void Framebuffer::clearBuffer(const GLenum buffer, const GLint drawBuffer, const glm::vec4 & value)
{
clearBuffer(buffer, drawBuffer, glm::value_ptr(value));
}
// Function: clearMregister
// Description: Returns a copy of the M register
// Params: none
// Returns: none
// Modifies: M
void clearMregister()
{
clearBuffer((char *) &M, sizeof(M));
M.stat = SAOK;
M.icode = NOP;
}
void BConsole::clear(){
::clrscr();
clearBuffer();
}
HttpParserImpl::ParseState HttpParserImpl::parseChunk(const char*& cur_pos, const char* end)
{
const char* p_line = nullptr;
const char* p_end = nullptr;
bool b_line = false;
while (cur_pos < end)
{
switch (chunk_state_)
{
case CHUNK_READ_SIZE:
{
b_line = getLine(cur_pos, end, p_line, p_end);
if(!b_line)
{// need more data, save remain data.
if(saveData(cur_pos, end) != KUMA_ERROR_NOERR) {
return PARSE_STATE_ERROR;
}
cur_pos = end;
return PARSE_STATE_CONTINUE;
}
std::string str;
if(!str_buf_.empty()) {
str.swap(str_buf_);
clearBuffer();
}
str.append(p_line, p_end);
// need not parse chunk extension
chunk_size_ = (uint32_t)strtol(str.c_str(), NULL, 16);
KUMA_INFOTRACE("HttpParser::parseChunk, chunk_size="<<chunk_size_);
if(0 == chunk_size_)
{// chunk completed
chunk_state_ = CHUNK_READ_TRAILER;
} else {
chunk_bytes_read_ = 0;
chunk_state_ = CHUNK_READ_DATA;
}
break;
}
case CHUNK_READ_DATA:
{
uint32_t cur_len = uint32_t(end - cur_pos);
if(chunk_size_ - chunk_bytes_read_ <= cur_len) {// data enough
const char* notify_data = cur_pos;
uint32_t notify_len = chunk_size_ - chunk_bytes_read_;
total_bytes_read_ += notify_len;
chunk_bytes_read_ = chunk_size_ = 0; // reset
chunk_state_ = CHUNK_READ_DATA_CR;
cur_pos += notify_len;
bool destroyed = false;
destroy_flag_ptr_ = &destroyed;
if(cb_data_) cb_data_(notify_data, notify_len);
if(destroyed) {
return PARSE_STATE_DESTROY;
}
destroy_flag_ptr_ = nullptr;
} else {// need more data
const char* notify_data = cur_pos;
total_bytes_read_ += cur_len;
chunk_bytes_read_ += cur_len;
cur_pos += cur_len;
if(cb_data_) cb_data_(notify_data, cur_len);
return PARSE_STATE_CONTINUE;
}
break;
}
case CHUNK_READ_DATA_CR:
{
if(*cur_pos != CR) {
KUMA_ERRTRACE("HttpParser::parseChunk, can not find data CR");
read_state_ = HTTP_READ_ERROR;
return PARSE_STATE_ERROR;
}
++cur_pos;
chunk_state_ = CHUNK_READ_DATA_LF;
break;
}
case CHUNK_READ_DATA_LF:
{
if(*cur_pos != LF) {
KUMA_ERRTRACE("HttpParser::parseChunk, can not find data LF");
read_state_ = HTTP_READ_ERROR;
return PARSE_STATE_ERROR;
}
++cur_pos;
chunk_state_ = CHUNK_READ_SIZE;
break;
}
case CHUNK_READ_TRAILER:
{
b_line = getLine(cur_pos, end, p_line, p_end);
if(b_line) {
if(p_line == p_end && bufferEmpty()) {
// blank line, http completed
read_state_ = HTTP_READ_DONE;
onComplete();
return PARSE_STATE_DONE;
}
clearBuffer(); // discard trailer
} else { // need more data
if(saveData(cur_pos, end) != KUMA_ERROR_NOERR) {
return PARSE_STATE_ERROR;
}
cur_pos = end; // all data was consumed
return PARSE_STATE_CONTINUE;
}
break;
}
}
}
return HTTP_READ_DONE == read_state_?PARSE_STATE_DONE:PARSE_STATE_CONTINUE;
}
void
Normalizer::setIndexOnly(int32_t index) {
text->setIndex(index); // pins index
currentIndex=nextIndex=text->getIndex();
clearBuffer();
}
void testApp::holdBuffer() {
if(holdingBuffer != 1) {
clearBuffer();
holdingBuffer = 1;
}
}
//========================================================
void ResearchMenu(){
char w[20];
int validPath;
int const maxSizePath = 100;
char *path[maxSizePath] , *pathOfList[maxSizePath];
int choice;
float *percent;
float *positionFile;
char openPath[50]="xdg-open"; // Permite to default open file ex: xdg-open img.png
PileVD *valDesc , tmpVD;
PictureDesc imgDsc;
SoundDesc sdDsc;
//TextDesc txtDsc;
FILE *IMGbase;
FILE *TXTbase;
FILE *SOUNDbase;
FILE *fileOfDesc;
FILE *GivenPath;
do{
printf("+=========================+\n");
printf("| |\n");
printf("|1. Research a word |\n");
printf("|2. Research a color |\n");
printf("|3. Research similar sound|\n");
printf("| |\n");
printf("+=================0.RETURN+\n");
scanf("%d" , &choice);
if(choice!=1 && choice !=2 && choice!=0 && choice!=3){
system("clear");
}
}while(choice!=1 && choice!=2 && choice!=0 && choice!=3);
clearBuffer();
switch(choice){
case(1):
/*TXTbase=fopen("TextBaseDesc.db" , 'r');
researchTXT
fclose(TXTbase);
system("clear");
*/
break;
case(2):
system("clear");
if(!fileExists("PictureBaseDesc.db"))printf("PictureBaseDesc.db don\'t exists\n");
else{
IMGbase=fopen("PictureBaseDesc.db" , 'r');
researchIMG(IMGbase);
fclose(IMGbase);
}
ResearchMenu();
break;
case(3):
if(!fileExists("PictureBaseDesc.db"))printf("PictureBaseDesc.db don\'t exists\n");
else{
SOUNDbase=fopen("SoundBaseDesc.db" , 'r');
researchSound(SOUNDbase);
fclose(SOUNDbase);
}
system("clear");
ResearchMenu();
break;
case(0):
system("clear");
mainMenu();
break;
default: // to secure
exit(0);
break;
}
mainMenu();
}
LRESULT
CArchConsoleWindows::wndProc(HWND hwnd,
UINT msg, WPARAM wParam, LPARAM lParam)
{
switch (msg) {
case WM_CLOSE:
ShowWindow(m_frame, FALSE);
m_show = false;
return 0;
case SYNERGY_MSG_CONSOLE_OPEN:
return 0;
case SYNERGY_MSG_CONSOLE_CLOSE:
SendMessage(m_frame, WM_CLOSE, 0, 0);
m_show = false;
return 0;
case SYNERGY_MSG_CONSOLE_SHOW:
m_show = true;
if (wParam != 0 || !m_buffer.empty()) {
ShowWindow(m_frame, TRUE);
}
return 0;
case SYNERGY_MSG_CONSOLE_WRITE:
appendBuffer(reinterpret_cast<const char*>(wParam));
return 0;
case SYNERGY_MSG_CONSOLE_CLEAR:
clearBuffer();
return 0;
case WM_SIZE:
if (hwnd == m_frame) {
MoveWindow(m_hwnd, 0, 0, LOWORD(lParam), HIWORD(lParam), TRUE);
}
break;
case WM_SIZING:
if (hwnd == m_frame) {
// get window vs client area info
int wBase = 40 * m_wChar;
int hBase = 40 * m_hChar;
DWORD style = GetWindowLong(m_frame, GWL_STYLE);
DWORD exStyle = GetWindowLong(m_frame, GWL_EXSTYLE);
RECT rect;
rect.left = 100;
rect.top = 100;
rect.right = rect.left + wBase;
rect.bottom = rect.top + hBase;
AdjustWindowRectEx(&rect, style, FALSE, exStyle);
wBase = rect.right - rect.left - wBase;
hBase = rect.bottom - rect.top - hBase;
// get closest size that's a multiple of the character size
RECT* newRect = (RECT*)lParam;
int width = (newRect->right - newRect->left - wBase) / m_wChar;
int height = (newRect->bottom - newRect->top - hBase) / m_hChar;
width = width * m_wChar + wBase;
height = height * m_hChar + hBase;
// adjust sizing rect
switch (wParam) {
case WMSZ_LEFT:
case WMSZ_TOPLEFT:
case WMSZ_BOTTOMLEFT:
newRect->left = newRect->right - width;
break;
case WMSZ_RIGHT:
case WMSZ_TOPRIGHT:
case WMSZ_BOTTOMRIGHT:
newRect->right = newRect->left + width;
break;
}
switch (wParam) {
case WMSZ_TOP:
case WMSZ_TOPLEFT:
case WMSZ_TOPRIGHT:
newRect->top = newRect->bottom - height;
break;
case WMSZ_BOTTOM:
case WMSZ_BOTTOMLEFT:
case WMSZ_BOTTOMRIGHT:
newRect->bottom = newRect->top + height;
break;
}
return TRUE;
}
break;
default:
break;
}
return DefWindowProc(hwnd, msg, wParam, lParam);
}
/* Function Name: clearWregister
* Purpose: Clears the W register
*
* Parameters: -
* Returns: -
* Modifies: W
*/
void clearWregister(){
clearBuffer((char *) &W, sizeof(W));
W.stat = SAOK;
W.icode = INOP;
}
byte Dynamixel::rxPacket(byte bRxLength){
unsigned long ulCounter, ulTimeLimit;
byte bCount, bLength, bChecksum;
byte bTimeout;
bTimeout = 0;
if(bRxLength == 255)
ulTimeLimit = RX_TIMEOUT_COUNT1;
else
ulTimeLimit = RX_TIMEOUT_COUNT2;
for(bCount = 0; bCount < bRxLength; bCount++)
{
ulCounter = 0;
while(mDxlDevice->read_pointer == mDxlDevice->write_pointer)
{
nDelay(NANO_TIME_DELAY); //[ROBOTIS] porting ydh
if(ulCounter++ > ulTimeLimit)
{
bTimeout = 1;
//TxDStringC("Timeout\r\n");
break;
}
uDelay(0); //[ROBOTIS] porting ydh added
}
if(bTimeout) break;
mRxBuffer[bCount] = mDxlDevice->data_buffer[mDxlDevice->read_pointer++]; // get packet data from USART device
//TxDStringC("mRxBuffer = ");TxDHex8C(mRxBuffer[bCount]);TxDStringC("\r\n");
}
bLength = bCount;
bChecksum = 0;
if( mTxBuffer[2] != BROADCAST_ID )
{
if(bTimeout && bRxLength != 255)
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("Rx Timeout");
TxDByteC(bLength);
#endif
mDXLtxrxStatus |= (1<<COMM_RXTIMEOUT);
clearBuffer();
//TxDStringC("Rx Timeout");
return 0;
}
if(bLength > 3) //checking available length.
{
if(mRxBuffer[0] != 0xff || mRxBuffer[1] != 0xff )
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("Wrong Header");//[Wrong Header]
#endif
mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXHEADER);
clearBuffer();
return 0;
}
if(mRxBuffer[2] != mTxBuffer[2] )
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("[Error:TxID != RxID]");
#endif
mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXID);
clearBuffer();
return 0;
}
if(mRxBuffer[3] != bLength-4)
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("RxLength Error");
#endif
mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXLENGTH);
clearBuffer();
return 0;
}
for(bCount = 2; bCount < bLength; bCount++){
bChecksum += mRxBuffer[bCount]; //Calculate checksum of received data for compare
}
if(bChecksum != 0xff)
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("[RxChksum Error]");
#endif
mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXCHECKSUM);
clearBuffer();
return 0;
}
}
}
return bLength;
}
byte Dynamixel::rxPacket(int bRxLength) {
unsigned long ulCounter, ulTimeLimit;
word bCount, bLength, bChecksum;
byte bTimeout;
bTimeout = 0;
if(bRxLength == 255 || bRxLength == 0xffff) //2014-04-03
ulTimeLimit = RX_TIMEOUT_COUNT1;
else
ulTimeLimit = RX_TIMEOUT_COUNT2;
for(bCount = 0; bCount < bRxLength; bCount++)
{
ulCounter = 0;
while(mDxlDevice->read_pointer == mDxlDevice->write_pointer)
{
nDelay(NANO_TIME_DELAY); //[ROBOTIS] porting ydh
if(ulCounter++ > ulTimeLimit)
{
bTimeout = 1;
//TxDStringC("Timeout\r\n");
break;
}
uDelay(0); //[ROBOTIS] porting ydh added //if exist DXL 1.0 -> ok DXL 2.0 -> ok, if not exist 1.0 not ok, 2.0 ok
}
if(bTimeout) break;
mRxBuffer[bCount] = mDxlDevice->data_buffer[mDxlDevice->read_pointer++ & DXL_RX_BUF_SIZE]; // get packet data from USART device
//TxDStringC("mRxBuffer = ");TxDHex8C(mRxBuffer[bCount]);TxDStringC("\r\n");
}
bLength = bCount;
bChecksum = 0;
if( mTxBuffer[mPktIdIndex] != BROADCAST_ID )
{
if(bTimeout && bRxLength != 255)
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("Rx Timeout");
TxDByteC(bLength);
#endif
mDXLtxrxStatus |= (1<<COMM_RXTIMEOUT);
clearBuffer();
//TxDStringC("Rx Timeout");
return 0;
}
if(bLength > 3) //checking available length.
{
/*if(mPacketType == 1){
if(mRxBuffer[0] != 0xff || mRxBuffer[1] != 0xff ) mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXHEADER);
else if(mRxBuffer[mPktIdIndex] != mTxBuffer[mPktIdIndex] ) mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXID);
else if(mRxBuffer[mPktLengthIndex] != bLength-mPktInstIndex) mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXLENGTH);
else{
for(bCount = 2; bCount < bLength; bCount++){
bChecksum += mRxBuffer[bCount]; //Calculate checksum of received data for compare
}
if(bChecksum != 0xff) mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXCHECKSUM);
return 0;
}
}else{
if(mRxBuffer[0] != 0xff || mRxBuffer[1] != 0xff || mRxBuffer[2] != 0xfd) mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXHEADER);
else if(mRxBuffer[mPktIdIndex] != mTxBuffer[mPktIdIndex] ) mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXID);
else if(mRxBuffer[mPktLengthIndex] != bLength-mPktInstIndex) mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXLENGTH);
else{
bChecksum = DXL_MAKEWORD(mRxBuffer[bRxLength-2], mRxBuffer[bRxLength-1]);
if(update_crc(0, mRxBuffer, bRxLength-2) != bChecksum) mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXCHECKSUM);
return 0;
}
}
*/
if(mPacketType == 1) { //Dxl 1.0 header check
if(mRxBuffer[0] != 0xff || mRxBuffer[1] != 0xff ) {
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("Wrong Header");//[Wrong Header]
#endif
mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXHEADER);
clearBuffer();
return 0;
}
} else { // Dxl 2.0 header check
if(mRxBuffer[0] != 0xff || mRxBuffer[1] != 0xff || mRxBuffer[2] != 0xfd)
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("Wrong Header");//[Wrong Header]
#endif
mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXHEADER);
clearBuffer();
return 0;
}
}
if(mRxBuffer[mPktIdIndex] != mTxBuffer[mPktIdIndex] ) //id check
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("[Error:TxID != RxID]");
#endif
mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXID);
clearBuffer();
return 0;
}
if(mRxBuffer[mPktLengthIndex] != bLength-mPktInstIndex) // status packet length check
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("RxLength Error");
#endif
mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXLENGTH);
clearBuffer();
return 0;
}
if(mPacketType == 1 && mRxBuffer[mPktErrorIndex] != 0) { //140512 shin
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
for(bTryCount = 0; bTryCount<= 6; bTryCount++) {
if((mRxBuffer[mPktErrorIndex] & (1<<bTryCount)) == TRUE) {
switch(bTryCount) {
case 0:
TxDStringC("InputVoltage Error");
break;
case 1:
TxDStringC("Angle Limit Error");
break;
case 2:
TxDStringC("Overheating Error");
break;
case 3:
TxDStringC("Range Error");
break;
case 4:
TxDStringC("Checksum Error");
break;
case 5:
TxDStringC("Overload Error");
break;
case 6:
TxDStringC("Instruction Error");
break;
}
}
}
#endif
} else { //140512 shin
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
for(bTryCount = 1; bTryCount<= 7; bTryCount++) {
if((mRxBuffer[mPktErrorIndex]) == bTryCount) {
switch(bTryCount) {
case 1:
TxDStringC("Result Fail");
break;
case 2:
TxDStringC("Instruction Error");
break;
case 3:
TxDStringC("CRC Error");
break;
case 4:
TxDStringC("DataRange Error");
break;
case 5:
TxDStringC("DataLength Error");
break;
case 6:
TxDStringC("DataLimit Error");
break;
case 7:
TxDStringC("Accrss Error");
break;
}
}
}
#endif
}
if(mPacketType == 1) { // Dxl 1.0 checksum
for(bCount = 2; bCount < bLength; bCount++) {
bChecksum += mRxBuffer[bCount]; //Calculate checksum of received data for compare
}
if(bChecksum != 0xff)
{
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("[RxChksum Error]");
#endif
mDXLtxrxStatus |= (1<<COMM_RXCORRUPT);//RXCHECKSUM);
clearBuffer();
return 0;
}
} else { // Dxl 2.0 checksum
bChecksum = DXL_MAKEWORD(mRxBuffer[bRxLength-2], mRxBuffer[bRxLength-1]);
if(update_crc(0, mRxBuffer, bRxLength-2) == bChecksum) { // -2 : except CRC16
return bLength;
}
else {
#ifdef PRINT_OUT_COMMUNICATION_ERROR_TO_USART2
TxDStringC("CRC-16 Error\r\n");
#endif
return 0;
}
}//end of checksum
}//(bLength > 3)
}//end of Rx status packet check
return bLength;
}
int receiverZigbeeTest(void) {
/*
char *macAdresse = "1";
char *panId = "1620";
char *channel = "100000";
char *function = "0";
char *adresse = "0";
char *data;
char receiveChar;
char valide;
int toto;
*/
TRISB = 0;
TRISB = 0;
// Configure serialBuffer
Buffer zigbeeBuffer;
initBuffer(&zigbeeBuffer, SERIAL_PORT_ZIGBEE);
setAndOpenSerialBuffer(&zigbeeBuffer);
Buffer debugBuffer;
initBuffer(&debugBuffer, SERIAL_PORT_DEBUG);
setAndOpenSerialBuffer(&debugBuffer);
setSerialBuffer(&debugBuffer);
putString("Beacon Receiver start rs232\n");
initPwmForServo(1500);
// Initialization of laserDetector
// Laser 1
initLaserDetectorStruct(
LASER_INDEX_1,
LASER_SERVO_INDEX_1,
&getLaserPin1,
SERVO_LASER_1_MAX_LEFT_POSITION_DEFAULT_VALUE,
SERVO_LASER_1_MAX_RIGHT_POSITION_DEFAULT_VALUE,
SHORT_TRACKING_INTERVAL,
BEACON_SERVO_1_FACTOR,
BEACON_SERVO_1_INIT_COMPUTE_VALUE,
BEACON_SERVO_1_ANGLE_DEGREE
);
// Laser 2
initLaserDetectorStruct(
LASER_INDEX_2,
LASER_SERVO_INDEX_2,
&getLaserPin2,
SERVO_LASER_2_MAX_LEFT_POSITION_DEFAULT_VALUE,
SERVO_LASER_2_MAX_RIGHT_POSITION_DEFAULT_VALUE,
SHORT_TRACKING_INTERVAL,
BEACON_SERVO_2_FACTOR,
BEACON_SERVO_2_INIT_COMPUTE_VALUE,
BEACON_SERVO_2_ANGLE_DEGREE
);
while (1) {
int laserIndex;
for (laserIndex = 0; laserIndex < LASER_COUNT; laserIndex++) {
detectsLaser(laserIndex);
}
delay100us(5);
char c = handleChar(&debugBuffer, FALSE);
if (c != 0) {
putString("---------\n");
Laser* laser1 = getLaser(LASER_INDEX_1);
Laser* laser2 = getLaser(LASER_INDEX_2);
printLaserStruct(&debugBuffer, laser1);
println();
printLaserStruct(&debugBuffer, laser2);
clearBuffer(&debugBuffer);
Point p = getPosition(DISTANCE_BETWEEN_BEACON);
if (p.x != 0 && p.y != 0) {
sendDec(p.x);
putString(", ");
sendDec(p.y);
println();
}
}
}
/*
valide = 0;
while (1) {
if (U2STAbits.URXDA == 1){
valide = getc();
putc1 (valide);
}
if (U1STAbits.URXDA == 1){
valide = getc1();
putc (valide);
}
}
*/
}
/////////////////
// Constructor //
/////////////////
MG2639_Cell::MG2639_Cell():uart0(CELL_SW_TX, CELL_SW_RX)
{
memset(rxBuffer, '\0', RX_BUFFER_LENGTH); // Clear rxBuffer
clearBuffer(); // Clear UART receive buffer
}
void Framebuffer::clearBuffer(gl::GLenum buffer, gl::GLint drawBuffer, float value)
{
clearBuffer(buffer, drawBuffer, &value);
}
void clearEregister()
{
clearBuffer((char *) &E, (sizeof(E)));
E.stat = SAOK;
E.icode = INOP;
}
static void resetBuffer(bufferPo b, strgPo old, integer pos) {
clearBuffer(b);
stringIntoBuffer(b, old);
seekBuffer(b, pos);
}
// C++ level interrupt handler for this instance
void RH_RF24::handleInterrupt()
{
uint8_t status[8];
command(RH_RF24_CMD_GET_INT_STATUS, NULL, 0, status, sizeof(status));
// Decode and handle the interrupt bits we are interested in
// if (status[0] & RH_RF24_INT_STATUS_CHIP_INT_STATUS)
if (status[0] & RH_RF24_INT_STATUS_MODEM_INT_STATUS)
{
// if (status[4] & RH_RF24_INT_STATUS_INVALID_PREAMBLE)
if (status[4] & RH_RF24_INT_STATUS_INVALID_SYNC)
{
// After INVALID_SYNC, sometimes the radio gets into a silly state and subsequently reports it for every packet
// Need to reset the radio and clear the RX FIFO, cause sometimes theres junk there too
_mode = RHModeIdle;
clearRxFifo();
clearBuffer();
}
}
if (status[0] & RH_RF24_INT_STATUS_PH_INT_STATUS)
{
if (status[2] & RH_RF24_INT_STATUS_CRC_ERROR)
{
// CRC Error
// Radio automatically went to _idleMode
_mode = RHModeIdle;
_rxBad++;
clearRxFifo();
clearBuffer();
}
if (status[2] & RH_RF24_INT_STATUS_PACKET_SENT)
{
_txGood++;
// Transmission does not automatically clear the tx buffer.
// Could retransmit if we wanted
// RH_RF24 configured to transition automatically to Idle after packet sent
_mode = RHModeIdle;
clearBuffer();
}
if (status[2] & RH_RF24_INT_STATUS_PACKET_RX)
{
// A complete message has been received with good CRC
// Get the RSSI, configured to latch at sync detect in radio_config
uint8_t modem_status[6];
command(RH_RF24_CMD_GET_MODEM_STATUS, NULL, 0, modem_status, sizeof(modem_status));
_lastRssi = modem_status[3];
_lastPreambleTime = millis();
// Save it in our buffer
readNextFragment();
// And see if we have a valid message
validateRxBuf();
// Radio will have transitioned automatically to the _idleMode
_mode = RHModeIdle;
}
if (status[2] & RH_RF24_INT_STATUS_TX_FIFO_ALMOST_EMPTY)
{
// TX FIFO almost empty, maybe send another chunk, if there is one
sendNextFragment();
}
if (status[2] & RH_RF24_INT_STATUS_RX_FIFO_ALMOST_FULL)
{
// Some more data to read, get it
readNextFragment();
}
}
}
DrawBuffer::~DrawBuffer()
{
clearBuffer();
}
void testApp::releaseBuffer() {
if(holdingBuffer == 1) {
clearBuffer();
holdingBuffer = 0;
}
}
void LineBuffer::createBuffer(unsigned numVertices)
{
clearBuffer();
m_vertices = new Vector3F[numVertices];
m_numVertices = numVertices;
}
//========================================================
void IndexationMenu(){
int choice , validPath;
int const maxSizePath = 100;
char *path[maxSizePath];
FileType filetype;
FILE *fileTOindex;
BaseDesc basedesc;
initList(&basedesc);
void *desc = NULL;
do{
printf("+=========================+\n");
printf("| |\n");
printf("|1. Index a SOUND |\n");
printf("|2. Index an IMAGE |\n");
printf("|3. Index a TEXT |\n");
printf("| |\n");
printf("+=================0.RETURN+\n");
scanf("%d" , &choice);
if(choice!=1 && choice!=0 && choice!=2 && choice!=3){
system("clear");
}
}while(choice!=1 && choice!=2 && choice!=0);
clearBuffer();
do{
printf("Sgronieunieux\n");
fflush(stdout);
if(choice==0){ system("clear");mainMenu(); }
printf("Add an empty path with \"Enter\" to start Indexation.\n");
printf("Enter your(s) path(s) : \n");
validPath = getKeyboard_String(path,0, maxSizePath);
if(fileExists(path)){
fileTOindex=fopen(path,"r");
if(fileTOindex==NULL){ printf("FAIL !\n"); fflush(stdout) ; exit(0);}
switch(choice){
case(1):
addDesc(&basedesc,createSoundDesc(fileTOindex),SOUND);
break;
case(2):
addDesc(&basedesc,createPictureDesc(fileTOindex),PICTURE);
break;
case(3):
/*desc=createTextDesc(fileTOindex);
basedesc=;
addDesc(&basedesc,desc,TEXT);*/
break;
default:
exit(0);
break;
}
fclose(fileTOindex);
strcpy(path,""); // Permite to secure the next path to enter by the user
printf("Succesfull indexation.\n");
}
else{
system("clear");
printf("Error, file don\'t exists\n");
mainMenu();
}
} while ( validPath > 0 ); //while !0=NULL or !-1=so littre or !=-2=ERROR
mainMenu();
}
LineBuffer::~LineBuffer()
{
clearBuffer();
}
void Normalizer::reset() {
currentIndex=nextIndex=text->setToStart();
clearBuffer();
}
/*----------------------------------------------------------------------------*
* NAME
* UartDrv_Reset
*
* DESCRIPTION
*
* This function is called to reset the UART driver. The transmit and
* receive buffers are flushed.
*
* NOTE: the UART configuration does NOT change.
*
* RETURNS
* None
*
*/
void UartDrv_Reset(void)
{
/* clear any data in the in/out buffers */
clearBuffer();
}
/**
* Return the last character in the normalized text. This resets
* the <tt>Normalizer's</tt> position to be just before the
* the input text corresponding to that normalized character.
*/
UChar32 Normalizer::last() {
currentIndex=nextIndex=text->setToEnd();
clearBuffer();
return previous();
}
// This checks the Serial stream for characters, and assembles them into a buffer.
// When the terminator character (default '\r') is seen, it starts parsing the
// buffer for a prefix command, and calls handlers setup by addCommand() member
void SerialCommand::readSerial()
{
// If we're using the Hardware port, check it. Otherwise check the user-created SoftwareSerial Port
#ifdef SERIALCOMMAND_HARDWAREONLY
while (Serial.available() > 0)
#else
while ((usingSoftwareSerial==0 && Serial.available() > 0) || (usingSoftwareSerial==1 && SoftSerial->available() > 0) )
#endif
{
int i;
boolean matched;
if (usingSoftwareSerial==0) {
// Hardware serial port
inChar=Serial.read(); // Read single available character, there may be more waiting
} else {
#ifndef SERIALCOMMAND_HARDWAREONLY
// SoftwareSerial port
inChar = SoftSerial->read(); // Read single available character, there may be more waiting
#endif
}
#ifdef SERIALCOMMANDDEBUG
Serial.print(inChar); // Echo back to serial stream
#endif
if (inChar==term) { // Check for the terminator (default '\r') meaning end of command
#ifdef SERIALCOMMANDDEBUG
Serial.print("Received: ");
Serial.println(buffer);
#endif
bufPos=0; // Reset to start of buffer
token = strtok_r(buffer,delim,&last); // Search for command at start of buffer
if (token == NULL) return;
matched=false;
for (i=0; i<numCommand; i++) {
#ifdef SERIALCOMMANDDEBUG
Serial.print("Comparing [");
Serial.print(token);
Serial.print("] to [");
Serial.print(CommandList[i].command);
Serial.println("]");
#endif
// Compare the found command against the list of known commands for a match
String tmp = token;
if(tmp.equalsIgnoreCase(CommandList[i].command))
{
#ifdef SERIALCOMMANDDEBUG
Serial.print("Matched Command: ");
Serial.println(token);
#endif
// Execute the stored handler function for the command
(*CommandList[i].function)();
clearBuffer();
matched=true;
break;
}
}
if (matched==false) {
(*defaultHandler)(token);
clearBuffer();
}
}
if (isprint(inChar)) // Only printable characters into the buffer
{
buffer[bufPos++]=inChar; // Put character into buffer
buffer[bufPos]='\0'; // Null terminate
if (bufPos > SERIALCOMMANDBUFFER-1) bufPos=0; // wrap buffer around if full
}
}
}
~SAOutputCallbacks() {
clearBuffer();
}
int main(int argc, char * argv[])
{
int ch, opt;
int errflag;
char *optargTrainingSet=NULL, optargSep=',';
std::vector<char> trainingSet;
while ((opt = getopt(argc, argv, ":hc:s:")) != -1)
{
switch (opt)
{
case 'h':
errflag++;
break;
case 'c':
optargTrainingSet = optarg;
break;
case 's':
sscanf(optarg, "%c", &optargSep);
break;
case ':':
std::cerr << "option -" << optopt << "requires an operand" << std::endl;
errflag++;
break;
case '?':
std::cerr << "unrecognized option:-" << optopt << std::endl;
errflag++;
break;
}
}
if (errflag || (optargTrainingSet == NULL))
{
printCLHelp(argv[0]);
return EXIT_FAILURE;
}
if (splitStringToChar(optargTrainingSet, trainingSet, optargSep) != 0)
{
return EXIT_FAILURE;
}
// Initialize app
initTT();
//char a[] = {'a', 's', 'd', 'f', ' '};
charsRefer = generateString(trainingSet.data(), (int)trainingSet.size(), buffersize);
charsTyped.resize(buffersize);
charsTyped.clear();
setupScreen();
updateReferLine(charsRefer);
updateActionLine(charsTyped, charsRefer);
updateInfoLine();
updateCursorPosition(charsTyped);
ch = getch();
while (ch != ASCII_CTRL_C)
{
if (!isPrintableKey(ch) && !isSpecialKey(ch))
{
ch = getch();
continue;
}
switch (ch)
{
case ASCII_BACKSPACE:
case ASCII_DELETE:
std::cout << (char) ASCII_CTRL_G; // sound the bell
refresh();
break;
case ASCII_CTRL_R:
resetStatistics();
case ASCII_NEWLINE:
case ASCII_CRETURN:
if (isEOL(charsTyped) || (ch == ASCII_CTRL_R))
{
charsRefer = generateString(trainingSet.data(), (int)trainingSet.size(), buffersize);
updateReferLine(charsRefer);
clearActionLine();
clearBuffer(charsTyped);
}
break;
default:
if (addChar(charsTyped, ch))
{
updateActionLine(charsTyped, charsRefer);
}
updateInfoLine();
updateCursorPosition(charsTyped);
}
ch = getch();
}
refresh();
endwin();
/*
std::cout << "buffersize= " << buffersize << std::endl;
std::cout << "reference = " << charsRefer.size() << std::endl;
std::cout << "capacity = " << charsTyped.capacity() << std::endl;
std::cout << "typed_in = " << charsTyped.size() << std::endl;
*/
printf("Goodbye!\n");
return 0;
}
void BConsole::clear() {
::erase();
clearBuffer();
}
void SoundPlayer::play(ArchiveFile& file) {
// If we're not initialised yet, do it now
if (!_initialised) {
initialise();
}
// Stop any previous playback operations, that might be still active
clearBuffer();
// Retrieve the extension
std::string ext = os::getExtension(file.getName());
if (boost::algorithm::to_lower_copy(ext) == "ogg") {
// Convert the file into a buffer, self-destructs at end of scope
ScopedArchiveBuffer buffer(file);
// This is an OGG Vorbis file, decode it
vorbis_info* vorbisInfo;
OggVorbis_File oggFile;
// Initialise the wrapper class
OggFileStream stream(buffer);
// Setup the callbacks and point them to the helper class
ov_callbacks callbacks;
callbacks.read_func = OggFileStream::oggReadFunc;
callbacks.seek_func = OggFileStream::oggSeekFunc;
callbacks.close_func = OggFileStream::oggCloseFunc;
callbacks.tell_func = OggFileStream::oggTellFunc;
// Open the OGG data stream using the custom callbacks
int res = ov_open_callbacks(static_cast<void*>(&stream), &oggFile,
NULL, 0, callbacks);
if (res == 0) {
// Open successful
// Get some information about the OGG file
vorbisInfo = ov_info(&oggFile, -1);
// Check the number of channels
ALenum format = (vorbisInfo->channels == 1) ? AL_FORMAT_MONO16
: AL_FORMAT_STEREO16;
// Get the sample Rate
ALsizei freq = (vorbisInfo->rate);
//std::cout << "Sample rate is " << freq << "\n";
long bytes;
char smallBuffer[4096];
DecodeBufferPtr largeBuffer(new DecodeBuffer());
do {
int bitStream;
// Read a chunk of decoded data from the vorbis file
bytes = ov_read(&oggFile, smallBuffer, sizeof(smallBuffer),
0, 2, 1, &bitStream);
if (bytes == OV_HOLE) {
rError() << "SoundPlayer: Error decoding OGG: OV_HOLE.\n";
}
else if (bytes == OV_EBADLINK) {
rError() << "SoundPlayer: Error decoding OGG: OV_EBADLINK.\n";
}
else {
// Stuff this into the variable-sized buffer
largeBuffer->insert(largeBuffer->end(), smallBuffer, smallBuffer + bytes);
}
} while (bytes > 0);
// Allocate a new buffer
alGenBuffers(1, &_buffer);
DecodeBuffer& bufferRef = *largeBuffer;
// Upload sound data to buffer
alBufferData(_buffer,
format,
&bufferRef[0],
static_cast<ALsizei>(bufferRef.size()),
freq);
// Clean up the OGG routines
ov_clear(&oggFile);
}
else {
rError() << "SoundPlayer: Error opening OGG file.\n";
}
}
else {
// Must be a wave file
try {
// Create an AL sound buffer directly from the buffer in memory
_buffer = WavFileLoader::LoadFromStream(file.getInputStream());
}
catch (std::runtime_error& e) {
rError() << "SoundPlayer: Error opening WAV file: " << e.what() << std::endl;
_buffer = 0;
}
}
if (_buffer != 0) {
alGenSources(1, &_source);
// Assign the buffer to the source and play it
alSourcei(_source, AL_BUFFER, _buffer);
// greebo: Wait 10 msec. to fix a problem with buffers not being played
// maybe the AL needs time to push the data?
usleep(10000);
alSourcePlay(_source);
// Enable the periodic buffer check, this destructs the buffer
// as soon as the playback has finished
_timer.enable();
}
}