//----------------------------------------------------------------------
//Render::Render(GLuint pos, GLuint col, int n, CL* cli, RTPSettings& _settings) :
//settings(_settings)
//{
//}
//----------------------------------------------------------------------
Render::Render(GLuint pos, GLuint col, int n, CL* cli, RTPSettings* _settings)
{
this->settings = _settings;
shader_source_dir = settings->GetSettingAs<string>("rtps_path");
shader_source_dir += "/shaders";
printf("SHADER SOURCE DIR\n", shader_source_dir.c_str());
rtype = POINTS;
pos_vbo = pos;
col_vbo = col;
this->cli=cli;
num = n;
window_height=600;
window_width=800;
near_depth=0.;
far_depth=1.;
write_framebuffers = false;
GLubyte col1[] = {0,0,0,255};
GLubyte col2[] = {255,255,255,255};
generateCheckerBoardTex(col1,col2,8,640);
printf("GL VERSION %s\n", glGetString(GL_VERSION));
//blending = settings.GetSettingAs<bool>("Render: Blending");
//blending = settings->getUseAlphaBlending();
blending = settings->GetSettingAs<bool>("render_use_alpha");
setupTimers();
}
int main(void)
{
DO_TEST_HARNESS_SETUP();
WD_DISABLE();
setupIO();
readTestMode();
setupTimers();
smIndex = setupStateMachine();
TS_Setup();
Threshold_Init();
Filter_Init();
Flush_Reset();
COMMS_Init();
sei();
runNormalApplication();
}
void setupAttiny() {
DDRB set(LED);
PORTB clr(LED);
cli();
setupTimers();
sei();
}
void TimerController::checkForStart(unsigned char channel)
{
Duration duration;
if(_stateMachine->isStartTimer())
{
_stateMachine->clearStartTimer();
switch (_stateMachine->getState())
{
case TEST:
colour = 0;
if (DEBUG) Serial.println("TimerController - Starting Timer - State: TEST");
duration.duration = 0;
duration.t2_prescaler_pointer = (unsigned long) WAIT_T2_PRESCALER_POINTER;
duration.t2_comparator = (unsigned long) WAIT_T2_COMPARATOR;
duration.t1_comparator = (unsigned long) WAIT_T1_COMPARATOR;
setupTimers(duration);
break;
case WAIT:
colour = 0;
if (DEBUG) Serial.println("TimerController - Starting Timer - State: WAIT");
duration.duration = 0;
duration.t2_prescaler_pointer = (unsigned long) WAIT_T2_PRESCALER_POINTER;
duration.t2_comparator = (unsigned long) WAIT_T2_COMPARATOR;
duration.t1_comparator = (unsigned long) WAIT_T1_COMPARATOR;
setupTimers(duration);
break;
case DISPLAY_COLOUR:
colour = _stateMachine->getColour() + 2;
if (DEBUG)
{
Serial.print("TimerController: Starting Timer: DISPLAY_COLOUR : Channel ");
Serial.println(channel, HEX);
Serial.print("Colour: ");
Serial.println(_stateMachine->getColour(), HEX);
}
duration = _durations[channel][_stateMachine->getColour()];
setupTimers(duration);
break;
default:
if (DEBUG) Serial.println("TimerController - State: DEFAULT");
}
}
}
ProjectSettings::ProjectSettings(int argc, char** argv, int mpi_rank):
cwd(".")
{
setupTimers();
this->default_config();
this->parseCommandLineArgs(argc, argv, mpi_rank);
this->ParseFile(cli_filename);
}
void init(void) {
setupFlash();
setupClocks();
setupNVIC();
systick_init(SYSTICK_RELOAD_VAL);
gpio_init_all();
afio_init();
setupADC();
setupTimers();
setupUSB();
boardInit();
}
void init(void) {
setupFlash();
setupClocks();
setupNVIC();
systick_init(SYSTICK_RELOAD_VAL);
gpio_init_all();
afio_init();
setupADC();
setupTimers();
// usb_cdcacm_enable(BOARD_USB_DISC_DEV, BOARD_USB_DISC_BIT);
boardInit();
}
void init(void) {
setupFlash();
setupClocks();
setupNVIC();
systick_init(SYSTICK_RELOAD_VAL);
gpio_init_all();
afio_init();
setupADC();
setupTimers();
// setupUSB();
#if !defined(BOARD_STM32VLD)
setupUSB();
#endif
boardInit();
}
int main(void)
{
// Call setup functions
setupSerial();
setupTimers();
setupADC();
// Set external interrupts
sei();
while (1)
{
// Infinite loop
}
return 0;
}
void init(void) {
setupFlash();
// ok
setupClocks();
// ok
setupNVIC();
// ok
systick_init(SYSTICK_RELOAD_VAL);
// ok
gpio_init_all();
// ok
afio_init();
// ok
setupADC();
// adcs increase mA!
setupTimers();
}
void MainWindow::realAddTorrent(QString torrentFile, QString torrentPath, QString mountPath) {
if (!QFile::exists(torrentFile) && !isMagnet(torrentFile))
die("torrent file not found");
standartText = ("Torrent file: " + torrentFile + "\nDownload path: " + torrentPath + "\nMount path: " + mountPath + "\n").toLocal8Bit();
standartTextLen = standartText.size();
updateStandartText();
if (torrentPath[torrentPath.length() - 1] != QChar('/'))
torrentPath += "/";
if (mountPath[mountPath.length() - 1] != QChar('/'))
mountPath += "/";
resumeSavePath = torrentPath;
add_torrent_params p;
p.storage_mode = libtorrent::storage_mode_allocate;
if (isMagnet(torrentFile)) {
int i;
for (i = 1; torrentFile[i] != '='; i++);
for (i = i + 1; torrentFile[i] != '='; i++);
QString url;
for (i = i + 1; torrentFile[i] != '&'; i++)
url += torrentFile[i];
#if QT_VERSION < QT_VERSION_CHECK(5, 0, 0)
QString name = QUrl(url).toString().replace("+", " ");
#else
QString name = QUrl(url).toString(QUrl::PreferLocalFile).replace("+", " ");
#endif
p.save_path = (torrentPath + name + "/").toStdString();
const torrent_handle h = libtorrent::add_magnet_uri(*session, torrentFile.toStdString(), p);
main = new Torrent(torrentPath + QString::fromStdString(h.name()), mountPath + QString::fromStdString(h.name()), h, this);
} else {
torrent_info *inf = new libtorrent::torrent_info(torrentFile.toStdString());
p.ti = inf;
p.save_path = (torrentPath + QString::fromStdString(inf->name()) + "/").toStdString();
main = new Torrent(torrentPath + QString::fromStdString(inf->name()), mountPath + QString::fromStdString(inf->name()), session->add_torrent(p), this);
}
setupTimers();
}
//----------------------------------------------------------------------
System::System(RTPSSettings* set, CL* c)
{
dout<<"settings "<<set<<endl;
settings = set;
cli = c;
acquiredGL=false;
max_num = settings->GetSettingAs<unsigned int>("max_num_particles");
num = settings->GetSettingAs<unsigned int>("num_particles");
maxGravSources=settings->GetSettingAs<unsigned int>("max_gravity_sources");
activeParticle = 0;
// I should be able to not specify this, but GPU restrictions ...
//seed random
srand ( time(NULL) );
grid = Domain(settings->GetSettingAs<float4>("domain_min"),settings->GetSettingAs<float4>("domain_max"));
setupTimers();
//*** end Initialization
#ifdef CPU
dout<<"RUNNING ON THE CPU"<<endl;
#endif
#ifdef GPU
dout<<"RUNNING ON THE GPU"<<endl;
prepareSorted();
//dout<<"Here"<<endl;
//should be more cross platform
string common_source_dir = settings->GetSettingAs<string>("rtps_path") + "/" + std::string(COMMON_CL_SOURCE_DIR);
cli->addIncludeDir(common_source_dir);
//dout<<common_source_dir.c_str()<<endl;
hash = Hash(common_source_dir, cli, timers["hash_gpu"]);
gravity = Gravity(common_source_dir, cli);
bitonic = Bitonic<unsigned int>(common_source_dir, cli );
//radix = Radix<unsigned int>(common_source_dir, cli, max_num, 128);
cellindices = CellIndices(common_source_dir, cli, timers["ci_gpu"] );
permute = Permute( common_source_dir, cli, timers["perm_gpu"] );
m2p = MeshToParticles(common_source_dir, cli, timers["meshtoparticles_gpu"]);
marchingcubes = MarchingCubes(common_source_dir, cli, timers["marchingcubes_gpu"],settings->GetSettingAs<unsigned int>("color_field_res","2"));
#endif
}
/*
* @brief stm32 board specific init
* @param none
* @return none
* @note none
*/
void stm32utils_system_init(void)
{
setupFlash();
setupClocks();
setupNVIC();
systick_init(SYSTICK_RELOAD_VAL);
gpio_init_all();
afio_init();
setupADC();
setupTimers();
setupUSART(USARTx, SERIAL_BAUDRATE);
gpio_set_mode(GPIOA, 0, GPIO_OUTPUT_PP);
gpio_write_bit(GPIOA, 0, 0);
gpio_set_mode(GPIOA, 1, GPIO_OUTPUT_PP);
gpio_write_bit(GPIOA, 1, 0);
gpio_set_mode(GPIOA, 12, GPIO_OUTPUT_PP);
gpio_write_bit(GPIOA, 12, 0);
}
SSEffect::SSEffect(ShaderLibrary* lib, GLuint width, GLuint height)://, GLfloat pointRadius,bool blending):
ParticleEffect(lib,width,height)//,pointRadius,blending)
{
//cout<<"Shaderlib size = "<<m_shaderLibrary.shaders.size()<<endl;
m_fbos.resize(1);
glGenFramebuffersEXT(1,&m_fbos[0]);
createFramebufferTextures();
currentDepthBuffer="depth";
glEnable(GL_TEXTURE_2D);
glBindFramebufferEXT(GL_FRAMEBUFFER_EXT,m_fbos[0]);
glFramebufferTexture2DEXT(GL_FRAMEBUFFER_EXT,GL_COLOR_ATTACHMENT0_EXT,GL_TEXTURE_2D,m_glFramebufferTexs["thickness1"],0);
glFramebufferTexture2DEXT(GL_FRAMEBUFFER_EXT,GL_DEPTH_ATTACHMENT_EXT,GL_TEXTURE_2D,m_glFramebufferTexs["depth"],0);
dout<<"fbo[0] = "<<m_fbos[0]<<" status complete? "<<((glCheckFramebufferStatus(GL_FRAMEBUFFER)==GL_FRAMEBUFFER_COMPLETE)?"yes":"no")<<" "<<glCheckFramebufferStatus(GL_FRAMEBUFFER)<<endl;
glBindFramebufferEXT(GL_FRAMEBUFFER_EXT,0);
glDisable(GL_TEXTURE_2D);
setupTimers();
}
//----------------------------------------------------------------------
FLOCK::FLOCK(RTPSSettings* set, CL* c):System(set,c)
{
//seed random
srand ( time(NULL) );
std::vector<FLOCKParameters> vparams(0);
vparams.push_back(flock_params);
cl_FLOCKParameters= Buffer<FLOCKParameters>(cli, vparams);
calculate();
updateParams();
spacing = settings->GetSettingAs<float>("spacing");
dout<<"spacing ="<<spacing<<endl;
//set up the grid
setupDomain(flock_params.smoothing_distance/flock_params.simulation_scale,flock_params.simulation_scale);
//set up the timers
setupTimers();
//setup the sorted and unsorted arrays
prepareSorted();
#ifdef CPU
dout<<"RUNNING ON THE CPU"<<endl;
#endif
#ifdef GPU
dout<<"RUNNING ON THE GPU"<<endl;
//should be more cross platform
string flock_source_dir = settings->GetSettingAs<string>("rtps_path") + "/" + std::string(FLOCK_CL_SOURCE_DIR);
cli->addIncludeDir(flock_source_dir);
rules = Rules(flock_source_dir, cli, timers["rules_gpu"]);
euler_integration = EulerIntegration(flock_source_dir, cli, timers["euler_gpu"]);
#endif
//renderer->setParticleRadius(spacing);
}
void init(void) {
setupFlash();
setupClocks();
setupNVIC();
systick_init(SYSTICK_RELOAD_VAL);
gpio_init_all();
afio_init();
setupADC();
setupTimers();
setupUSB();
boardInit();
//for debug
gpio_set_mode(GPIOA, 2, GPIO_AF_OUTPUT_PP);
gpio_set_mode(GPIOA, 3, GPIO_INPUT_FLOATING);
usart_init(USART2);
usart_set_baud_rate(USART2, STM32_PCLK1, 57600);
usart_enable(USART2);
/*delay(1000);
TxDString("hello pandora\r\n");*/
}
void * processQueries(void * QSptr)
{
setupTimers();
defineTimer(setupSecs);
defineTimer(findDiagonals);
defineTimer(findClumps);
defineTimer(filterClumps);
defineTimer(processClumps);
defineTimer(printClumpss);
defineTimer(totalTimer);
// Use skipDist of 1 for query, regardless of what was used to create the hash table.
int skipDist = 1;
// Cache the wordLen on the stack to speed loop access.
QueryState_t * QS = (QueryState_t *) QSptr;
AlignmentArgs_t * AAs = QS->AAs;
int wordLen = AAs->wordLen;
int maxHits = AAs->maxHits;
ROFF *startingOffs = AAs->startingOffs;
#ifdef STATS
// Let's keep some statistics about the queries we process.
int queryCount = 0;
int totalQueryLength = 0;
uint64_t totalTotalCount = 0;
int minQLength = 1000000000;
int maxQLength = 0;
int minTotalCount = 1000000000;
int maxTotalCount = 0;
uint64_t totalClumpsOut = 0;
int minClumpsPerQuery = 1000000000;
int maxClumpsPerQuery = -1;
int totalNonAlignedQueries = 0;
#endif
/////
// Now we are ready to go into the main query read loop.
/////
// Calculate some masks for use later.
UINT hashMask = ((UINT)0xFFFFFFFF) >> (32 - 2*wordLen);
int hashSaveLength = wordLen - skipDist;
startTime();
// To get started, make sure we have read a first query.
// This is a partial unwind of the first time through the loop.
// It allows the main thread to read the first query to get a query length estimate to use to create the other threads.
if (QS->queryLen == 0) readNextQuery(AAs, QS);
while (QS->queryLen > 0)
{
///////
// First Phase. Read in the query, reverse it, and do the initial hashing.
///////
// See if we need to reallocate the query length dependent structures.
if (QS->queryLen > QS->maxQueryLength) reallocNewMaxQueryLength(QS);
QOFF qbaseCount = QS->queryLen;
#ifdef STATS
fprintQueryId(QS, stderr);
#endif
#ifdef QUERYSTATS
struct timeval starttime, endtime;
if (AAs->queryStats)
{
QS->alignCount = 0;
QS->alignOutCount = 0;
QS->DPCount = 0;
QS->usec = 0;
QS->seedMatches = 0;
QS->diagRegionCount = 0;
QS->diagRegionTotal = 0;
gettimeofday(&starttime, NULL);
}
#endif
/////
// Now match the query against both the reference DNA and its reverse-complement strand.
// Therefore the bases in the reversed query are also complemented.
/////
// Do the forward query first.
int offsetCount = ((qbaseCount - wordLen)/skipDist) + 1;
for (int rev=0; rev<=1; rev++)
{
QS->reversed = (BOOL)rev;
if (QS->reversed)
{
QS->queryCodeBuf = QS->reverseCodeBuf;
QS->queryBuf = QS->reverseBuf;
}
else
{
QS->queryCodeBuf = QS->forwardCodeBuf;
QS->queryBuf = QS->forwardBuf;
}
/////
// Find the hash seeds, filter overhits, and fill in structures from the hash table.
/////
#ifdef STATS
UINT maxHitsOverCount = 0;
#endif
// The loop complication is because we want to both encode each base once, and skip over non-ACGT codes.
UINT totalCount = 0;
int baseOff = 0;
int endingOffset = qbaseCount - wordLen;
UINT hashCode = 0;
UINT partialHashCode = 0;
int badOffset = generateMatches4UNPto2Fast(QS->queryCodeBuf, baseOff, wordLen, &hashCode);
while (TRUE)
{
if (badOffset != 0)
{
// Get rid of all the bad ones in a row.
while (badOffset <= endingOffset && QS->queryCodeBuf[badOffset] > 3) badOffset += 1;
// Make sure the ones we skipped over have their count set to zero.
// We need to handle the case where the above has gone too far.
badOffset = MIN(badOffset, endingOffset + 1);
// fprintf(stderr, "After throwing away bases, badOffset %d baseOff %d endingOffset %d \n", badOffset, baseOff, endingOffset);
for (int i=baseOff; i<badOffset; i++) QS->offsetCounts[i].count = 0;
// Move forward on the query.
baseOff = badOffset;
if (baseOff > endingOffset) break;
// Try to load entire word.
badOffset = generateMatches4UNPto2Fast(QS->queryCodeBuf, baseOff, wordLen, &hashCode);
continue;
}
// The previous read was good, so process it.
// Max out before we overflow.
UINT count = startingOffs[hashCode+1] - startingOffs[hashCode];
if (count <= maxHits)
{
totalCount += count;
QS->offsetCounts[baseOff].count = count;
QS->offsetCounts[baseOff].sOffset = startingOffs[hashCode];
QS->offsetCounts[baseOff].newCount = 0;
}
else
{
#ifdef STATS
maxHitsOverCount += 1;
#endif
QS->offsetCounts[baseOff].count = 0;
}
// and just get the next skipDist worth
baseOff += 1;
if (baseOff > endingOffset) break;
badOffset = generateMatches4UNPto2Fast(QS->queryCodeBuf, baseOff + hashSaveLength, 1, &partialHashCode);
// and tack it on to the rest from the previous get.
hashCode = ((hashCode << 2) | partialHashCode) & hashMask;
}
#ifdef STATS
fprintf(stderr, "K-mers above maxHits %u\n", maxHitsOverCount);
totalTotalCount += totalCount;
if (totalCount > 0 && totalCount < minTotalCount) minTotalCount = totalCount;
if (totalCount > maxTotalCount) maxTotalCount = totalCount;
#endif
#ifdef QUERYSTATS
if (AAs->queryStats)QS->seedMatches += totalCount;
#endif
addToTimer(setupSecs);
// If the totalCount is zero, we have no hits to process.
if (totalCount == 0) continue;
/////
// Second Phase. Go through all hash matches, and look for diagonal fragments.
/////
int fragCount = findFragmentsSort(AAs, QS, offsetCount);
addToTimer(findDiagonals);
/////
// Third Phase. Put Fragments into potential alignments (clumps).
/////
processFragmentsGapped(AAs, QS, fragCount);
addToTimer(findClumps);
}
// Align and Score clumps, filtering those that don't meet thresholds.
postProcessClumps(QS, AAs);
addToTimer(processClumps);
// Run OQC algorithm if requested.
// If not, at least get rid of duplicates.
if (AAs->OQC) postFilterBySimilarity(AAs, QS);
else postFilterRemoveDups(AAs, QS);
addToTimer(filterClumps);
// The file lock and unlock here act as the thread synchromization mechanism.
// This will ensure that all alignments for a given query are in contiguous lines in the output file.
// Otherwise, many downstream tools such as samtools will be unhappy.
flockfile(AAs->outFile);
// This is to avoid compiler warning when STATS not on.
#ifdef STATS
int tempClumpsPerQuery = printClumps(QS, AAs);
#else
printClumps(QS, AAs);
#endif
funlockfile(AAs->outFile);
addToTimer(printClumpss);
#ifdef STATS
queryCount += 1;
totalQueryLength += qbaseCount;
if (qbaseCount < minQLength) minQLength = qbaseCount;
if (qbaseCount > maxQLength) maxQLength = qbaseCount;
totalClumpsOut += tempClumpsPerQuery;
if (tempClumpsPerQuery > maxClumpsPerQuery) maxClumpsPerQuery = tempClumpsPerQuery;
if (tempClumpsPerQuery > 0 && tempClumpsPerQuery < minClumpsPerQuery) minClumpsPerQuery = tempClumpsPerQuery;
if (tempClumpsPerQuery == 0) totalNonAlignedQueries += 1;
#endif
#ifdef QUERYSTATS
if (AAs->queryStats)
{
gettimeofday(&endtime, NULL);
QS->usec = ((endtime.tv_sec - starttime.tv_sec) * 1000000 +
(endtime.tv_usec - starttime.tv_usec));
printChars(AAs->qsFile, QS->queryID, 0, QS->queryIDLen);
double avgDiagRegionSize = (QS->diagRegionCount > 0) ? (((double)QS->diagRegionTotal/(double)QS->diagRegionCount)+0.0) : 0;
fprintf(AAs->qsFile, "\t%u\t%u\t%f\t%u\t%u\t%u\t%u\n", QS->queryLen, QS->seedMatches, avgDiagRegionSize,
QS->alignCount, QS->DPCount, QS->alignOutCount, QS->usec);
}
#endif
// Clear query state to get ready for next query.
resetQueryState(QS);
// Read the next query to setup for next iteration.
readNextQuery(AAs, QS);
}
//////////////////////
// Done with processing the query file.
// Close files and clean up storage.
/////////////////////
#ifdef TIMING
addToTimer(setupSecs);
endTime(totalTimer);
flockfile(stderr);
// if (AAs->threadCount > 1) fprintf(stderr, "Thread %d statistics.\n", QS->threadNum);
fprintTimerWithTotalPercent(stderr, "Query setup and hashing took: ", setupSecs, totalTimer);
fprintTimerWithTotalPercent(stderr, "Sorting k-mers and forming fragments took: ", findDiagonals, totalTimer);
fprintTimerWithTotalPercent(stderr, "Collecting fragments into clumps (using graph) took: ", findClumps, totalTimer);
fprintTimerWithTotalPercent(stderr, "Aligning and scoring clumps took: ", processClumps, totalTimer);
fprintTimerWithTotalPercent(stderr, "Filtering clumps took: ", filterClumps, totalTimer);
fprintTimerWithTotalPercent(stderr, "Printing clumps took: ", printClumpss, totalTimer);
funlockfile(stderr);
#endif
#ifdef STATS
if (AAs->verbose)
{
fprintf(stderr, "%d queries processed.\n", queryCount);
fprintf(stderr, "Query Lengths vary from %d to %d with average %d.\n",
minQLength, maxQLength, (totalQueryLength/queryCount));
fprintf(stderr, "Total Counts vary from %d to %d with average %"PRIu64".\n",
minTotalCount, maxTotalCount, (totalTotalCount/(2 * queryCount)));
fprintf(stderr, "There were %d queries with no Alignment.\n", totalNonAlignedQueries);
if (totalClumpsOut <= 0) fprintf(stderr, "No Alignments found.\n");
else
{
fprintf(stderr, "Total Alignments Output = %"PRIu64", average %4.2f per non-zero query.\n", totalClumpsOut,
((double)totalClumpsOut/(queryCount-totalNonAlignedQueries)));
fprintf(stderr, "Of those queries with an alignment, the min number of alignments was %d.\n", minClumpsPerQuery);
fprintf(stderr, "The max number of alignments per query was %d.\n", maxClumpsPerQuery);
}
}
#endif
// Deallocate thread local structures.
finalizeQueries(QS);
disposeQueryState(QS);
return NULL;
}
int main(int argc, char* argv[]) {
DDRC = 0x0f;
DDRD = 0xf0;
DDRB = 0xC3;
PORTB = 0;
PORTC = 0;
PORTD = 0;
serial_init();
send_string_serial("Starting up...\n");
_delay_ms(500);
speed1 = 4000;
speed2 = 4000;
speed3 = 4000;
speed4 = 1250;
counter1 = 1;
counter2 = 1;
counter3 = 1;
counter4 = 1;
needState1 = FALSE;
needState2 = FALSE;
needState3 = FALSE;
movingForward1 = FALSE;
movingForward2 = FALSE;
movingForward3 = FALSE;
currentState1 = 0;
currentState2 = 0;
currentState3 = 0;
motorState1 = getMotorState(currentState1);
motorState2 = getMotorState(currentState2) << 4;
unsigned char state = getMotorState(currentState3);
motorState3 = ((state & 0x0C) << 4) | (state & 0x03);
setupTimers();
char index = 0;
int speeds[3];
char* buffer = (char*) speeds;
while (1) {
if (UCSRA & (1<<RXC)) {
buffer[index++] = UDR;
if (index == 6) {
// do something with the buffer
setSpeed1(speeds[0]);
setSpeed2(speeds[1]);
setSpeed3(speeds[2]);
index = 0;
send_string_serial("Received full message\n\r");
}
}
checkSerialSend();
if (needState1) {
currentState1 = getNextState(currentState1, movingForward1);
motorState1 = getMotorState(currentState1);
needState1 = FALSE;
}
if (needState2) {
currentState2 = getNextState(currentState2, movingForward2);
motorState2 = getMotorState(currentState2) << 4;
needState2 = FALSE;
}
if (needState3) {
currentState3 = getNextState(currentState3, movingForward3);
state = getMotorState(currentState3);
motorState3 = ((state & 0x0C) << 4) | (state & 0x03);
needState3 = FALSE;
}
/*
if (needsNewSpeed) {
currentSpeedIndex = (currentSpeedIndex + 1);
if (currentSpeedIndex == 0x40) {
currentSpeedIndex = 0;
send_string_serial("Loop...\n");
}
setSpeed1(speed[0][currentSpeedIndex]);
setSpeed2(speed[1][currentSpeedIndex]);
setSpeed3(speed[2][currentSpeedIndex]);
needsNewSpeed = FALSE;
}
*/
}
return 0;
}
Common::Error KyraEngine_v1::init() {
// Setup mixer
syncSoundSettings();
if (!_flags.useDigSound) {
if (_flags.platform == Common::kPlatformFMTowns) {
if (_flags.gameID == GI_KYRA1)
_sound = new SoundTowns(this, _mixer);
else
_sound = new SoundTownsPC98_v2(this, _mixer);
} else if (_flags.platform == Common::kPlatformPC98) {
if (_flags.gameID == GI_KYRA1)
_sound = new SoundPC98(this, _mixer);
else
_sound = new SoundTownsPC98_v2(this, _mixer);
} else if (_flags.platform == Common::kPlatformAmiga) {
_sound = new SoundAmiga(this, _mixer);
} else {
// In Kyra 1 users who have specified a default MT-32 device in the launcher settings
// will get MT-32 music, otherwise AdLib. In Kyra 2 and LoL users who have specified a
// default GM device in the launcher will get GM music, otherwise AdLib. Users who want
// MT-32 music in Kyra2 or LoL have to select this individually (since we assume that
// most users rather have a GM device than a MT-32 device).
// Users who want PC speaker sound always have to select this individually for all
// Kyra games.
MidiDriver::DeviceHandle dev = MidiDriver::detectDevice(MDT_PCSPK | MDT_MIDI | MDT_ADLIB | ((_flags.gameID == GI_KYRA2 || _flags.gameID == GI_LOL) ? MDT_PREFER_GM : MDT_PREFER_MT32));
if (MidiDriver::getMusicType(dev) == MT_ADLIB) {
_sound = new SoundAdLibPC(this, _mixer);
} else {
Sound::kType type;
const MusicType midiType = MidiDriver::getMusicType(dev);
if (midiType == MT_PCSPK || midiType == MT_NULL)
type = Sound::kPCSpkr;
else if (midiType == MT_MT32 || ConfMan.getBool("native_mt32"))
type = Sound::kMidiMT32;
else
type = Sound::kMidiGM;
MidiDriver *driver = 0;
if (MidiDriver::getMusicType(dev) == MT_PCSPK) {
driver = new MidiDriver_PCSpeaker(_mixer);
} else {
driver = MidiDriver::createMidi(dev);
if (type == Sound::kMidiMT32)
driver->property(MidiDriver::PROP_CHANNEL_MASK, 0x03FE);
}
assert(driver);
SoundMidiPC *soundMidiPc = new SoundMidiPC(this, _mixer, driver, type);
_sound = soundMidiPc;
assert(_sound);
// Unlike some SCUMM games, it's not that the MIDI sounds are
// missing. It's just that at least at the time of writing they
// are decidedly inferior to the AdLib ones.
if (ConfMan.getBool("multi_midi")) {
SoundAdLibPC *adlib = new SoundAdLibPC(this, _mixer);
assert(adlib);
_sound = new MixedSoundDriver(this, _mixer, soundMidiPc, adlib);
}
}
}
assert(_sound);
}
if (_sound)
_sound->updateVolumeSettings();
_res = new Resource(this);
assert(_res);
_res->reset();
if (_flags.isDemo) {
// HACK: check whether this is the HOF demo or the LOL demo.
// The LOL demo needs to be detected and run as KyraEngine_HoF,
// but the static resource loader and the sequence player will
// need correct IDs.
if (_res->exists("scene1.cps"))
#ifdef ENABLE_LOL
_flags.gameID = GI_LOL;
#else
error("Lands of Lore demo is not supported in this build");
#endif // !ENABLE_LOL
}
_staticres = new StaticResource(this);
assert(_staticres);
if (!_staticres->init())
error("_staticres->init() failed");
if (!screen()->init())
error("screen()->init() failed");
_timer = new TimerManager(this, _system);
assert(_timer);
setupTimers();
_emc = new EMCInterpreter(this);
assert(_emc);
setupOpcodeTable();
readSettings();
if (ConfMan.hasKey("save_slot")) {
_gameToLoad = ConfMan.getInt("save_slot");
if (!saveFileLoadable(_gameToLoad))
_gameToLoad = -1;
}
setupKeyMap();
// Prevent autosave on game startup
_lastAutosave = _system->getMillis();
return Common::kNoError;
}
// short_init is used by safecast to do a quick power-on
// it's special cased to shorten the "ON" duty-cycle
void short_init(void) {
setupFlash();
setupClocks();
setupNVIC();
setupTimers();
}
// Read the file and add settings to the settings map
ProjectSettings::ProjectSettings(const std::string filename)
{
setupTimers();
this->ParseFile(filename);
}
/******************************************************************
* Main-function
*/
int main(void) {
/**************************************
* Set the clock to run at 80 MHz
*/
SysCtlClockSet(SYSCTL_SYSDIV_2_5|SYSCTL_USE_PLL|SYSCTL_XTAL_16MHZ|SYSCTL_OSC_MAIN);
/**************************************
* Enable the floating-point-unit
*/
FPUEnable();
// We also want Lazystacking, so enable that too
FPULazyStackingEnable();
// We also want to put numbers close to zero to zero
FPUFlushToZeroModeSet(FPU_FLUSH_TO_ZERO_EN);
/**************************************
* Init variables
*/
uint16_t mapData[MAP_DATA_SIZE];
uint8_t stepDir = 0;
/**************************************
* Init peripherals used
*/
bluetooth_init();
init_stepper(); // Init the GPIOs used for the stepper and loading LED
InitI2C1(); // Init the communication with the lidar-unit through I2C
InitPWM();
setupTimers();
/**************************************
* State 2
*/
// Disable the timers that are used
disableTimer(TIMER1_BASE);
disableTimer(TIMER2_BASE);
// Enable all interrupts
IntMasterEnable();
/**************************************
* State 3
*/
// Indicate we should start with a scan regardless of what other things we have already got
// from UART-interrupt
// This means setting the appropriate bit in the status vector
stat_vec |= TAKE_MEAS;
/**************************************
* State 4
*/
// Contains main-loop where decisions should be made
for ( ; ; ) {
/**********************************
* Decision tree
*/
// Highest priority case first
// Check both interrupts at each iteration in the loop
if ( int_vec & UART_INT ) {
// Reset the indication
int_vec &= ~UART_INT;
// Remove drive-stop flag to enable movement
stat_vec &= ~DRIVE_STOP;
// Init data array
uint8_t dataArr[MAX_UART_MSG_SIZE];
// Collect the message
if ( readUARTMessage(dataArr, MAX_UART_MSG_SIZE) < SUCCESS ) {
// If we have recieved more data than fits in the vector we should simply
// go in here again and grab data
int_vec |= UART_INT;
}
// We have gathered a message
// and now need to determine what the message is
parseMsg(dataArr, MAX_UART_MSG_SIZE);
}
// Checking drive (movement) interrupt
if ( int_vec & TIMER2_INT ) {
int_vec &= ~TIMER2_INT;
// Disable TIMER2
disableTimer(TIMER2_BASE);
// Set drive-stop in status vector
stat_vec |= DRIVE_STOP;
}
// Checking measure interrupt
if ( int_vec & TIMER1_INT ) {
int_vec &= ~TIMER1_INT;
// Disable TIMER1
disableTimer(TIMER1_BASE);
// Take reading from LIDAR
mapData[stepCount++] = readLidar();
SysCtlDelay(2000);
// Take step
// Note: We need to take double meas at randvillkor (100) !!!!!
if ( stepCount > 0 && stepCount < 100 ) {
stepDir = 1;
}
else if ( stepCount >= 100 && stepCount < 200) {
stepDir = 0;
}
else {
stepDir = 1;
stepCount = 0;
// Reset busy-flag
stat_vec &= ~TAKE_MEAS;
}
step = takeStep(step, stepDir);
// Request reading from LIDAR
reqLidarMeas();
if ( stat_vec & TAKE_MEAS ) {
// Restart TIMER1
enableTimer(TIMER1_BASE, (SYSCLOCK / MEASUREMENT_DELAY));
}
else {
sendUARTDataVector(mapData, MAP_DATA_SIZE);
stat_vec &= ~BUSY;
}
}
// Check the drive_stop flag, which always should be set unless we should move
if ( stat_vec & DRIVE_STOP ) {
// Stop all movement
SetPWMLevel(0,0);
halt();
// MAKE SURE all drive-flags are not set
stat_vec &= ~(DRIVE_F | DRIVE_L | DRIVE_R | DRIVE_LL | BUSY);
}
// Should we drive?
else if ( stat_vec & DRIVE ) {
// Remove drive flag
stat_vec &= ~DRIVE;
// Increase PWM
increase_PWM(0,MAX_FORWARD_SPEED,0,MAX_FORWARD_SPEED);
if ( stat_vec & DRIVE_F ) {
enableTimer(TIMER2_BASE, DRIVE_FORWARD_TIME);
}
else if ( stat_vec & DRIVE_LL ) {
enableTimer(TIMER2_BASE, DRIVE_TURN_180_TIME);
}
else {
enableTimer(TIMER2_BASE, DRIVE_TURN_TIME);
}
}
if ( !(stat_vec & BUSY) ) {
// Tasks
switch ( stat_vec ) {
case ((uint8_t)DRIVE_F) :
// Call drive function
go_forward();
// Set the drive flag & BUSY
stat_vec |= DRIVE | BUSY;
break;
case ((uint8_t)DRIVE_L) :
// Call drive-left function
go_left();
// Set the drive flag
stat_vec |= DRIVE | BUSY;
break;
case ((uint8_t)DRIVE_R) :
// Call drive-right function
go_right();
// Set the drive flag
stat_vec |= DRIVE | BUSY;
break;
case ((uint8_t)DRIVE_LL) :
// Call turn 180-degrees function
go_back();
// Set the drive flag
stat_vec |= DRIVE | BUSY;
break;
case ((uint8_t)TAKE_MEAS) :
// Request reading from LIDAR
reqLidarMeas();
// Start TIMER1
enableTimer(TIMER1_BASE, (SYSCLOCK / MEASUREMENT_DELAY)); // if sysclock = 1 s, 1/120 = 8.3 ms
// We are busy
stat_vec |= BUSY;
break;
default:
break;
}
}
}
}
