// Demonstrate bounding polygonal contours with circles and rectangles.
//
DemoDisplay(const cv::Mat &s):
source(s), bounds(s.size(), CV_8UC3),
bar(100), maxBar(std::numeric_limits<uchar>::max())
{
makeWindow("Original", source, 2);
makeWindow("Bounds", bounds);
makeTrackbar("Threshold:", "Original", &bar, maxBar);
makeTrackbar("Threshold:", "Bounds", &bar, maxBar);
cv::imshow("Original", source);
}
// Return src after applying a default Gaussian blur with a kernel of size
// (kernelSize x kernelSize) and converting to grayscale and showing the
// results.
//
static cv::Mat showOriginalBlurGray(const cv::Mat &src, int kernelSize)
{
static const double sigmaX = 0.0;
static const double sigmaY = 0.0;
static const int borderKind = cv::BORDER_DEFAULT;
const cv::Size kernel(kernelSize, kernelSize);
makeWindow("Original", src, 2);
cv::Mat blur;
cv::GaussianBlur(src, blur, kernel, sigmaX, sigmaY, borderKind);
makeWindow("Original Blur", blur);
cv::Mat result;
cv::cvtColor(blur, result, cv::COLOR_RGB2GRAY);
makeWindow("Original Blurred Grayscale", result);
return result;
}
/*
** makeVisible().
** We can't really make windows visible, or invisible. So we
** have to delete the entire window when making it visible,
** and create it again when making it visible.
*/
void
makeVisible (TuiGenWinInfoPtr winInfo, int visible)
{
/* Don't tear down/recreate command window */
if (winInfo->type == CMD_WIN)
return;
if (visible)
{
if (!winInfo->isVisible)
{
makeWindow (
winInfo,
(winInfo->type != CMD_WIN && !m_winIsAuxillary (winInfo->type)));
winInfo->isVisible = TRUE;
}
tuiRefreshWin (winInfo);
}
else if (!visible &&
winInfo->isVisible && winInfo->handle != (WINDOW *) NULL)
{
winInfo->isVisible = FALSE;
tuiClearWin (winInfo);
tuiDelwin (winInfo->handle);
winInfo->handle = (WINDOW *) NULL;
}
return;
} /* makeVisible */
// Find and display contours in image s.
//
DemoDisplay(const cv::Mat &s):
sourceImage(s), grayImage(grayScale(s)), bar(23), maxBar(100)
{
sourceImage.copyTo(cornersImage);
makeWindow("Corners", cornersImage);
makeTrackbar("Max Corners:", "Corners", &bar, maxBar);
}
RuskWindow* makeRusk()
{
RuskWindow *rusk;
if((rusk = malloc(sizeof(RuskWindow))) == NULL)
{
return NULL;
}
if(makeWindow(rusk) != 0)
{
return NULL;
}
if(setupWebView(rusk) != 0)
{
return NULL;
}
if(connectDataBase(rusk) != 0)
{
return NULL;
}
g_ruskCounter++;
return rusk;
}
// Show application of Laplacian() to src.
//
static void showLaplacian(const cv::Mat &src, int kernelSize)
{
static const int borderKind = cv::BORDER_DEFAULT;
static const int depth = CV_16S;
static const double scale = 1.0;
static const double delta = 0.0;
static const double alpha = 0.5;
static const double beta = 0.5;
static const double gamma = 0.0;
cv::Mat dst, absDst;
cv::Laplacian(src, dst, depth, kernelSize, scale, delta, borderKind);
cv::convertScaleAbs(dst, absDst);
makeWindow("Laplacian", absDst);
}
ButtonRefWindow::ButtonRefWindow(QWidget *parent, QString const &typeName
, qReal::models::LogicalModelAssistApi const &logicalModelAssistApi
, int role, const QModelIndex &index
, qReal::MainWindow *mainWindow)
: QPushButton(parent)
, mName(typeName)
, mApi(logicalModelAssistApi.logicalRepoApi())
, mRole(role)
, mIndex(index)
, mMainWindow(mainWindow)
{
setText("Reference button");
connect(this, SIGNAL(clicked()), this, SLOT(makeWindow()));
show();
}
// Display the count images in bgr and compute their HSV histograms.
// Then compare each histogram to the first one and report results.
//
static void showHistogramComparisons(int count,
const char *name[],
const cv::Mat bgr[])
{
std::vector<cv::Mat> hsv(count);
std::vector<cv::Mat> histogram(count);
for (int i = 0; i < count; ++i) {
makeWindow(name[i], bgr[i]);
cv::cvtColor(bgr[i], hsv[i], cv::COLOR_BGR2HSV);
}
for (int i = 0; i < histogram.size(); ++i) {
histogram[i] = calculateHistogram(hsv[i]);
}
compareHistograms(histogram, name);
std::cout << "Press a key to quit." << std::endl;
cv::waitKey(0);
}
// Set things up and run
int main(int argc, char** argv) {
makeWindow(argc, argv);
acquireSharedOpenCLContext();
initObjects();
initPrograms();
initFramebuffers();
initShaders();
setupGlutCallbacks();
camera.pos = MakeVector(0, 0, -12);
camera.up = MakeVector(0, 1, 0);
camera.front = MakeVector(0, 0, 1);
glutSetCursor(GLUT_CURSOR_NONE);
glutMainLoop();
releaseSharedOpenCLContext();
}
void initializeGame(){
upperStateWindow = makeWindow(7, 100, 2, 5);
myPlayGround = makeWindow(PLAY_WIDTH_SIZE, PLAY_HEIGHT_SIZE, PG_LINE_X, 51);
settingMyPlayGround(myPlayGround);
myScoreWindow = makeWindow(4, 24 + 12 + 2 + 2, 34, 51);
myTempBlock = makeWindow(PLAY_WIDTH_SIZE, 12, PG_LINE_X, 53 + PLAY_WIDTH_SIZE + 2);
otherPlayGround = makeWindow(PLAY_WIDTH_SIZE, PLAY_HEIGHT_SIZE, PG_LINE_X, 5);
settingOtherPlayGround(otherPlayGround);
otherScoreWIndow = makeWindow(4, 24 + 12 + 2 + 2, 34, 5);
otherTempBlock = makeWindow(PLAY_WIDTH_SIZE, 12, PG_LINE_X, 7 + PLAY_WIDTH_SIZE + 2);
chatWindow = makeWindow(28, 30, PG_LINE_X, 95);
settingMyTemp(myTempBlock);
settingChat(chatWindow);
//otherPlayGround = makeWindow(40, 20, 25, 50);
}
void Spectrum::initialize(sampleSizes s, PaSampleFormat b, int nr, QString dir)
{
nrig = nr;
userDirectory = dir;
sizes = s;
sizeIQ = sizes.sample_length / 8; // 512 IQ phase/gain bins
// initialize FFTW
#ifdef Q_OS_WIN
if (!fftwWinInit()) {
return;
}
if (in) (fftw_freep) (in);
if (out) (fftw_freep) (out);
if (errfunc) (fftw_freep) (errfunc);
if (plan) (fftw_destroy_planp) (plan);
in = (fftw_complex *) (fftw_mallocp) (sizeof(fftw_complex) * sizes.sample_length);
out = (fftw_complex *) (fftw_mallocp) (sizeof(fftw_complex) * sizes.sample_length);
errfunc = (fftw_complex *) (fftw_mallocp) (sizeof(fftw_complex) * sizes.sample_length);
plan = (fftw_plan_dft_1dp) (sizes.sample_length, in, out, FFTW_FORWARD, FFTW_MEASURE);
#else
if (in) fftw_free(in);
if (out) fftw_free(out);
if (errfunc) fftw_free(errfunc);
if (plan) fftw_destroy_plan(plan);
in = (fftw_complex *) fftw_malloc(sizeof(fftw_complex) * sizes.sample_length);
out = (fftw_complex *) fftw_malloc(sizeof(fftw_complex) * sizes.sample_length);
errfunc = (fftw_complex *) fftw_malloc(sizeof(fftw_complex) * sizes.sample_length);
plan = fftw_plan_dft_1d(sizes.sample_length, in, out, FFTW_FORWARD, FFTW_MEASURE);
#endif
switch (b) {
case paInt16:
bits = 16;
break;
case paInt24:
bits = 24;
break;
case paInt32:
bits = 32;
break;
default:
bits = 16;
}
if (output) delete [] output;
output = new unsigned char[sizes.display_length];
for (int i = 0; i < SIG_N_AVG; i++) {
if (peakAvg[i]) delete [] peakAvg[i];
peakAvg[i] = new double[sizes.spec_length];
}
if (spec_smooth) delete [] spec_smooth;
spec_smooth = new double[sizes.sample_length];
if (spec_tmp) delete [] spec_tmp;
spec_tmp = new double[sizes.sample_length];
if (spec_tmp2) delete [] spec_tmp2;
spec_tmp2 = new double[sizes.sample_length];
for (int i = 0; i < sizes.sample_length; i++) {
spec_tmp[i] = 0.;
spec_smooth[i] = 0.;
spec_tmp2[i] = 0.;
}
if (tmp4) delete [] tmp4;
tmp4 = new double[sizes.spec_length];
if (window) delete [] window;
window = new double[sizes.sample_length];
makeWindow();
for (int i = 0; i < sizes.spec_length; i++) {
tmp4[i] = 0.;
}
if (sigOnCnt) delete [] sigOnCnt;
sigOnCnt = new int[sizes.sample_length];
if (sigOn) delete [] sigOn;
sigOn = new bool[sizes.sample_length];
for (int i = 0; i < sizes.sample_length; i++) {
sigOnCnt[i] = 2;
sigOn[i] = false;
}
if (calibSigList) delete [] calibSigList;
calibSigList = new CalibSignal[sizeIQ];
for (int i = 0; i < FIT_ORDER; i++) {
aGain[i] = 0.;
aPhase[i] = 0.;
}
addOffset=0;
// intialize to unit gain and zero phase
aGain[0] = 1.0;
makeGainPhase();
readError();
calcError(true);
}
int main (int argc, char **argv)
{
FILE *fp_out, *fp_f1plus, *fp_f1min;
FILE *fp_gmin, *fp_gplus, *fp_f2, *fp_pmin;
int i, j, l, ret, nshots, Nsyn, nt, nx, nts, nxs, ngath;
int size, n1, n2, ntap, tap, di, ntraces, nb, ib;
int nw, nw_low, nw_high, nfreq, *xnx, *xnxsyn, *synpos;
int reci, mode, ixa, ixb, n2out, verbose, ntfft;
int iter, niter, niterh, tracf, *muteW, pad, nt0, ampest, *hmuteW, *hxnxsyn;
int hw, smooth, above, shift, *ixpossyn, npossyn, ix, first=1;
float fmin, fmax, *tapersh, *tapersy, fxf, dxf, fxs2, *xsrc, *xrcv, *zsyn, *zsrc, *xrcvsyn;
float *hzsyn, *hxsyn, *hxrcvsyn, *hG_d, xloc, zloc, *HomG;
double t0, t1, t2, t3, tsyn, tread, tfft, tcopy, energyNi, *J;
float d1, d2, f1, f2, fxs, ft, fx, *xsyn, dxsrc, Q, f0, *Costdet;
float *green, *f2p, *pmin, *G_d, dt, dx, dxs, scl, mem, *Image, *Image2;
float *f1plus, *f1min, *iRN, *Ni, *trace, *Gmin, *Gplus, *Gm0;
float xmin, xmax, weight, tsq, *Gd, *amp, bstart, bend, db, *bdet, bp, b, bmin;
complex *Refl, *Fop, *cshot;
char *file_tinv, *file_shot, *file_green, *file_iter, *file_wav, *file_ray, *file_amp, *file_img, *file_cp, *file_rays, *file_amps;
char *file_f1plus, *file_f1min, *file_gmin, *file_gplus, *file_f2, *file_pmin, *wavtype, *wavtype2, *file_homg, *file_tinvs;
segy *hdrs_im, *hdrs_homg;
WavePar WP,WPs;
modPar mod;
recPar rec;
srcPar src;
shotPar shot;
rayPar ray;
initargs(argc, argv);
requestdoc(1);
tsyn = tread = tfft = tcopy = 0.0;
t0 = wallclock_time();
if (!getparstring("file_img", &file_img)) file_img = "img.su";
if (!getparstring("file_homg", &file_homg)) file_homg = NULL;
if (!getparstring("file_shot", &file_shot)) file_shot = NULL;
if (!getparstring("file_tinv", &file_tinv)) file_tinv = NULL;
if (!getparstring("file_tinvs", &file_tinvs)) file_tinvs = NULL;
if (!getparstring("file_f1plus", &file_f1plus)) file_f1plus = NULL;
if (!getparstring("file_f1min", &file_f1min)) file_f1min = NULL;
if (!getparstring("file_gplus", &file_gplus)) file_gplus = NULL;
if (!getparstring("file_gmin", &file_gmin)) file_gmin = NULL;
if (!getparstring("file_pplus", &file_f2)) file_f2 = NULL;
if (!getparstring("file_f2", &file_f2)) file_f2 = NULL;
if (!getparstring("file_pmin", &file_pmin)) file_pmin = NULL;
if (!getparstring("file_iter", &file_iter)) file_iter = NULL;
if (!getparstring("file_wav", &file_wav)) file_wav=NULL;
if (!getparstring("file_ray", &file_ray)) file_ray=NULL;
if (!getparstring("file_amp", &file_amp)) file_amp=NULL;
if (!getparstring("file_rays", &file_rays)) file_rays=NULL;
if (!getparstring("file_amps", &file_amps)) file_amps=NULL;
if (!getparstring("file_cp", &file_cp)) file_cp = NULL;
if (!getparint("verbose", &verbose)) verbose = 0;
if (file_tinv == NULL && file_shot == NULL)
verr("file_tinv and file_shot cannot be both input pipe");
if (!getparstring("file_green", &file_green)) {
if (verbose) vwarn("parameter file_green not found, assume pipe");
file_green = NULL;
}
if (!getparfloat("fmin", &fmin)) fmin = 0.0;
if (!getparfloat("fmax", &fmax)) fmax = 70.0;
if (!getparint("ixa", &ixa)) ixa = 0;
if (!getparint("ixb", &ixb)) ixb = ixa;
// if (!getparint("reci", &reci)) reci = 0;
reci=0; // source-receiver reciprocity is not yet fully build into the code
if (!getparfloat("weight", &weight)) weight = 1.0;
if (!getparfloat("tsq", &tsq)) tsq = 0.0;
if (!getparfloat("Q", &Q)) Q = 0.0;
if (!getparfloat("f0", &f0)) f0 = 0.0;
if (!getparint("tap", &tap)) tap = 0;
if (!getparint("ntap", &ntap)) ntap = 0;
if (!getparint("pad", &pad)) pad = 0;
if(!getparint("hw", &hw)) hw = 15;
if(!getparint("smooth", &smooth)) smooth = 5;
if(!getparint("above", &above)) above = 0;
if(!getparint("shift", &shift)) shift=12;
if(!getparint("ampest", &est)) ampest=0;
if(!getparint("nb", &nb)) nb=0;
if (!getparfloat("bstart", &bstart)) bstart = 1.0;
if (!getparfloat("bend", &bend)) bend = 1.0;
if (reci && ntap) vwarn("tapering influences the reciprocal result");
/* Reading in wavelet parameters */
if(!getparfloat("fpw", &WP.fp)) WP.fp = -1.0;
if(!getparfloat("fminw", &WP.fmin)) WP.fmin = 10.0;
if(!getparfloat("flefw", &WP.flef)) WP.flef = 20.0;
if(!getparfloat("frigw", &WP.frig)) WP.frig = 50.0;
if(!getparfloat("fmaxw", &WP.fmax)) WP.fmax = 60.0;
else WP.fp = -1;
if(!getparfloat("dbw", &WP.db)) WP.db = -20.0;
if(!getparfloat("t0w", &WP.t0)) WP.t0 = 0.0;
if(!getparint("shiftw", &WP.shift)) WP.shift = 0;
if(!getparint("invw", &WP.inv)) WP.inv = 0;
if(!getparfloat("epsw", &WP.eps)) WP.eps = 1.0;
if(!getparfloat("scalew", &WP.scale)) WP.scale = 1.0;
if(!getparint("scfftw", &WP.scfft)) WP.scfft = 1;
if(!getparint("cmw", &WP.cm)) WP.cm = 10;
if(!getparint("cnw", &WP.cn)) WP.cn = 1;
if(!getparint("wav", &WP.wav)) WP.wav = 0;
if(!getparstring("file_wav", &WP.file_wav)) WP.file_wav=NULL;
if(!getparstring("w", &wavtype)) strcpy(WP.w, "g2");
else strcpy(WP.w, wavtype);
if(!getparfloat("fpws", &WPs.fp)) WPs.fp = -1.0;
if(!getparfloat("fminws", &WPs.fmin)) WPs.fmin = 10.0;
if(!getparfloat("flefws", &WPs.flef)) WPs.flef = 20.0;
if(!getparfloat("frigws", &WPs.frig)) WPs.frig = 50.0;
if(!getparfloat("fmaxws", &WPs.fmax)) WPs.fmax = 60.0;
else WPs.fp = -1;
if(!getparfloat("dbw", &WPs.db)) WPs.db = -20.0;
if(!getparfloat("t0ws", &WPs.t0)) WPs.t0 = 0.0;
if(!getparint("shiftws", &WPs.shift)) WPs.shift = 0;
if(!getparint("invws", &WPs.inv)) WPs.inv = 0;
if(!getparfloat("epsws", &WPs.eps)) WPs.eps = 1.0;
if(!getparfloat("scalews", &WPs.scale)) WPs.scale = 1.0;
if(!getparint("scfftws", &WPs.scfft)) WPs.scfft = 1;
if(!getparint("cmws", &WPs.cm)) WPs.cm = 10;
if(!getparint("cnws", &WPs.cn)) WPs.cn = 1;
if(!getparint("wavs", &WPs.wav)) WPs.wav = 0;
if(!getparstring("file_wavs", &WPs.file_wav)) WPs.file_wav=NULL;
if(!getparstring("ws", &wavtype2)) strcpy(WPs.w, "g2");
else strcpy(WPs.w, wavtype2);
if(!getparint("niter", &niter)) niter = 10;
if(!getparint("niterh", &niterh)) niterh = niter;
/*================ Reading info about shot and initial operator sizes ================*/
ngath = 0; /* setting ngath=0 scans all traces; n2 contains maximum traces/gather */
if (file_ray!=NULL && file_tinv==NULL) {
ret = getFileInfo(file_ray, &n2, &n1, &ngath, &d1, &d2, &f2, &f1, &xmin, &xmax, &scl, &ntraces);
n1 = 1;
ntraces = n2*ngath;
scl = 0.0010;
d1 = -1.0*xmin;
xmin = -1.0*xmax;
xmax = d1;
WP.wav = 1;
WP.xloc = -123456.0;
WP.zloc = -123456.0;
synpos = (int *)calloc(ngath,sizeof(int));
shot.nz = 1;
shot.nx = ngath;
shot.n = shot.nx*shot.nz;
for (l=0; l<shot.nz; l++) {
for (j=0; j<shot.nx; j++) {
synpos[l*shot.nx+j] = j*shot.nz+l;
}
}
}
else if (file_ray==NULL && file_tinv==NULL) {
getParameters(&mod, &rec, &src, &shot, &ray, verbose);
n1 = 1;
n2 = rec.n;
ngath = shot.n;
d1 = mod.dt;
d2 = (rec.x[1]-rec.x[0])*mod.dx;
f1 = 0.0;
f2 = mod.x0+rec.x[0]*mod.dx;
xmin = mod.x0+rec.x[0]*mod.dx;
xmax = mod.x0+rec.x[rec.n-1]*mod.dx;
scl = 0.0010;
ntraces = n2*ngath;
WP.wav = 1;
WP.xloc = -123456.0;
WP.zloc = -123456.0;
synpos = (int *)calloc(ngath,sizeof(int));
for (l=0; l<shot.nz; l++) {
for (j=0; j<shot.nx; j++) {
synpos[l*shot.nx+j] = j*shot.nz+l;
}
}
}
else {
ret = getFileInfo(file_tinv, &n1, &n2, &ngath, &d1, &d2, &f1, &f2, &xmin, &xmax, &scl, &ntraces);
}
Nsyn = ngath;
nxs = n2;
nts = n1;
nt0 = n1;
dxs = d2;
fxs = f2;
ngath = 0; /* setting ngath=0 scans all traces; nx contains maximum traces/gather */
ret = getFileInfo(file_shot, &nt, &nx, &ngath, &d1, &dx, &ft, &fx, &xmin, &xmax, &scl, &ntraces);
nshots = ngath;
assert (nxs >= nshots);
if (!getparfloat("dt", &dt)) dt = d1;
ntfft = optncr(MAX(nt+pad, nts+pad));
nfreq = ntfft/2+1;
nw_low = (int)MIN((fmin*ntfft*dt), nfreq-1);
nw_low = MAX(nw_low, 1);
nw_high = MIN((int)(fmax*ntfft*dt), nfreq-1);
nw = nw_high - nw_low + 1;
scl = 1.0/((float)ntfft);
if (nb > 1) {
db = (bend-bstart)/((float)(nb-1));
}
else if (nb == 1) {
db = 0;
bend = bstart;
}
/*================ Allocating all data arrays ================*/
green = (float *)calloc(Nsyn*nxs*ntfft,sizeof(float));
f2p = (float *)calloc(Nsyn*nxs*ntfft,sizeof(float));
pmin = (float *)calloc(Nsyn*nxs*ntfft,sizeof(float));
f1plus = (float *)calloc(Nsyn*nxs*ntfft,sizeof(float));
f1min = (float *)calloc(Nsyn*nxs*ntfft,sizeof(float));
G_d = (float *)calloc(Nsyn*nxs*ntfft,sizeof(float));
muteW = (int *)calloc(Nsyn*nxs,sizeof(int));
trace = (float *)malloc(ntfft*sizeof(float));
ixpossyn = (int *)malloc(nxs*sizeof(int));
xrcvsyn = (float *)calloc(Nsyn*nxs,sizeof(float));
xsyn = (float *)malloc(Nsyn*sizeof(float));
zsyn = (float *)malloc(Nsyn*sizeof(float));
xnxsyn = (int *)calloc(Nsyn,sizeof(int));
tapersy = (float *)malloc(nxs*sizeof(float));
Refl = (complex *)malloc(nw*nx*nshots*sizeof(complex));
tapersh = (float *)malloc(nx*sizeof(float));
xsrc = (float *)calloc(nshots,sizeof(float));
zsrc = (float *)calloc(nshots,sizeof(float));
xrcv = (float *)calloc(nshots*nx,sizeof(float));
xnx = (int *)calloc(nshots,sizeof(int));
/*================ Read and define mute window based on focusing operator(s) ================*/
/* G_d = p_0^+ = G_d (-t) ~ Tinv */
WPs.nt = ntfft;
WPs.dt = dt;
WP.nt = ntfft;
WP.dt = dt;
if (file_ray!=NULL || file_cp!=NULL) {
makeWindow(WP, file_ray, file_amp, dt, xrcvsyn, xsyn, zsyn, xnxsyn,
Nsyn, nxs, ntfft, mode, muteW, G_d, hw, verbose);
}
else {
mode=-1; /* apply complex conjugate to read in data */
readTinvData(file_tinv, dt, xrcvsyn, xsyn, zsyn, xnxsyn,
Nsyn, nxs, ntfft, mode, muteW, G_d, hw, verbose);
}
/* reading data added zero's to the number of time samples to be the same as ntfft */
nts = ntfft;
/* define tapers to taper edges of acquisition */
if (tap == 1 || tap == 3) {
for (j = 0; j < ntap; j++)
tapersy[j] = (cos(PI*(j-ntap)/ntap)+1)/2.0;
for (j = ntap; j < nxs-ntap; j++)
tapersy[j] = 1.0;
for (j = nxs-ntap; j < nxs; j++)
tapersy[j] =(cos(PI*(j-(nxs-ntap))/ntap)+1)/2.0;
}
else {
for (j = 0; j < nxs; j++) tapersy[j] = 1.0;
}
if (tap == 1 || tap == 3) {
if (verbose) vmess("Taper for operator applied ntap=%d", ntap);
for (l = 0; l < Nsyn; l++) {
for (i = 0; i < nxs; i++) {
for (j = 0; j < nts; j++) {
G_d[l*nxs*nts+i*nts+j] *= tapersy[i];
}
}
}
}
/* check consistency of header values */
dxf = (xrcvsyn[nxs-1] - xrcvsyn[0])/(float)(nxs-1);
if (NINT(dxs*1e3) != NINT(fabs(dxf)*1e3)) {
vmess("dx in hdr.d1 (%.3f) and hdr.gx (%.3f) not equal",d2, dxf);
if (dxf != 0) dxs = fabs(dxf);
vmess("dx in operator => %f", dxs);
}
if (xrcvsyn[0] != 0 || xrcvsyn[1] != 0 ) fxs = xrcvsyn[0];
fxs2 = fxs + (float)(nxs-1)*dxs;
/*================ Reading shot records ================*/
mode=1;
readShotData(file_shot, xrcv, xsrc, zsrc, xnx, Refl, nw, nw_low, ngath, nx, nx, ntfft,
mode, weight, tsq, Q, f0, verbose);
tapersh = (float *)malloc(nx*sizeof(float));
if (tap == 2 || tap == 3) {
for (j = 0; j < ntap; j++)
tapersh[j] = (cos(PI*(j-ntap)/ntap)+1)/2.0;
for (j = ntap; j < nx-ntap; j++)
tapersh[j] = 1.0;
for (j = nx-ntap; j < nx; j++)
tapersh[j] =(cos(PI*(j-(nx-ntap))/ntap)+1)/2.0;
}
else {
for (j = 0; j < nx; j++) tapersh[j] = 1.0;
}
if (tap == 2 || tap == 3) {
if (verbose) vmess("Taper for shots applied ntap=%d", ntap);
for (l = 0; l < nshots; l++) {
for (j = 1; j < nw; j++) {
for (i = 0; i < nx; i++) {
Refl[l*nx*nw+j*nx+i].r *= tapersh[i];
Refl[l*nx*nw+j*nx+i].i *= tapersh[i];
}
}
}
}
free(tapersh);
/* check consistency of header values */
fxf = xsrc[0];
if (nx > 1) dxf = (xrcv[0] - xrcv[nx-1])/(float)(nx-1);
else dxf = d2;
if (NINT(dx*1e3) != NINT(fabs(dxf)*1e3)) {
vmess("dx in hdr.d1 (%.3f) and hdr.gx (%.3f) not equal",dx, dxf);
if (dxf != 0) dx = fabs(dxf);
else verr("gx hdrs not set");
vmess("dx used => %f", dx);
}
dxsrc = (float)xsrc[1] - xsrc[0];
if (dxsrc == 0) {
vwarn("sx hdrs are not filled in!!");
dxsrc = dx;
}
/*================ Check the size of the files ================*/
if (NINT(dxsrc/dx)*dx != NINT(dxsrc)) {
vwarn("source (%.2f) and receiver step (%.2f) don't match",dxsrc,dx);
if (reci == 2) vwarn("step used from operator (%.2f) ",dxs);
}
di = NINT(dxf/dxs);
if ((NINT(di*dxs) != NINT(dxf)) && verbose)
vwarn("dx in receiver (%.2f) and operator (%.2f) don't match",dx,dxs);
if (nt != nts)
vmess("Time samples in shot (%d) and focusing operator (%d) are not equal",nt, nts);
if (verbose) {
vmess("Number of focusing operators = %d", Nsyn);
vmess("Number of receivers in focusop = %d", nxs);
vmess("number of shots = %d", nshots);
vmess("number of receiver/shot = %d", nx);
vmess("first model position = %.2f", fxs);
vmess("last model position = %.2f", fxs2);
vmess("first source position fxf = %.2f", fxf);
vmess("source distance dxsrc = %.2f", dxsrc);
vmess("last source position = %.2f", fxf+(nshots-1)*dxsrc);
vmess("receiver distance dxf = %.2f", dxf);
vmess("direction of increasing traces = %d", di);
vmess("number of time samples (nt,nts) = %d (%d,%d)", ntfft, nt, nts);
vmess("time sampling = %e ", dt);
if (ampest > 0) vmess("Amplitude correction estimation is switched on");
if (nb > 0) vmess("Scaling estimation in %d step(s) from %.3f to %.3f (db=%.3f)",nb,bstart,bend,db);
if (file_green != NULL) vmess("Green output file = %s ", file_green);
if (file_gmin != NULL) vmess("Gmin output file = %s ", file_gmin);
if (file_gplus != NULL) vmess("Gplus output file = %s ", file_gplus);
if (file_pmin != NULL) vmess("Pmin output file = %s ", file_pmin);
if (file_f2 != NULL) vmess("f2 (=pplus) output file = %s ", file_f2);
if (file_f1min != NULL) vmess("f1min output file = %s ", file_f1min);
if (file_f1plus != NULL)vmess("f1plus output file = %s ", file_f1plus);
if (file_iter != NULL) vmess("Iterations output file = %s ", file_iter);
}
/*================ initializations ================*/
if (ixa || ixb) n2out = ixa + ixb + 1;
else if (reci) n2out = nxs;
else n2out = nshots;
mem = Nsyn*n2out*ntfft*sizeof(float)/1048576.0;
if (verbose) {
vmess("number of output traces = %d", n2out);
vmess("number of output samples = %d", ntfft);
vmess("Size of output data/file = %.1f MB", mem);
}
//memcpy(Ni, G_d, Nsyn*nxs*ntfft*sizeof(float));
if (file_homg!=NULL) {
hG_d = (float *)calloc(nxs*ntfft,sizeof(float));
hmuteW = (int *)calloc(nxs,sizeof(int));
hxrcvsyn = (float *)calloc(nxs,sizeof(float));
hxsyn = (float *)calloc(1,sizeof(float));
hzsyn = (float *)calloc(1,sizeof(float));
hxnxsyn = (int *)calloc(1,sizeof(int));
cshot = (complex *)calloc(nxs*nfreq,sizeof(complex));
if(!getparfloat("xloc", &WPs.xloc)) WPs.xloc = -123456.0;
if(!getparfloat("zloc", &WPs.zloc)) WPs.zloc = -123456.0;
if (WPs.xloc == -123456.0 && WPs.zloc == -123456.0) file_cp = NULL;
if (WPs.xloc == -123456.0) WPs.xloc = 0.0;
if (WPs.zloc == -123456.0) WPs.zloc = 0.0;
xloc = WPs.xloc;
zloc = WPs.zloc;
ngath = 1;
if (file_rays!=NULL || file_cp!=NULL) {
WPs.wav=1;
makeWindow(WPs, file_rays, file_amps, dt, hxrcvsyn, hxsyn, hzsyn, hxnxsyn, ngath, nxs, ntfft, mode, hmuteW, hG_d, hw, verbose);
}
else {
mode=-1; /* apply complex conjugate to read in data */
readTinvData(file_tinvs, dt, hxrcvsyn, hxsyn, hzsyn, hxnxsyn,
ngath, nxs, ntfft, mode, hmuteW, hG_d, hw, verbose);
}
WPs.xloc = -123456.0;
WPs.zloc = -123456.0;
if (tap == 1 || tap == 3) {
if (verbose) vmess("Taper for operator applied ntap=%d", ntap);
for (i = 0; i < nxs; i++) {
for (j = 0; j < nts; j++) {
hG_d[i*nts+j] *= tapersy[i];
}
}
}
ngath = omp_get_max_threads();
synthesisPosistions(nx, nt, nxs, nts, dt, hxsyn, 1, xrcv, xsrc, fxs2, fxs,
dxs, dxsrc, dx, ixa, ixb, reci, nshots, ixpossyn, &npossyn, verbose);
iterations(Refl,nx,nt,nxs,nts,dt,hxsyn,1,xrcv,xsrc,fxs2,fxs,dxs,dxsrc,dx,ixa,ixb,
ntfft,nw,nw_low,nw_high,mode,reci,nshots,ixpossyn,npossyn,pmin,f1min,f1plus,
f2p,hG_d,hmuteW,smooth,shift,above,pad,nt0,&first,niterh,verbose);
/* compute full Green's function G = int R * f2(t) + f2(-t) = Pplus + Pmin */
for (i = 0; i < npossyn; i++) {
j = 0;
/* set green to zero if mute-window exceeds nt/2 */
if (hmuteW[ixpossyn[i]] >= nts/2) {
memset(&green[i*nts],0, sizeof(float)*nt);
continue;
}
green[i*nts+j] = f2p[i*nts+j] + pmin[i*nts+j];
for (j = 1; j < nts; j++) {
green[i*nts+j] = f2p[i*nts+nts-j] + pmin[i*nts+j];
}
}
applyMute(green, hmuteW, smooth, 4, 1, nxs, nts, ixpossyn, npossyn, shift, pad, nt0);
omp_set_num_threads(ngath);
/* Transform the green position to the frequency domain */
/*for (i = 0; i < npossyn; i++) {
rc1fft(&green[i*nts],&cshot[i*nfreq],ntfft,-1);
}*/
//free(hG_d);free(hmuteW);free(hxrcvsyn);
free(hmuteW);free(hxrcvsyn);
free(hxsyn);free(hzsyn);free(hxnxsyn);free(cshot);
}
/* dry-run of synthesis to get all x-positions calcalated by the integration */
synthesisPosistions(nx, nt, nxs, nts, dt, xsyn, Nsyn, xrcv, xsrc, fxs2, fxs,
dxs, dxsrc, dx, ixa, ixb, reci, nshots, ixpossyn, &npossyn, verbose);
if (verbose) {
vmess("synthesisPosistions: nshots=%d npossyn=%d", nshots, npossyn);
}
t1 = wallclock_time();
tread = t1-t0;
iterations(Refl,nx,nt,nxs,nts,dt,xsyn,Nsyn,xrcv,xsrc,fxs2,fxs,dxs,dxsrc,dx,ixa,ixb,
ntfft,nw,nw_low,nw_high,mode,reci,nshots,ixpossyn,npossyn,pmin,f1min,f1plus,
f2p,G_d,muteW,smooth,shift,above,pad,nt0,&first,niter,verbose);
/*if (niter==0) {
for (l = 0; l < Nsyn; l++) {
for (i = 0; i < npossyn; i++) {
j = 0;
ix = ixpossyn[i];
f2p[l*nxs*nts+i*nts+j] = G_d[l*nxs*nts+ix*nts+j];
f1plus[l*nxs*nts+i*nts+j] = G_d[l*nxs*nts+ix*nts+j];
for (j = 1; j < nts; j++) {
f2p[l*nxs*nts+i*nts+j] = G_d[l*nxs*nts+ix*nts+j];
f1plus[l*nxs*nts+i*nts+j] = G_d[l*nxs*nts+ix*nts+j];
}
}
}
}*/
if (niterh==0) {
for (l = 0; l < Nsyn; l++) {
for (i = 0; i < npossyn; i++) {
j = 0;
ix = ixpossyn[i];
green[i*nts+j] = hG_d[ix*nts+j];
for (j = 1; j < nts; j++) {
green[i*nts+j] = hG_d[ix*nts+nts-j];
}
}
}
}
if (file_img!=NULL) {
/*================ set variables for output data ================*/
hdrs_im = (segy *) calloc(shot.nx,sizeof(segy));
if (hdrs_im == NULL) verr("allocation for hdrs_out");
Image = (float *)calloc(Nsyn,sizeof(float));
first=0;
imaging(Image,WPs,Refl,nx,nt,nxs,nts,dt,xsyn,Nsyn,xrcv,xsrc,fxs2,fxs,dxs,dxsrc,dx,ixa,ixb,
ntfft,nw,nw_low,nw_high,mode,reci,nshots,ixpossyn,npossyn,pmin,f1min,f1plus,
f2p,G_d,muteW,smooth,shift,above,pad,nt0,synpos,verbose);
/*============= write output files ================*/
fp_out = fopen(file_img, "w+");
for (i = 0; i < shot.nx; i++) {
hdrs_im[i].fldr = 1;
hdrs_im[i].tracl = 1;
hdrs_im[i].tracf = i+1;
hdrs_im[i].scalco = -1000;
hdrs_im[i].scalel = -1000;
hdrs_im[i].sdepth = 0;
hdrs_im[i].trid = 1;
hdrs_im[i].ns = shot.nz;
hdrs_im[i].trwf = shot.nx;
hdrs_im[i].ntr = hdrs_im[i].fldr*hdrs_im[i].trwf;
hdrs_im[i].f1 = zsyn[0];
hdrs_im[i].f2 = xsyn[0];
hdrs_im[i].dt = dt*(1E6);
hdrs_im[i].d1 = (float)zsyn[shot.nx]-zsyn[0];
hdrs_im[i].d2 = (float)xsyn[1]-xsyn[0];
hdrs_im[i].sx = (int)roundf(xsyn[0] + (i*hdrs_im[i].d2));
hdrs_im[i].gx = (int)roundf(xsyn[0] + (i*hdrs_im[i].d2));
hdrs_im[i].offset = (hdrs_im[i].gx - hdrs_im[i].sx)/1000.0;
}
ret = writeData(fp_out, &Image[0], hdrs_im, shot.nz, shot.nx);
if (ret < 0 ) verr("error on writing output file.");
fclose(fp_out);
}
if (file_homg!=NULL) {
/*================ set variables for output data ================*/
hdrs_homg = (segy *) calloc(shot.nx,sizeof(segy));
if (hdrs_homg == NULL) verr("allocation for hdrs_out");
HomG = (float *)calloc(Nsyn*ntfft,sizeof(float));
homogeneousg(HomG,green,Refl,nx,nt,nxs,nts,dt,xsyn,Nsyn,xrcv,xsrc,fxs2,fxs,dxs,dxsrc,dx,ixa,ixb,
ntfft,nw,nw_low,nw_high,mode,reci,nshots,ixpossyn,npossyn,pmin,f1min,f1plus,
f2p,G_d,muteW,smooth,shift,above,pad,nt0,synpos,verbose);
/*============= write output files ================*/
fp_out = fopen(file_homg, "w+");
for (j = 0; j < ntfft; j++) {
for (i = 0; i < shot.nx; i++) {
hdrs_homg[i].fldr = j+1;
hdrs_homg[i].tracl = j*shot.nx+i+1;
hdrs_homg[i].tracf = i+1;
hdrs_homg[i].scalco = -1000;
hdrs_homg[i].scalel = -1000;
hdrs_homg[i].sdepth = (int)(zloc*1000.0);
hdrs_homg[i].trid = 1;
hdrs_homg[i].ns = shot.nz;
hdrs_homg[i].trwf = shot.nx;
hdrs_homg[i].ntr = hdrs_homg[i].fldr*hdrs_homg[i].trwf;
hdrs_homg[i].f1 = zsyn[0];
hdrs_homg[i].f2 = xsyn[0];
hdrs_homg[i].dt = dt*(1E6);
hdrs_homg[i].d1 = (float)zsyn[shot.nx]-zsyn[0];
hdrs_homg[i].d2 = (float)xsyn[1]-xsyn[0];
hdrs_homg[i].sx = (int)roundf(xsyn[0] + (i*hdrs_homg[i].d2));
hdrs_homg[i].gx = (int)roundf(xsyn[0] + (i*hdrs_homg[i].d2));
hdrs_homg[i].offset = (hdrs_homg[i].gx - hdrs_homg[i].sx)/1000.0;
}
ret = writeData(fp_out, &HomG[j*shot.n], hdrs_homg, shot.nz, shot.nx);
if (ret < 0 ) verr("error on writing output file.");
}
fclose(fp_out);
}
if (verbose) {
t1 = wallclock_time();
vmess("and CPU-time write data = %.3f", t1-t2);
}
free(tapersy);
exit(0);
}
int main(int argc, char *argv[])
{
signal(SIGALRM, timeOutHandler); // bind the timeOutHandler with the timer object.
// int sockfd, newsockfd, cwnd_length, portno, pid;
int newsockfd, cwnd_length, portno, pid;
//float ploss, pcorr;
char* tail;
char* hi = "Received your message";
// socklen_t clilen;
//struct sockaddr_in serv_addr, cli_addr;
if (argc < 5 && argc!=2) {
fprintf(stderr,"ERROR, proper use: ./sender <port number> <cwnd> <p_loss> <p_corrupt>\n");
exit(1);
}
if (argc==2){
test=true;
}
if(test==false){
sockfd = socket(AF_INET, SOCK_DGRAM, 0);
if (sockfd < 0)
error("ERROR opening socket");
bzero((char *) &serv_addr, sizeof(serv_addr));
portno = atoi(argv[1]);
cwnd_length = atoi(argv[2]);
ploss = strtof(argv[3], &tail);
pcorr = strtof(argv[4], &tail);
printf( "Probability of Loss: %f\n",ploss);
printf( "Probability of Corruption: %f\n\n", pcorr);
serv_addr.sin_family = AF_INET;
serv_addr.sin_addr.s_addr = INADDR_ANY;
serv_addr.sin_port = htons(portno);
if (bind(sockfd, (struct sockaddr *) &serv_addr, sizeof(serv_addr)) < 0) //ANDREW CHANGE #2: casted &serv_addr to (struct sockaddr *) instead of (struct sockaddr_in*)
error("ERROR on binding");
clilen = sizeof(cli_addr);
}
FILE* requestFile; // FIXME: Read the document about allocate a new file in ram
char* testInput;
if (test==false){ //if not a test, read socket input into buffer
while (1) {
int n;
char buffer[256];
bzero(buffer, 256);
n = recvfrom(sockfd, buffer, sizeof(buffer), 0, (struct sockaddr*) &cli_addr, (socklen_t *) &clilen); //ANDREW CHANGE #3: casted &cli_addr to (struct sockaddr *)
if (n < 0)
error("ERROR reading from socket");
else {
// fprintf(stdout, buffer);
requestFile = findFile(buffer);
break;
// break out the initial round of request
// FIXME: if the file is not found, send something to client
}
} /* end of while */
}
else{ //if a test, read "test" into buffer
testInput = argv[1];
printf( "\n\n\nmain()\n----------\nRequested Filename: %s\n\n\n",testInput);
requestFile = findFile(testInput);
}
/* init window */
//FIRST BURST OF COMMANDS
makeWindow(requestFile); //allocate and construct window
//if(test==true){
if(1){
printWindow();
}
//FIXME: Not sure if anything missing
int commandLength; //single pointer to a single integer that saves the length of lastCommand()
int* lastCommand = prepareToSend(&commandLength);
printf( "Preparing to send\n{ ");
int p=0;
for (p=0; p < commandLength; p++){
if (p == commandLength - 1)
printf( "%d }\n",lastCommand[p]);
else
printf( "%d, ",lastCommand[p]);
}
sendPacket(lastCommand, commandLength, sockfd, (struct sockaddr*)&cli_addr, clilen); // first send
// TODO: free the lastCommand;
free(lastCommand);
commandLength=0;
printWindow();
alarm(1); // start timming cycle.
while(1){
//if timeout, resend
if(resend == true){
printf( "About to resend\n");
lastCommand = prepareToSend(&commandLength);
if(commandLength>0){
printf( "Preparing to resend:\n{ ");
printf( "%d }\n",lastCommand[0]);
sendPacket(lastCommand, commandLength, sockfd, (struct sockaddr*)&cli_addr, clilen);
}
free(lastCommand);
resend=false;
}
// receving acks from recever:
int n;
char buffer[256]; // buffer for acks
bzero(buffer, 256);
n = recvfrom(sockfd, buffer, sizeof(buffer), 0, (struct sockaddr*)&cli_addr, (socklen_t *) &clilen);
if (n < 0)
error("ERROR reading from socket");
else {
int ack = 0;
// check if done
if(strncmp("done", buffer, 4) == 0) {
printf("Receiver signaled final fully sent! Terminating...\n");
exit(0);
}
// TODO: parse the acks from buffer:
ack = atoi(buffer);
updateOnAcked(ack);
printWindow();
if (isFinished()){
printf( "Send complete! \n\n");
break;
}
lastCommand = prepareToSend(&commandLength);
if(commandLength>0){
printf( "Preparing to send:\n{ ");
int p=0;
for (p=0; p < commandLength; p++){
if (p == commandLength - 1)
printf( "%d }\n",lastCommand[p]);
else
printf( "%d, ",lastCommand[p]);
}
sendPacket(lastCommand, commandLength, sockfd, (struct sockaddr*)&cli_addr, clilen); // first send
// TODO: free the lastCommand;
}
else
printf( "Nothing to Send \n\n");
printWindow();
free(lastCommand);
commandLength=0;
//TODO: free the lastCommand
// free(lastCommand);
}
}
return 0; /* we never get here */
}
int CAppBase::InitWindow(HINSTANCE hInstance)
{
return makeWindow(hInstance);
}
int main() {
auto window = makeWindow();
// Asset loader setup
auto assets = std::make_shared<sfr::AssetTable>();
auto assetLoader = std::make_shared<sfr::AssetLoader>(assets);
// Renderer setup
auto deferredRenderer = std::make_shared<sfr::DeferredRenderer>(assets);
auto transformUpdater = std::make_shared<sfr::TransformUpdater>();
// Scene setup
auto scene = std::make_shared<sfr::Scene>();
// Set up a camera positioned at (1, 0, 1) and looking at (0, 0, 0). The
// camera's up vector is the y-axis.
auto up = sfr::Vector(0, 1.f, 0);
auto origin = sfr::Vector(1.f, 0, 1.f);
auto target = sfr::Vector(0, 0, 0);
auto cameraNode = scene->root()->childIs<sfr::Transform>("camera");
cameraNode->transformIs(sfr::Matrix::look(origin, target, up));
auto camera = cameraNode->childIs<sfr::Camera>();
camera->viewportWidthIs(window->getSize().x);
camera->viewportWidthIs(window->getSize().y);
scene->cameraIs(camera); // set this camera to the active camera
// Place the car mesh (loaded from the asset loader) at (0, 0, 0)
auto car = assets->assetIs<sfr::Transform>("meshes/Lexus.obj");
scene->root()->childIs(car);
// Place a spotlight at (0, 16, 0) and point it down towards the car. The
// spotlight's position is determined from the parent transform.
auto lightNode = scene->root()->childIs<sfr::Transform>("light");
lightNode->positionIs(sfr::Vector(0, 16.f, 0));
auto light = lightNode->childIs<sfr::SpotLight>();
light->spotCutoffIs(20.f); // set spot light to spread by 20 degrees
light->spotPowerIs(40.f); // larger spotPower results in sharper beam edges
light->constantAttenuationIs(1.f);
light->linearAttenuationIs(0);
light->quadraticAttenuationIs(0);
light->specularColorIs(sfr::Color(1.f, 1.f, 1.f, 1.f));
light->diffuseColorIs(sfr::Color(3.f, 3.f, 3.f, 3.f)); // really bright light
light->directionIs(sfr::Vector(0, -1.f, 0)); // point the light down the y-axis
// Enable shadows for the light
light->shadowMapIs(std::make_shared<sfr::DepthRenderTarget>(1024, 1024));
// Run the render loop. This code differs depending on what windowing
// library you use. The parts that will always remain the same are:
// 1. glClear
// 2. transformUpdater->operator(): Updates the scene graph world transforms
// 3. deferredRenderer->operator()): Renders the scene
while (window->isOpen()) {
sf::Event evt;
while (window->pollEvent(evt)) {
switch (evt.type) {
case sf::Event::Closed:
exit(0);
break;
default:
break;
}
}
glClear(GL_COLOR_BUFFER_BIT|GL_DEPTH_BUFFER_BIT);
transformUpdater->operator()(scene);
deferredRenderer->operator()(scene);
window->display();
}
return 0;
}
void Draft::makeBoard(Team *arr, vector<NodeData*>& a, int teams) {
int sY = 8, sX = 0, w = 14, h = 4, ch, j = 0, z = 0;
string tName;
WINDOW *board[BOARD_SIZE]; //timer + players + menu + roster + titles + title + teams(2)
//ar[34] arr[33] ar[32] ar[31] arr[20-29] ar[30] ar[0-19]
initscr(); //start curses
cbreak(); //line buffer off
keypad(stdscr, TRUE); //to use f1
printw("Press cntr+c to exit"); //print
refresh(); //output
board[TITLE] = createWin(4, 100, 1, 0); //title
wattron(board[TITLE], A_BOLD);
mvwprintw(board[TITLE], 1, 10, "John Zoeller Draft"); //print T
wrefresh(board[TITLE]); //output
board[34] = createWin(4, 40, 1, 101); //timer
wattron(board[34], A_BOLD);
mvwprintw(board[34], 1, 1, "ROUND"); //print time
wrefresh(board[34]); //output
for(int k = 0; k < 10; k++){ //team names
board[k + 20] = createWin(3, 14, 5, (sX + (w * k)));
wattron(board[k + 20], A_BOLD);
if(arr[k].getUser()){
tName = to_string(arr[k].getPosition()) + " " + arr[k].getName();
wattron(board[k + 20], A_UNDERLINE);
} else
tName = to_string(k + 1) + " Auto";
mvwprintw(board[k + 20], 1, 1, tName.c_str());
wrefresh(board[k + 20]);
}
for(int i = 0; i < 10; i++)
board[i] = createWin(h, w, (sY + (h * j)), (sX + (w * i)));
j++;
for(int a = 19; a >= 10; a--){
board[a] = createWin(h, w, (sY + (h * j)), (sX + (w * z)));
z++;
}
int dims[] = { 22, 45, 16, 0 };
makeWindow("PLAYERS", dims, PLAYERS_AVAILABLE);
board[33] = createWin(22, 45, 16, 0); //players
wattron(board[33], A_BOLD);
mvwprintw(board[33], 1, 1, "PLAYERS"); //print title
wattroff(board[33], A_BOLD);
wrefresh(board[33]); //output
board[32] = createWin(10, 45, 16, 46); //menu
wattron(board[32], A_BOLD);
mvwprintw(board[32], 1, 1, "MENU"); //print title
wattroff(board[32], A_BOLD);
wrefresh(board[32]); //output
board[31] = createWin(22, 45, 16, 92); //roster
wattron(board[31], A_BOLD);
mvwprintw(board[31], 1, 1, "MY ROSTER"); //print title
wattroff(board[31], A_BOLD);
wrefresh(board[31]); //output
while((ch = getch()) != KEY_F(1)){ //drafting
startDraft(arr, a, teams, board);
}
for(int i = 0; i < 35; i++){ //delete windows
if(board[i] != NULL)
destroy_win(board[i]);
}
endwin();
}