int main()
{
int x,y;
board A[b_][b_];
Array_Setup(A);
do
{
V_Array_setup(A);
for(y=0;y<b_;y++)
{
for(x=0;x<b_;x++)
{
if(A[y][x].real == (b_ * b_))
{
printf("*\t");
}
else
{
printf("%i\t",A[y][x].real);
}
}
printf("\n\n\n");
}
printf("\n\n\n");
printf("\n\n\n");
printV(A);
printf("\n\n\n");
printf("\n\n\n");
input(A);
system("cls");
printf("\n\n\n");
}while(-1);
return 0;
}
// _______________________________________________________
void KeyWordDetector::generateWindowFunction() {
computeWindow(window, WINDOW_LENGTH, FFT_WIN_TYP_HAMMING);
// Compute window normalisation factors (weighing factors)
for (int i = 0; i < WINDOW_LENGTH/2; i++){
windowNormS1 += window[i];
windowNormS2 += pow(window[i], 2);
}
// Multiply by two because we only store half of the window
windowNormS1 *= 2;
windowNormS2 *= 2;
// Power spectrum scale is for perfomance resons calculated only once
powerSpectrumScale = 1.0f;
//powerSpectrumScale = 2/(pow(windowNormS1, 2));
#ifdef DEBUG_KD_WINDOW
Serial.println("Window:");
printV(window, WINDOW_LENGTH/2, true);
Serial.print("Window normalisation: S1: ");
Serial.print(windowNormS1);
Serial.print(", S2: ");
Serial.println(windowNormS2);
Serial.print("PowerSpectrumScale: ");
Serial.println(powerSpectrumScale);
#endif
}
static void
error (Info_t* ip, Site* s, float x, float y)
{
fprintf (stderr, "Unsorted vertex list for site %d (%.16f,%.16f), pt (%f,%f)\n",
s->sitenbr, s->coord.x, s->coord.y, x, y);
printV (ip->verts);
}
void DotFont::print() const
{
if (_index == _pattern_length)
this->clear(false);
else
_vertical ? printV() : printH();
}
void printKevin(int x, int y) {
printK(x,y);
printE(x+4*SIZE+GAP,y);
printV(x+7*SIZE+2*GAP,y);
printI(x+11*SIZE+3*GAP,y);
printN(x+12*SIZE+4*GAP,y);
}
void printDevina(int x, int y) {
printD(x,y);
printE(x+4*SIZE+GAP,y);
printV(x+7*SIZE+2*GAP,y);
printI(x+11*SIZE+3*GAP,y);
printN(x+12*SIZE+4*GAP,y);
printA(x+16*SIZE+5*GAP,y);
}
int main(){
unsigned int i;
std::vector<int> first;
first.push_back(1);
first.push_back(2);
/*first.push_back(3);
first.push_back(4);
first.push_back(5);
first.push_back(6);
first.push_back(7);*/
printV(first);
std::vector<int> reverseV=reverse(first);
printV(reverseV);
reverseV=reverse(first);
std::vector<int> reverseVO=reverse(first);
printV(reverseVO);
}
void printGameOver(int x, int y) {
printG(x,y);
printA(x+5*SIZE+GAP, y);
printM(x+8*SIZE+2*GAP, y);
printE(x+13*SIZE+3*GAP, y);
printO(x+16*SIZE+5*GAP, y);
printV(x+20*SIZE+6*GAP, y);
printE(x+24*SIZE+7*GAP, y);
printR(x+27*SIZE+8*GAP, y);
}
template <typename ValT> template <typename T> BsTree<ValT>::BsTree(T v) {
std::sort(v.begin(), v.end());
printV(v);
// Use mid element as root, to balance the tree
root = new Node((ValT)v[v.size() / 2]);
v.erase(v.begin() + v.size() / 2);
for (auto el : v)
insert(el);
}
// _______________________________________________________
void KeyWordDetector::generateMelFilterBank() {
// Generate mel points
int arraySize = NUM_MEL_FILTER_BANKS+2;
float* mel = melPoints(MEL_MIN_FREQUENCY, MEL_MAX_FREQUENCY, NUM_MEL_FILTER_BANKS);
// Calculate frequencies of this mel points
float* freq = melsToFrequencies(mel, arraySize);
// Map the frequencies to bins
frequenciesToBins(melBins, freq, arraySize, FFT_SIZE, SAMPLING_RATE);
#ifdef DEBUG_KD_MEL
Serial.print("Mel-Scaled Points:\n");
printV(mel, arraySize, true);
Serial.print("Mel-Scaled Frequencies:\n");
printV(freq, arraySize, true);
Serial.print("FFT Bins:\n");
printV(melBins, arraySize, true);
#endif
// Only the melbins are required, free the rest
free(freq);
free(mel);
}
// _______________________________________________________
void KeyWordDetector::performFFT() {
// Apply the windowing on the vector
//applyWindowing(vReal, window, WINDOW_LENGTH, true);
// Apply the windowing on the vector
// TODO: Seems to work way better without windowing (but why?)
/*
for (int i = 0; i < WINDOW_LENGTH/2; i++) {
vReal[i] *= window[i];
vReal[WINDOW_LENGTH - (i + 1)] *= window[i];
} */
// Padd with 0s at the end if FFT size is not the same as windowLength and reset imaginary vector
for (size_t i = 0; i < FFT_SIZE; i++) {
if (i >= WINDOW_LENGTH) vReal[i] = 0;
vImag[i] = 0;
}
// Compute FFT (is done inPlace)
computeFFT(vReal, vImag, FFT_SIZE);
// Get the magnitude of the complex value (inPlace)
//complexToMagnitude(vReal, vImag, FFT_SIZE);
// Get the magnitude of the complex value and store in powerSpec
complexToMagnitude(vReal, vImag, powerSpec, FFT_SIZE);
#ifdef DEBUG_KD_MAJOR_FREQUENCY
// Compute the major peak for DEBUG_KDging
double peak = majorPeak(vReal, FFT_SIZE, SAMPLING_RATE);
Serial.print("Major peak at: ");
Serial.print(peak);
Serial.println("Hz");
#endif
#ifdef DEBUG_KD_FFT
printV(vReal, FFT_SIZE, false);
Serial.print("\n");
#endif
}
void dumpCalibration()
{
printString("V=" CHEALI_CHARGER_VERSION_STRING);
printNL();
printV('E',0,CHEALI_CHARGER_EEPROM_CALIBRATION_VERSION);
printV('E',1,CHEALI_CHARGER_EEPROM_PROGRAMDATA_VERSION);
printV('E',2,CHEALI_CHARGER_EEPROM_SETTINGS_VERSION);
AnalogInputs::CalibrationPoint p;
FOR_ALL_PHY_INPUTS(it) {
AnalogInputs::getCalibrationPoint(p,it,0);
printV('a',it, p.x);
printV('r',it, p.y);
AnalogInputs::getCalibrationPoint(p,it,1);
printV('A',it, p.x);
printV('R',it, p.y);
}
}
void printPage(const byte clientsel, const byte deviceIdx) {
// Index
printP(clientsel, TXTIND);
printP(clientsel, TXTCOLON);
printV(clientsel, deviceIdx);
printP(clientsel, ANBSP);
// DeviceID
printP(clientsel, TXTDEVICEID);
printP(clientsel, TXTCOLON);
printV(clientsel, mdevices[deviceIdx].getDeviceID());
// Type
printP(clientsel, ANBSP);
if (mdevices[deviceIdx].getType() != 0) {
printP(clientsel, TXTTYPE);
printP(clientsel, TXTCOLON);
printV(clientsel, mdevices[deviceIdx].getType());
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
}
// CommandID
printP(clientsel, TXTCOMMAND );
printP(clientsel, TXTCOLON);
printVstr(clientsel, mdevices[deviceIdx].getCommand());
// Status
printP(clientsel, ANBSP);
printP(clientsel, TXTSTATUS );
printP(clientsel, TXTCOLON);
printVstr(clientsel, mdevices[deviceIdx].getStatus());
// Value
if (mdevices[deviceIdx].commandValue != 0) {
printP(clientsel, ANBSP);
printP(clientsel, TXTVALUE );
printP(clientsel, TXTCOLON);
printVstr(clientsel, mdevices[deviceIdx].getValue());
}
// ExtData
if (printVstr(clientsel, mdevices[deviceIdx].getExtData(), true) > 0) {
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
printP(clientsel, TXTEXTDATA );
printP(clientsel, TXTCOLON);
printVstr(clientsel, mdevices[deviceIdx].getExtData());
}
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
if (EEPROMReadInt(PARAMS(deviceIdx, 1)) != FFFF) {
// Parameter 1
printP(clientsel, TXTPAR1);
printP(clientsel, TXTCOLON);
printV(clientsel, EEPROMReadInt(PARAMS(deviceIdx, 1)));
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
}
if (EEPROMReadInt(PARAMS(deviceIdx, 2)) != FFFF) {
// Parameter 2
printP(clientsel, TXTPAR2);
printP(clientsel, TXTCOLON);
printV(clientsel, EEPROMReadInt(PARAMS(deviceIdx, 2)));
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
}
if (EEPROMReadInt(PARAMS(deviceIdx, 3)) != FFFF) {
// Parameter 3
printP(clientsel, TXTPAR3);
printP(clientsel, TXTCOLON);
printV(clientsel, EEPROMReadInt(PARAMS(deviceIdx, 3)));
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
}
if (EEPROMReadInt(PARAMS(deviceIdx, 4)) != FFFF) {
// Parameter 3
printP(clientsel, TXTPAR4);
printP(clientsel, TXTCOLON);
printV(clientsel, EEPROMReadInt(PARAMS(deviceIdx, 4)));
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
}
if (EEPROMReadInt(PARAMS(deviceIdx, 5)) != FFFF) {
// Parameter 5
printP(clientsel, TXTPAR5);
printP(clientsel, TXTCOLON);
printV(clientsel, EEPROMReadInt(PARAMS(deviceIdx, 5)));
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
}
// In deviceIdx
if (mdevices[deviceIdx].getInput() != 0) {
printP(clientsel, TXTDEVIND);
printP(clientsel, TXTCOLON);
printV(clientsel, mdevices[deviceIdx].getInput());
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
}
// Pin
if (mdevices[deviceIdx].getPin() != 0) {
printP(clientsel, TXTPIN);
printP(clientsel, TXTCOLON);
printV(clientsel, mdevices[deviceIdx].getPin());
printP(clientsel, AOPEN);
printP(clientsel, BR);
printP(clientsel, SLASH);
printP(clientsel, ACLOSE);
}
if (DEBUG_WEB) dbg.println();
return;
}
int printResponse(const byte clientsel, const byte deviceIdx, const bool getLen = false) {
int len = 0;
len += printP(clientsel, TXTSBRACKETOPEN, getLen);
// DeviceID
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTDEVICEID, getLen);
printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTCOLON, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printV(clientsel, mdevices[deviceIdx].getDeviceID(), getLen);
len += printP(clientsel, TXTQUOTE, getLen);
// CommandID
len += printP(clientsel, TXTCOMMA, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTCOMMAND , getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTCOLON, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printVstr(clientsel, mdevices[deviceIdx].getCommand(), getLen);
len += printP(clientsel, TXTQUOTE, getLen);
// Status
len += printP(clientsel, TXTCOMMA, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTSTATUS , getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTCOLON, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printVstr(clientsel, mdevices[deviceIdx].getStatus(), getLen);
len += printP(clientsel, TXTQUOTE, getLen);
// Value
if (mdevices[deviceIdx].commandValue != 0) {
len += printP(clientsel, TXTCOMMA, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTVALUE , getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTCOLON, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printVstr(clientsel, mdevices[deviceIdx].getValue(), getLen);
len += printP(clientsel, TXTQUOTE, getLen);
}
// InOut
len += printP(clientsel, TXTCOMMA, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTINOUT , getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTCOLON, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printVstr(clientsel, "1", getLen);
len += printP(clientsel, TXTQUOTE, getLen);
// ExtData
if (printVstr(clientsel, mdevices[deviceIdx].getExtData(), true) > 0) {
len += printP(clientsel, TXTCOMMA, getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTEXTDATA , getLen);
len += printP(clientsel, TXTQUOTE, getLen);
len += printP(clientsel, TXTCOLON, getLen);
len += printVstr(clientsel, mdevices[deviceIdx].getExtData(), getLen);
}
len += printP(clientsel, TXTSBRACKETCLOSE, getLen);
if (DEBUG_WEB) dbg.println();
return len+1; // WHYYYYYYYYYYYY was not needed before refactor on 1/13/2015
}
void DotChar::print() const {
if (_index == _df.length)
this->clear(false);
else
_vertical ? printV() : printH();
}
std::string Terrain::setup()
{
std::string empty = "> No file!";
glm::vec3 top = glm::vec3(0, 1, 0);
if (fileExists(tname) == true) {
std::cout << "> Initializing file...\n";
return tname;
}
else {
int numc = rand() % 2048000;
num = std::pow(2, sizes);
int sn = num / 2;
int yy = miny;
int total = num * num * 3;
int length = 0;
int width = 0;
float precision = precise;
maxy *= precision;
std::cout << "> Generating plane...\n";
for (float loop = -sn; loop <= sn + num; loop += precision) {
std::vector <glm::vec3> store;
float x = loop;
float y;
float z;
float r = rand() % 2;
for (float loopy = -sn; loopy <= sn; loopy += precision) {
glm::vec3 temp;
z = loopy;
float p = randFloat(miny, maxy);
float s = rand() % 16;
if (s > avg) {
y = p;
}
else {
y = miny;
}
temp.x = x;
temp.y = y;
temp.z = z;
store.push_back(temp);
}
length = store.size();
full.push_back(store);
}
width = full.size();
//std::cout << full.max_size() << std::endl;
int pt1 = 1;
int pt2 = length + 1;
int pt3 = 2;
int next1 = length + 2;
int next2 = 3;
int indicesA = width * length;
int ctrl = (length + 1) * (width + 1);
ctrlamount = ctrl;
std::vector <glm::vec3> cpoints;
glm::vec3 meh;
for (int u = 0; u < full.size(); u++) {
std::vector <glm::vec3> temp = full.at(u);
for (int q = 0; q < temp.size(); q++) {
glm::vec3 tmp = temp.at(q);
cpoints.push_back(tmp);
meh = tmp;
}
}
std::vector <glm::vec3> cnormals;
//((num + 3) * (num + 2));
std::cout << "> Generating points...\n> Total points: " << cpoints.size() << "\n";
normals.push_back(top);
for (int i = 0; i < ctrl; i++) {
if (i == 0) {
indices.push_back(pt1);
//cnormals.push_back(cpoints.at(pt1));
indices.push_back(pt2);
//cnormals.push_back(cpoints.at(pt2));
indices.push_back(pt3);
//cnormals.push_back(cpoints.at(pt3));
}
else if (next2 % length == 0) {
next1 += 1;
next2 += length;
indices.push_back(next1);
//cnormals.push_back(cpoints.at(next1));
indices.push_back(next2);
//cnormals.push_back(cpoints.at(next2));
next1 -= length - 1;
next2 -= length - 1;
indices.push_back(next1);
//cnormals.push_back(cpoints.at(next1));
indices.push_back(next2);
//cnormals.push_back(cpoints.at(next2));
next1 += length;
next2 += 1;
}
else if (i == ctrl - 1) {
indices.push_back(next1);
//cnormals.push_back(cpoints.at(next1));
indices.push_back(next2);
//cnormals.push_back(cpoints.at(next2));
}
else {
indices.push_back(next1);
//cnormals.push_back(cpoints.at(next1));
indices.push_back(next2);
//cnormals.push_back(cpoints.at(next2));
next1 += 1;
next2 += 1;
}
}
std::cout << "> Generating normals...\n";
std::vector <glm::vec3> fnormals;
glm::vec3 cache1;
glm::vec3 cache2;
glm::vec3 cache3;
/*
for (int o = 0; o < cnormals.size() - 2; o++) {
cache1 = cnormals.at(o);
cache2 = cnormals.at(o + 1);
cache3 = cnormals.at(o + 2);
if (o % 3 == 0) {
fnormals.push_back(computeNormal(cache1, cache2, cache3));
}
}
*/
if (isFile == true) {
std::string s1 = std::to_string(sizes);
std::string s2 = std::to_string(precise);
std::string s3 = std::to_string(numc);
std::string all = "./res/worlds/" + tname + "." + s1 + "_" + s2 + "_" + s3 + ".obj";
std::ofstream file(all);
file.close();
file.open(all);
std::cout << "> Writing to file...\n";
//file << "# " << Display::getTime();
master.append("# " + Display::getTime());
//file << "# " << "Made by PathFinder v0.0.5" << "\n\n";
master.append("# Made by PathFinder v0.0.5\n\n");
for (int lp = 0; lp < full.size(); lp++) {
std::vector <glm::vec3> tp = full.at(lp);
for (int lpp = 0; lpp < tp.size(); lpp++) {
//file << "v" << printV(tp.at(lpp));
master.append("v" + printV(tp.at(lpp)));
}
}
//file << "vt " << 0.000000 << "1.000000\n";
master.append("vt 0.000000 1.000000\n");
//file << "vn " << "0 " << "1 " << "0\n";
//master.append("vn" + printV(top));
for (int x = 0; x < normals.size(); x++) {
master.append("vn" + printV(normals.at(x)));
}
for (int a = 0; a <= ctrl; a++) {
int r = 1;//rand() % 4 + 1;
//file << "f " << indices.at(a) << "/1" << "/" << r << " " << indices.at(a + 1) << "/1" << "/" << r
// << " " << indices.at(a + 2) << "/1" << "/" << r << "\n";
std::string e1 = std::to_string(indices.at(a));
std::string e2 = std::to_string(indices.at(a + 1));
std::string e3 = std::to_string(indices.at(a + 2));
std::string e4 = std::to_string(r);
master.append("f " + e1 + "/1/" + e4 + " " + e2 + "/1/" + e4 + " " + e3 + "/1/" + e4 + "\n");
}
file << master;
std::cout << "> Generated size: " << indices.size() << "\n";
file.close();
return all;
}
else {
std::cout << "> Transferring world...\n";
return empty;
}
}
}