynUser,ASYN_TRACEIO_DRIVER,
"%s read %f\n",pdrvPvt->portName,*value);
return asynSuccess;
}
static asynStatus float64Write(void *pvt,asynUser *pasynUser,
epicsFloat64 value)
{
drvPvt *pdrvPvt = (drvPvt *)pvt;
int addr;
asynStatus status;
ELLLIST *pclientList;
interruptNode *pnode;
asynFloat64Interrupt *pinterrupt;
status = getAddr(pdrvPvt,pasynUser,&addr,0);
if(status!=asynSuccess) return status;
epicsMutexMustLock(pdrvPvt->lock);
pdrvPvt->interruptDelay = value;
epicsMutexUnlock(pdrvPvt->lock);
epicsEventSignal(pdrvPvt->waitWork);
asynPrint(pasynUser,ASYN_TRACEIO_DRIVER,
"%s addr %d write %f\n",pdrvPvt->portName,addr,value);
pasynManager->interruptStart(pdrvPvt->asynFloat64Pvt, &pclientList);
pnode = (interruptNode *)ellFirst(pclientList);
while (pnode) {
pinterrupt = pnode->drvPvt;
if(addr==pinterrupt->addr && pinterrupt->pasynUser->reason==1) {
pinterrupt->callback(pinterrupt->userPvt,pinterrupt->pasynUser,value);
break;
}
pnode = (interruptNode *)ellNext(&pnode->node);
}
pasynManager->interruptEnd(pdrvPvt->asynFloat64Pvt);
return asynSuccess;
}
void RegSettingsDlg::setupEventHandlers()
{
QObject::connect(mLeName, SIGNAL(textChanged(QString)), this, SLOT(getName(QString)));
QObject::connect(mLeSrvAddr, SIGNAL(textChanged(QString)), this, SLOT(getAddr(QString)));
QObject::connect(mLeSrvPort, SIGNAL(textChanged(QString)), this, SLOT(getPort(QString)));
QObject::connect(mBtnOk, SIGNAL(clicked()), this, SLOT(saveSettings()));
QObject::connect(mBtnCancel, SIGNAL(clicked()), this, SLOT(close()));
}
void InstStore::dump(const Cfg *Func) const {
Ostream &Str = Func->getContext()->getStrDump();
Type Ty = getData()->getType();
Str << "store " << Ty << " ";
getData()->dump(Func);
Str << ", " << Ty << "* ";
getAddr()->dump(Func);
Str << ", align " << typeAlignInBytes(Ty);
}
/* h_getEnt_()
* Get an entry from the hash table based on
* a given key.
*/
hEnt *
h_getEnt_ (hTab * tabPtr, const char *key)
{
if (tabPtr->numEnts == 0)
return NULL;
return (h_findEnt (key, &(tabPtr->slotPtr[getAddr (tabPtr, key)])));
}
static int ncp6335d_set_mode(struct regulator_dev *rdev,
unsigned int mode)
{
int rc;
struct ncp6335d_info *dd = rdev_get_drvdata(rdev);
struct i2c_client *client = to_i2c_client(dd->dev);
if (mode != REGULATOR_MODE_FAST && mode != REGULATOR_MODE_NORMAL) {
dev_err(dd->dev, "Mode %d not supported\n", mode);
return -EINVAL;
}
rc = regmap_update_bits(dd->regmap, REG_NCP6335D_COMMAND, dd->mode_bit,
(mode == REGULATOR_MODE_FAST) ? dd->mode_bit : 0);
if (rc) {
dev_err(dd->dev, "Unable to set operating mode rc(%d), %x", rc, client->addr);
getAddr(client);
rc = regmap_update_bits(dd->regmap, REG_NCP6335D_COMMAND, dd->mode_bit,
(mode == REGULATOR_MODE_FAST) ? dd->mode_bit : 0);
if (rc)
dev_err(dd->dev, "Unable to set operating mode rc1(%d), %x", rc, client->addr);
return rc;
}
rc = regmap_update_bits(dd->regmap, REG_NCP6335D_COMMAND,
NCP6335D_DVS_PWM_MODE,
(mode == REGULATOR_MODE_FAST) ?
NCP6335D_DVS_PWM_MODE : 0);
if (rc) {
dev_err(dd->dev, "Unable to set DVS trans. mode rc(%d), %x", rc, client->addr);
getAddr(client);
rc = regmap_update_bits(dd->regmap, REG_NCP6335D_COMMAND,
NCP6335D_DVS_PWM_MODE,
(mode == REGULATOR_MODE_FAST) ?
NCP6335D_DVS_PWM_MODE : 0);
if (rc)
dev_err(dd->dev, "Unable to set DVS trans. mode rc1(%d), %x", rc, client->addr);
}
dump_registers(dd, REG_NCP6335D_COMMAND, __func__);
return rc;
}
void Instruction::dump(const char *str) const
{
MSG("%s:0x%8x: reg[%2d] = reg[%2d] [%8s:%2d] reg[%2d] (uEvent=%d)", str,
(int)getAddr(), dest, src1, opcode2Name(opcode), subCode, src2, uEvent);
#if !((defined TRACE_DRIVEN)||(defined MIPS_EMUL)||(defined QEMU_DRIVEN))
// This is mint-only junk
Itext[currentID()]->dump();
#endif
}
tDMA_TAG *DMACh::DMAtransfer(u32 addr, u32 num)
{
tDMA_TAG *tag = getAddr(addr, num, false);
if (tag == NULL) return NULL;
chcrTransfer(tag);
qwcTransfer(tag);
return tag;
}
unsigned char* SONAR::generateDistCmd() {
debug();
for(int i=0;i<sizeof(distCmdTemplate);++i) {
_distCmd[i]=distCmdTemplate[i];
}
_distCmd[2]=getAddr();
for(int i=0;i<sizeof(distCmdTemplate)-1;++i) {
_distCmd[sizeof(distCmdTemplate)-1]+=_distCmd[i];
}
return _distCmd;
}
static void handleEvent(evutil_socket_t socket, short eventType, void* vcontext)
{
// We don't care about this, there's only one event registered under this socket.
eventType = eventType;
struct UDPInterface* context = (struct UDPInterface*) vcontext;
struct Message message =
{ .bytes = context->messageBuff + PADDING, .padding = PADDING, .length = MAX_PACKET_SIZE };
struct sockaddr_storage addrStore;
memset(&addrStore, 0, sizeof(struct sockaddr_storage));
int addrLen = sizeof(struct sockaddr_storage);
int rc = recvfrom(socket,
message.bytes,
MAX_PACKET_SIZE,
0,
(struct sockaddr*) &addrStore,
(socklen_t*) &addrLen);
/*
Log_debug1(context->logger,
"Got message from peer on port %u\n",
Endian_bigEndianToHost16(((struct sockaddr_in*) &addrStore)->sin_port));
*/
if (addrLen != context->addrLen) {
return;
}
if (rc < 0) {
return;
}
message.length = rc;
uint32_t addr = getAddr(&addrStore);
for (uint32_t i = 0; i < context->endpointCount; i++) {
if (addr == context->addresses[i]
&& memcmp(&context->endpoints[i].addr,
&addrStore,
sizeof(struct sockaddr_storage)) == 0)
{
struct Interface* iface = &context->endpoints[i].interface;
if (iface->receiveMessage != NULL) {
iface->receiveMessage(&message, iface);
}
return;
}
}
// Otherwise just send it to the default interface.
if (context->defaultInterface != NULL && context->defaultInterface->receiveMessage != NULL) {
context->defaultInterfaceSender = &addrStore;
context->defaultInterface->receiveMessage(&message, context->defaultInterface);
context->defaultInterfaceSender = NULL;
}
}
unsigned char* SONAR::generateTrigCmd() {
debug();
for(int i=0;i<sizeof(trigCmdTemplate);++i) {
_trigCmd[i]=trigCmdTemplate[i];
}
_trigCmd[2]=getAddr();
for(int i=0;i<sizeof(trigCmdTemplate)-1;++i) {
_trigCmd[sizeof(trigCmdTemplate)-1]+=_trigCmd[i];
}
return _trigCmd;
}
void GotoStatement::adjustFixedDest(int delta)
{
// Ensure that the destination is fixed.
if (!m_dest || !m_dest->isIntConst()) {
LOG_ERROR("Can't adjust destination of non-static CTI");
return;
}
auto theConst = std::static_pointer_cast<Const>(m_dest);
theConst->setAddr(theConst->getAddr() + delta);
}
String Plugin::getHash(int8_t sensor) {
char addr_c[32];
if (getAddr(&addr_c[0], sensor)) {
MD5Builder md5 = ::getHashBuilder();
md5.add(getName());
md5.add(addr_c);
md5.calculate();
return md5.toString();
}
return "";
}
int Pass2_LinkingLoader_M(char *record, Linkedlist *RSymbol){
int ModifyLocation,q,r,ModifyValueInt,sum,carry=0;
char *ModifyValueString;
char *externalSymbol;
Linkedlist ex;
ModifyLocation = StringToHex(copy(1,6,record)) + csaddress; // Modification location
q=ModifyLocation/16;
r=ModifyLocation%16;
if((externalSymbol = getAddr(copy(10,11,record),*RSymbol)) == NULL){ // Get Symbol that fit in refenrence Number
printf("%s / Undefined Reference Symbol\n",copy(10,11,record));
return -1;
}
ex = external_table[MneToOp(externalSymbol)];
if((ModifyValueString = getAddr(externalSymbol,ex)) == NULL){ //Get ADdr of Symbol using ESTAB
printf("%s / Undefined External Symbol\n",externalSymbol);
return -1;
}
ModifyValueInt = StringToHex(ModifyValueString);
/* carry out Add, Sub using Carry bit and Borrow bit */
if(record[9] == '+'){
if(r+2>0xf){ r=(r+2)%16; q++;}
else{r+=2;}
carry = addAndCarryCheck((int)memory[r][q],(ModifyValueInt & 0x000000FF),carry,&sum); // 5,6 bit
memory[r][q] = sum;
RExcess16(&q,&r);
carry = addAndCarryCheck((int)memory[r][q],((ModifyValueInt >> 8) & 0x000000FF),carry,&sum); // 3,4 bit
memory[r][q] = sum;
RExcess16(&q,&r);
if(!strcmp(copy(7,8,record),"05")){ // 1,2 bit
carry = addAndCarryCheck((int)memory[r][q],((ModifyValueInt >> 16) & 0x0000000F),carry,&sum);
memory[r][q] = sum;
}
else if(!strcmp(copy(7,8,record),"06")){
void readPerfData(gzFile file, bool computeArcWeight) {
char line[BUFLEN];
while (gzgets(file, line, BUFLEN) != Z_NULL) {
HFTRACE(2, "readPerfData: line: %s\n", line);
if (line[0] == '#') continue;
if (isspace(line[0])) continue;
// process one sample
if (gzgets(file, line, BUFLEN) == Z_NULL) error("reading perf data");
auto addrTop = getAddr(line);
FuncId idTop = getFuncId(addrTop);
if (idTop == InvalidId) continue;
cg.funcs[idTop].samples++;
HFTRACE(2, "readPerfData: idTop: %u %s\n", idTop,
cg.funcs[idTop].mangledNames[0].c_str());
if (gzgets(file, line, BUFLEN) == Z_NULL) error("reading perf data");
auto addrCaller = getAddr(line);
FuncId idCaller = getFuncId(addrCaller);
if (idCaller != InvalidId) {
auto arc = cg.getArc(idCaller, idTop);
if (computeArcWeight) {
arc->weight++;
arc->avgCallOffset += addrCaller - cg.funcs[idCaller].addr;
}
HFTRACE(2, "readPerfData: idCaller: %u %s\n", idCaller,
cg.funcs[idCaller].mangledNames[0].c_str());
}
}
if (!computeArcWeight) return;
// Normalize incoming arc weights and compute avgCallOffset for each node.
for (auto& func : cg.funcs) {
for (auto arc : func.inArcs) {
arc->normalizedWeight = arc->weight / func.samples;
arc->avgCallOffset = arc->avgCallOffset / arc->weight;
}
}
}
/*!
* Handler for Server events (before connection)
*
* - Only expects connection events wxSOCKET_CONNECTION
* - Creates new socket and adds handler for socket events
*
* @param event Event to handle
*/
void GdbServerWindow::OnServerEvent(wxSocketEvent& event) {
if (event.GetSocketEvent() != wxSOCKET_CONNECTION) {
statusTextControl->AppendText(_("Unexpected event on Server\n"));
// Ignore
return;
}
if (clientSocket != NULL) {
statusTextControl->AppendText(_("Client connection while busy - rejected\n"));
wxSocketBase *clientSocket = serverSocket->Accept(false);
clientSocket->Destroy();
return;
}
// Accept new connection if there is one in the pending
// connections queue, else exit. We use Accept(false) for
// non-blocking accept (although if we got here, there
// should ALWAYS be a pending connection).
clientSocket = serverSocket->Accept(false);
if (clientSocket == NULL) {
statusTextControl->AppendText(_("Error: couldn't accept a new connection\n"));
return;
}
IPaddress peerAddr;
if ( !clientSocket->GetPeer(peerAddr) ) {
statusTextControl->AppendText(_("New connection from unknown client accepted.\n"));
}
else {
clientAddr = getAddr(peerAddr);
statusTextControl->AppendText(_(
"\n=====================================\n"
"New client connection from ")+ clientAddr + _(" accepted\n"));
}
// Subscribe to socket events
// wxSOCKET_INPUT_FLAG - received data
// wxSOCKET_LOST_FLAG - lost connection
clientSocket->SetEventHandler(*this, SOCKET_ID);
clientSocket->SetNotify(wxSOCKET_INPUT_FLAG | wxSOCKET_LOST_FLAG);
clientSocket->Notify(true);
setDeferredFail(false);
deferredOpen = true;
statusTimer = new wxTimer(this, SERVER_STATUSTIMER);
statusTimer->Start(pollIntervalSlow, wxTIMER_ONE_SHOT);
serverState = connected;
UpdateStatusBar();
}
/*
* 获取进入TX或者是RX模式的命令
*/
void getRT(void)
{
while (uartRecvData == '\0');
switch (uartRecvData)
{
case 'b':
mode = CMD_MODE;
break;
case 't':
while (!getAddr());
mode = TX_MODE;
break;
case 'r':
while (!getAddr());
mode = RX_MODE;
break;
default:
printf ("ERROR: command error\n");
}
uartRecvData = '\0';
}