BroadphaseDemo(sf::RenderWindow &window) : Demo(window), broadphase(100, 100), mouseObject(sf::Vector2f(50, 50)) {
// set up our mouse object
mouseObject.setOrigin(mouseObject.getSize() / 2.0f);
mouseObject.setOutlineThickness(2);
mouseObject.setFillColor(sf::Color(0, 200, 0));
// set up some random rectangles
for (size_t i = 0; i < 2500; ++i) {
sf::RectangleShape *object = new sf::RectangleShape(sf::Vector2f(randb(5, 15), randb(5, 15)));
object->setOrigin(object->getSize() / 2.0f);
object->setOutlineThickness(2);
objects.push_back(object);
}
}
int
CA_STEP5_derive_keys(const EAC_CTX *ctx, const BUF_MEM *pub,
BUF_MEM **nonce, BUF_MEM **token)
{
BUF_MEM *r = NULL;
BUF_MEM *authentication_token = NULL;
check((ctx && ctx->ca_ctx && ctx->ca_ctx->ka_ctx && nonce && token),
"Invalid arguments");
/* Generate nonce and derive k_mac and k_enc*/
r = randb(CA_NONCE_SIZE);
if (!r || !KA_CTX_derive_keys(ctx->ca_ctx->ka_ctx, r, ctx->md_ctx))
goto err;
/* Compute authentication token */
authentication_token = get_authentication_token(ctx->ca_ctx->protocol,
ctx->ca_ctx->ka_ctx, ctx->bn_ctx, ctx->tr_version,
pub);
check(authentication_token, "Failed to compute authentication token");
*nonce = r;
*token = authentication_token;
return 1;
err:
BUF_MEM_clear_free(r);
return 0;
}
BUF_MEM *
ecdh_im_generate_key(const PACE_CTX * ctx, BN_CTX *bn_ctx)
{
check_return((ctx && ctx->ka_ctx), "Invalid arguments");
return randb(EVP_CIPHER_key_length(ctx->ka_ctx->cipher));
}
point TargetControl::genTarget(point currentPos, bool directionMatters)
{
double theta;
point targetPos;
if(!directionMatters) //Direction not constrained this trial
{
do
{
theta=randb(0,360);
targetPos=currentPos+point(cos(theta),sin(theta))*spawnDist;
} while(targetPos.mag()>innerRadius);
return targetPos;
}
//If direction predetermined, use it
if (nextDirection>=0) {targetPos=currentPos+point(cos(nextDirection),sin(nextDirection))*spawnDist; nextDirection=-1; return targetPos;}
//Make sure we haven't bottomed out
int sum=0;
for(int k=0;k<directions;k++)
{
sum+=((timesUsed[k]>=minUses)?0:1);
}
if (sum==0) minUses++;
//Find the best direction
double min=std::numeric_limits<double>::infinity();
int index=-1;
double mag;
point bestPos;
for(int k=0;k<directions;k++)
{
targetPos=currentPos+point(cos(direction[k]),sin(direction[k]))*spawnDist;
mag=targetPos.mag();
if((mag<min)&&(timesUsed[k]<minUses)&&(mag<innerRadius)) {min=mag; index=k; bestPos=targetPos;}
}
if(index != -1)
{
timesUsed[index]++;
return bestPos;
}
//If no direction can produce a legal target pick randomly among the least used and set up for it
int m=INT_MAX;
int i;
int * shuffle = new int[directions];
shuffle[0]=directions;
randperm(shuffle);
for(int k=0;k<directions;k++)
if(timesUsed[shuffle[k]]<m) {m=timesUsed[shuffle[k]]; i=shuffle[k];}
timesUsed[i]++;
nextDirection=direction[i];
theta=atan2(currentPos.Y()+spawnDist*sin(direction[i]),currentPos.X()+spawnDist*cos(direction[i]));
targetPos=currentPos - point(cos(theta),sin(theta))*spawnDist;
return (targetPos.mag()<=maxRadius)?targetPos:point(0,0);
}
int port_from_args(int argc, char const *argv[])
{
int port;
if (argc == 1)
{
port = randb(MIN_PORT, MAX_PORT);
return port;
}
else if (argc == 2)
{
port = atoi(argv[1]);
if (port < MIN_PORT || port > MAX_PORT)
return -2;
else
return port;
}
else
{
return -1;
}
}
BUF_MEM *
PACE_STEP1_enc_nonce(const EAC_CTX * ctx, const PACE_SEC * pi)
{
BUF_MEM * enc_nonce = NULL;
BUF_MEM * key = NULL;
check((ctx && ctx->pace_ctx && ctx->pace_ctx->ka_ctx &&
ctx->pace_ctx->ka_ctx->cipher),
"Invalid arguments");
key = kdf_pi(pi, NULL, ctx->pace_ctx->ka_ctx, ctx->md_ctx);
check(key, "Key derivation function failed");
BUF_MEM_clear_free(ctx->pace_ctx->nonce);
ctx->pace_ctx->nonce = randb(EVP_CIPHER_block_size(ctx->pace_ctx->ka_ctx->cipher));
check(ctx->pace_ctx->nonce, "Failed to create nonce");
enc_nonce = cipher_no_pad(ctx->pace_ctx->ka_ctx, ctx->cipher_ctx, key, ctx->pace_ctx->nonce, 1);
err:
BUF_MEM_clear_free(key);
return enc_nonce;
}
void TrackTube::GetVertexInfo(float segmentLength, float radius, float randomness, int smoothingPasses){
vinfo = new VertexInfo[TUBESIDES*(NUMTUBESEGMENTS+1)];
//setup verticies
//double length = segment->GetLength();
for (int i = 0; i < NUMTUBESEGMENTS + 1; i++){
float distanceDownTube = segmentLength*((float)i/NUMTUBESEGMENTS);
Vector center = Vector(1,0,0)*distanceDownTube;
Vector v1 = Vector(0,1,0);
Vector v2 = Vector(0,0,1);
Vector randomOffset = Vector(0, 0, 0);
if (i != 0 && i != NUMTUBESEGMENTS && randb(0,1) < randomness){
//if its not the front or end of the segment add some randomness to look more wormholey
randomOffset = Vector(randb(-randomness * radius, randomness * radius),
randb(-randomness * radius, randomness * radius),
randb(-randomness * radius, randomness * radius));
}
for (int k = 0; k < TUBESIDES; k++){
vinfo[i*TUBESIDES + k].position = center + radius*(v1*((float)cos(k*2*PI/TUBESIDES)) + v2*((float)sin(k*2*PI/TUBESIDES)));
vinfo[i*TUBESIDES + k].distance = distanceDownTube;
}
int start = (int) randb(0, TUBESIDES);
int length = (int) randb(0, TUBESIDES);
for (int k = 0; k < length; k++){
vinfo[i*TUBESIDES + ((k + start)%TUBESIDES)].position = vinfo[i*TUBESIDES + ((k + start)%TUBESIDES)].position + randomOffset;
}
}
//apply smoothing
for (int j = 0; j < smoothingPasses; j++){
Vector * vSmooth = new Vector[TUBESIDES*(NUMTUBESEGMENTS+1)];
for (int i = 0; i < NUMTUBESEGMENTS + 1; i++){
for (int k = 0; k < TUBESIDES; k++){
float prevX = vinfo[i*TUBESIDES + k].position.x;
Vector p0 = vinfo[i*TUBESIDES + k].position;
Vector pup = vinfo[i*TUBESIDES + (k+1)%TUBESIDES].position;
Vector pdown = vinfo[i*TUBESIDES + (k-1+TUBESIDES)%TUBESIDES].position;
Vector pright = vinfo[((i + 1) % (NUMTUBESEGMENTS + 1)) * TUBESIDES + k].position;
Vector pleft = vinfo[((i - 1 + (NUMTUBESEGMENTS + 1)) % (NUMTUBESEGMENTS + 1))*TUBESIDES + k].position;
//vinfo[i*TUBESIDES + k].position = 0.2*(p0 + pup + pdown + pright + pleft);
vSmooth[i*TUBESIDES + k] = 0.2*(p0 + pup + pdown + pright + pleft);
if (i == 0 || i == NUMTUBESEGMENTS){
vSmooth[i*TUBESIDES + k].x = prevX;
}
}
}
//copy over smoothed vertices
for (int i = 0; i < NUMTUBESEGMENTS + 1; i++){
for (int k = 0; k < TUBESIDES; k++){
vinfo[i*TUBESIDES + k].position = vSmooth[i*TUBESIDES + k];
}
}
delete [] vSmooth;
vSmooth = 0;
}
//calculate normals
for (int i = 0; i < NUMTUBESEGMENTS + 1; i++){
for (int k = 0; k < TUBESIDES; k++){
if (i == 0){ //border case
vinfo[i*TUBESIDES + k].normal = Vector(-1, -1, -1);
Vector p0 = vinfo[i*TUBESIDES + k].position;
Vector pup = vinfo[i*TUBESIDES + (k+1)%TUBESIDES].position - p0;
Vector pdown = vinfo[i*TUBESIDES + (k-1+TUBESIDES)%TUBESIDES].position - p0;
Vector pright = vinfo[(i+1)*TUBESIDES + k].position - p0;
//Vector pleft = vinfo[(i-1)*TUBESIDES + k].position - p0;
Vector norm = pright.cross(pup) + pdown.cross(pright);
vinfo[i*TUBESIDES + k].normal = norm/norm.length();
}
else if (i == NUMTUBESEGMENTS){ //other end
Vector p0 = vinfo[i*TUBESIDES + k].position;
Vector pup = vinfo[i*TUBESIDES + (k+1)%TUBESIDES].position - p0;
Vector pdown = vinfo[i*TUBESIDES + (k-1+TUBESIDES)%TUBESIDES].position - p0;
//Vector pright = vinfo[(i+1)*TUBESIDES + k].position - p0;
Vector pleft = vinfo[(i-1)*TUBESIDES + k].position - p0;
Vector norm = pup.cross(pleft) + pleft.cross(pdown);
vinfo[i*TUBESIDES + k].normal = norm/norm.length();
}
else {
Vector p0 = vinfo[i*TUBESIDES + k].position;
Vector pup = vinfo[i*TUBESIDES + (k+1)%TUBESIDES].position - p0;
Vector pdown = vinfo[i*TUBESIDES + (k-1+TUBESIDES)%TUBESIDES].position - p0;
Vector pright = vinfo[(i+1)*TUBESIDES + k].position - p0;
Vector pleft = vinfo[(i-1)*TUBESIDES + k].position - p0;
Vector norm = pright.cross(pup) + pup.cross(pleft) + pleft.cross(pdown) + pdown.cross(pright);
vinfo[i*TUBESIDES + k].normal = norm/norm.length();
}
/*
if (k == 0){
std::ostringstream oss;
oss << "Normal at: " << i << ": " << vinfo[i*TUBESIDES + k].normal.x << ", " << vinfo[i*TUBESIDES + k].normal.y << ", " << vinfo[i*TUBESIDES + k].normal.z;
textDump(oss.str());
}
*/
}
}
}
void KisFilterNoise::processImpl(KisPaintDeviceSP device,
const QRect& applyRect,
const KisFilterConfiguration* config,
KoUpdater* progressUpdater
) const
{
Q_ASSERT(!device.isNull());
if (progressUpdater) {
progressUpdater->setRange(0, applyRect.width() * applyRect.height());
}
int count = 0;
const KoColorSpace * cs = device->colorSpace();
QVariant value;
int level = (config && config->getProperty("level", value)) ? value.toInt() : 50;
int opacity = (config && config->getProperty("opacity", value)) ? value.toInt() : 100;
KisSequentialIterator it(device, applyRect);
quint8* interm = new quint8[cs->pixelSize()];
double threshold = (100.0 - level) * 0.01;
qint16 weights[2];
weights[0] = (255 * opacity) / 100;
weights[1] = 255 - weights[0];
const quint8* pixels[2];
pixels[0] = interm;
KoMixColorsOp * mixOp = cs->mixColorsOp();
int seedThreshold = rand();
int seedRed = rand();
int seedGreen = rand();
int seedBlue = rand();
if (config) {
seedThreshold = config->getInt("seedThreshold", seedThreshold);
seedRed = config->getInt("seedRed", seedRed);
seedGreen = config->getInt("seedGreen", seedGreen);
seedBlue = config->getInt("seedBlue", seedBlue);
}
KisRandomGenerator randt(seedThreshold);
KisRandomGenerator randr(seedRed);
KisRandomGenerator randg(seedGreen);
KisRandomGenerator randb(seedBlue);
do {
if (randt.doubleRandomAt(it.x(), it.y()) > threshold) {
// XXX: Added static_cast to get rid of warnings
QColor c = qRgb(static_cast<int>((double)randr.doubleRandomAt(it.x(), it.y()) * 255),
static_cast<int>((double)randg.doubleRandomAt(it.x(), it.y()) * 255),
static_cast<int>((double)randb.doubleRandomAt(it.x(), it.y()) * 255));
cs->fromQColor(c, interm, 0);
pixels[1] = it.oldRawData();
mixOp->mixColors(pixels, weights, 2, it.rawData());
}
if (progressUpdater) progressUpdater->setValue(++count);
} while (it.nextPixel() && !(progressUpdater && progressUpdater->interrupted()));
delete [] interm;
}
int main(int argc, char *argv[])
{
int i,j,k; //Counter variable
bvec b_source_bits, b_decoded_bits, b_encoded_bits;
ivec i_decoded_bits, i_decoded_symbols;
cvec c_received_signals;
vec d_received_llr;
ivec No_of_Errors, No_of_Bits, No_of_BlockErrors, No_of_Blocks;
//Channel setup
cvec channel_gains;
TDL_Channel ray_channel; // default: uncorrelated Rayleigh fading channel
AWGN_Channel awgn_channel; // AWGN channel
//-------------------------------------------------------CONV
//Convolutional codes module, CONV
CONV conv;
char *ctrlfile;
if(argc==1) ctrlfile = "control.conv.par";
else ctrlfile = argv[1];
conv.set_parameters_from_file(ctrlfile);
conv.initialise();
//result file
FILE *f; char *resultfile= conv.get_result_filename();
f=fopen(resultfile, "w");
//print out parameters
conv.print_parameters(stdout);
conv.print_parameters(f);
//-------------------------------------------------------CONV
// read simulation parameters
FILE *sim_file;
FILESERVICE fileser;
sim_file = fopen("control.sim.par", "r");
if(sim_file==NULL) it_error("control.sim.par not found");
int max_nrof_frame = fileser.scan_integer(sim_file);
double SNR_start = fileser.scan_double(sim_file);
double SNR_step = fileser.scan_double(sim_file);
double SNR_end = fileser.scan_double(sim_file);
double G_sd = fileser.scan_double(sim_file);
double G_sr = fileser.scan_double(sim_file);
double G_rd = fileser.scan_double(sim_file);
int channel_type = fileser.scan_integer(sim_file);
int mapper_bps = fileser.scan_integer(sim_file);
fclose(sim_file);
char text[100];
sprintf( text, "%f:%f:%f", SNR_start, SNR_step, SNR_end );
//SNR setup
vec SNRdB = text; //Setting the simulation Eb/N0 range in dB
int M = 1<<mapper_bps;
PSK psk(M);
cvec source_frame;
double rate = (double)mapper_bps * conv.get_rate();
printf ( "! %d-PSK (mapper_bps=%d) :: Overall_Rate=%.4f\n!\n", M, mapper_bps, rate);
fprintf(f,"! %d-PSK (mapper_bps=%d) :: Overall_Rate=%.4f\n!\n", M, mapper_bps, rate);
vec SNR = pow(10.0, SNRdB/10.0);
vec N0 = 1.0/SNR;
vec sigma2 = N0/2;
BERC berc; //BER counter
BLERC blerc; //FER counter
Real_Timer tt; //Time counter
vec ber(SNRdB.length()); //allocate memory for vector to store BER
vec bler(SNRdB.length()); //allocate memory for vector to store FER
ber.clear(); //Clear up buffer of BER counter
bler.clear(); //Clear up buffer of FER counter
blerc.set_blocksize((long)conv.get_info_bit_length()); //set blocksize of the FER counter
tt.tic(); //Start timer
//RNG_randomize(); //construct random source
RNG_reset(0); //reset random seed
b_source_bits.set_size(conv.get_info_bit_length(), false);
b_encoded_bits.set_size(conv.get_coded_bit_length(), false);
c_received_signals.set_size(conv.get_sym_length(), false);
d_received_llr.set_size(conv.get_coded_bit_length(), false);
b_decoded_bits.set_size(conv.get_info_bit_length(), false);
No_of_Errors.set_size(SNRdB.length(), false); //Set the length
No_of_Bits.set_size(SNRdB.length(), false); //for ivectors storing the no
No_of_BlockErrors.set_size(SNRdB.length(),false); //of errors bits or error frames
No_of_Blocks.set_size(SNRdB.length(),false);
No_of_Errors.clear();
No_of_Bits.clear();
No_of_BlockErrors.clear();
No_of_Blocks.clear();
printf ( "!SNR(dB)\tEbN0(dB)\tBER\t\tFER\t\tnrof Frames\n");
fprintf(f,"!SNR(dB)\tEbN0(dB)\tBER\t\tFER\t\tnrof Frames\n");
for(i=0; i< SNRdB.length(); i++)
{
//Set channel noise level
awgn_channel.set_noise(N0(i));
for(j=0;j<max_nrof_frame;j++)
{
//Generate random source bits
b_source_bits = randb(conv.get_info_bit_length());
//CONV encode
conv.encode_bits(b_source_bits, b_encoded_bits);
source_frame = psk.modulate_bits(b_encoded_bits);
// Fast Rayleigh channel + AWGN transmission
channel_gains = my_channel(channel_type, source_frame.length(), G_sd, ray_channel);
c_received_signals = elem_mult(source_frame, channel_gains);
c_received_signals = awgn_channel( c_received_signals );
//Demodulation to get llr
psk.demodulate_soft_bits(c_received_signals, channel_gains, N0(i), d_received_llr);
//Convert to Log(Pr=1/Pr=0)
d_received_llr = -1 * d_received_llr;
//CONV decode
conv.assign_apr_codeword(d_received_llr);
conv.decode(i_decoded_bits, i_decoded_symbols);
b_decoded_bits = to_bvec(i_decoded_bits.left(conv.get_info_bit_length()));
// remove dummy bits if trellis/code termination is used
berc.clear();
blerc.clear();
berc.count (b_source_bits, b_decoded_bits); //Count error bits in a word
blerc.count (b_source_bits, b_decoded_bits); //Count frame errors
No_of_Errors(i) += berc.get_errors(); //Updating counters
No_of_Bits(i) += berc.get_errors()+berc.get_corrects();
No_of_BlockErrors(i) +=blerc.get_errors();
No_of_Blocks(i)++;
if(No_of_Errors(i)>100000)
break;
}
ber(i) = (double)No_of_Errors(i)/No_of_Bits(i);
bler(i) = (double)No_of_BlockErrors(i)/No_of_Blocks(i);
double EbN0dB = SNRdB(i) - 10*log10(rate);
printf("%f\t%f\t%e\t%e\t%d\n", SNRdB(i), EbN0dB, ber(i), bler(i), No_of_Blocks(i));
fprintf(f,"%f\t%f\t%e\t%e\t%d\n", SNRdB(i), EbN0dB, ber(i), bler(i), No_of_Blocks(i));
if(ber(i)<1e-5) break;
}
fprintf(f,"!Elapsed time = %d s\n", tt.get_time()); //output simulation time
tt.toc(); //Stop timer and output simulation time
fclose(f); //close output file
return 0 ; //exit program
}
CORASMA_BER_Test::CORASMA_BER_Test()
{
modem=new Modem_CORASMA();
int L=1;
int OF=1;
cmat fading;
cvec channel1,channel2,channel3,channel4,channel5,channel6,channel7,channel8,channel9,channel10,channel11,channel12,channel13,channel14,channel15,channel16;
bvec transmitted_bits;
bvec received_bits;
cvec sum_chips;
cvec transmitted_symbols;
cvec received_chips;
double norm_fading;
BERC berc,berc1,berc2;
AWGN_Channel channel;
vec EbN0dB = linspace(1000, 1000, 1);
vec EbN0 = pow(10, EbN0dB / 10);
double Eb = 1.0;
vec N0 = Eb * pow(EbN0, -1.0);
int NumOfBits = modem->nb_bits;
int MaxIterations = 10;
int MaxNrOfErrors = 200;
int MinNrOfErrors = 5;
vec ber;
ber.set_size(EbN0dB.size(), false);
ber.clear();
RNG_randomize();
for (int i=0;i<EbN0dB.length();i++){
cout << endl << "Simulating point nr " << i + 1 << endl;
berc.clear();
berc1.clear();
berc2.clear();
channel.set_noise(N0(i));
for (int j=0;j<MaxIterations;j++) {
transmitted_bits = randb(NumOfBits);
sum_chips=modem->modulate(transmitted_bits);
transmitted_symbols.set_length(sum_chips.length()+L+1);
transmitted_symbols.zeros();
fading.set_size(L,sum_chips.length());
fading.zeros();
channel1.set_length(sum_chips.length());
/* channel2.set_length(sum_chips.length());
channel3.set_length(sum_chips.length());
channel4.set_length(sum_chips.length());
channel5.set_length(sum_chips.length());
channel6.set_length(sum_chips.length());
channel7.set_length(sum_chips.length());
channel8.set_length(sum_chips.length());
channel9.set_length(sum_chips.length());
channel10.set_length(sum_chips.length());
channel11.set_length(sum_chips.length());
channel12.set_length(sum_chips.length());
channel13.set_length(sum_chips.length());
channel14.set_length(sum_chips.length());
channel15.set_length(sum_chips.length());
channel16.set_length(sum_chips.length());*/
for(int k=0;k<sum_chips.length()/OF;k++){
channel1.replace_mid(k*OF,ones_c(OF));
/* channel1.replace_mid(k*OF,randn_c()*ones(OF));
channel2.replace_mid(k*OF,randn_c()*ones(OF));
channel3.replace_mid(k*OF,randn_c()*ones(OF));
channel4.replace_mid(k*OF,randn_c()*ones(OF));
channel5.replace_mid(k*OF,randn_c()*ones(OF));
channel6.replace_mid(k*OF,randn_c()*ones(OF));
channel7.replace_mid(k*OF,randn_c()*ones(OF));
channel8.replace_mid(k*OF,randn_c()*ones(OF));
channel9.replace_mid(k*OF,randn_c()*ones(OF));
channel10.replace_mid(k*OF,randn_c()*ones(OF));
channel11.replace_mid(k*OF,randn_c()*ones(OF));
channel12.replace_mid(k*OF,randn_c()*ones(OF));
channel13.replace_mid(k*OF,randn_c()*ones(OF));
channel14.replace_mid(k*OF,randn_c()*ones(OF));
channel15.replace_mid(k*OF,randn_c()*ones(OF));
channel16.replace_mid(k*OF,randn_c()*ones(OF));*/
}
norm_fading=1./sqrt(inv_dB(0)*norm(channel1)*norm(channel1)/sum_chips.length()/*+inv_dB(0)*norm(channel2)*norm(channel2)/sum_chips.length()+inv_dB(0)*norm(channel3)*norm(channel3)/sum_chips.length()+inv_dB(0)*norm(channel4)*norm(channel4)/sum_chips.length()+inv_dB(0)*norm(channel5)*norm(channel5)/sum_chips.length()+inv_dB(0)*norm(channel6)*norm(channel6)/sum_chips.length()+inv_dB(0)*norm(channel7)*norm(channel7)/sum_chips.length()+inv_dB(0)*norm(channel8)*norm(channel8)/sum_chips.length()+inv_dB(0)*norm(channel9)*norm(channel9)/sum_chips.length()+inv_dB(0)*norm(channel10)*norm(channel10)/sum_chips.length()+inv_dB(0)*norm(channel11)*norm(channel11)/sum_chips.length()+inv_dB(0)*norm(channel12)*norm(channel12)/sum_chips.length()+inv_dB(0)*norm(channel13)*norm(channel13)/sum_chips.length()+inv_dB(0)*norm(channel14)*norm(channel14)/sum_chips.length()+inv_dB(0)*norm(channel15)*norm(channel15)/sum_chips.length()+inv_dB(0)*norm(channel16)*norm(channel16)/sum_chips.length()*/);
fading.set_row(0,norm_fading*channel1);
/* fading.set_row(1,norm_fading*channel2);
fading.set_row(2,norm_fading*channel3);
fading.set_row(3,norm_fading*channel4);
fading.set_row(4,norm_fading*channel5);
fading.set_row(5,norm_fading*channel6);
fading.set_row(6,norm_fading*channel7);
fading.set_row(7,norm_fading*channel8);
fading.set_row(8,norm_fading*channel9);
fading.set_row(9,norm_fading*channel10);
fading.set_row(10,norm_fading*channel11);
fading.set_row(11,norm_fading*channel12);
fading.set_row(12,norm_fading*channel13);
fading.set_row(13,norm_fading*channel14);
fading.set_row(14,norm_fading*channel15);
fading.set_row(15,norm_fading*channel16);*/
for (int k=0;k<L;k++){
transmitted_symbols+=concat(zeros_c(k),elem_mult(to_cvec(sum_chips),fading.get_row(k)),zeros_c(L+1-k));
}
received_chips = channel(/*transmitted_symbols*/sum_chips);
cvec constellation;
int time_offset_estimate;
received_bits=modem->demodulate(received_chips,constellation,time_offset_estimate);
bvec received_bits_inverted=received_bits+bin(1);
//Generic Transmitter + First Receiver M&M + Costas
berc1.count(transmitted_bits, received_bits);
ber(i) = berc1.get_errorrate();
berc=berc1;
berc2.count(transmitted_bits, received_bits_inverted);
if(berc2.get_errorrate()<ber(i)){
ber(i) = berc2.get_errorrate();
berc=berc2;
}
cout << " Iteration " << j + 1 << ": ber = " << berc.get_errorrate() << endl;
if (berc.get_errors() > MaxNrOfErrors) {
cout << "Breaking on point " << i + 1 << " with " << berc.get_errors() << " errors." << endl;
break;
}
}
if (berc.get_errors() < MinNrOfErrors) {
cout << "Exiting Simulation on point " << i + 1 << endl;
break;
}
}
//Print results:
cout << endl;
cout << "EbN0dB = " << EbN0dB << endl;
cout << "ber = " << ber << endl;
}
int UHD_SAFE_MAIN(int argc, char *argv[]){
if (uhd::set_thread_priority_safe(1,true)) {
std::cout << "set priority went well " << std::endl;
};
//variables to be set by po
std::string args;
double seconds_in_future;
size_t total_num_samps;
double tx_rate, freq, LOoffset;
float gain;
bool demoMode, use_8bits;
bool use_external_10MHz;
std::string filename;
uhd::tx_streamer::sptr tx_stream;
uhd::device_addr_t dev_addr;
uhd::usrp::multi_usrp::sptr dev;
uhd::stream_args_t stream_args;
//setup the program options
po::options_description desc("Allowed options");
desc.add_options()
("help", "help message")
("args", po::value<std::string>(&args)->default_value(""), "simple uhd device address args")
("secs", po::value<double>(&seconds_in_future)->default_value(3), "number of seconds in the future to transmit")
("nsamps", po::value<size_t>(&total_num_samps)->default_value(37028), "total number of samples to transmit")//9428
("txrate", po::value<double>(&tx_rate)->default_value(100e6/4), "rate of outgoing samples")
("freq", po::value<double>(&freq)->default_value(70e6), "rf center frequency in Hz")
("LOoffset", po::value<double>(&LOoffset)->default_value(0), "Offset between main LO and center frequency")
("demoMode",po::value<bool>(&demoMode)->default_value(true), "demo mode")
("10MHz",po::value<bool>(&use_external_10MHz)->default_value(false),
"external 10MHz on 'REF CLOCK' connector (true=1=yes)")
("filename",po::value<std::string>(&filename)->default_value("codedData.dat"), "input filename")
("gain",po::value<float>(&gain)->default_value(0), "gain of transmitter(0-13) ")
("8bits",po::value<bool>(&use_8bits)->default_value(false), "Use eight bits/sample to increase bandwidth")
;
po::variables_map vm;
po::store(po::parse_command_line(argc, argv, desc), vm);
po::notify(vm);
//print the help message
if (vm.count("help")){
std::cout << boost::format("tx %s") % desc << std::endl;
return ~0;
}
///////////////////////////////////////////////////////////////// START PROCESSING /////////////////////////////////////////////////////////////////////
std::complex<int16_t> *buffer0;
buffer0 = new std::complex<int16_t>[total_num_samps];
std::complex<int16_t> *buffer1;
buffer1 = new std::complex<int16_t>[total_num_samps];
std::complex<int16_t> *buffer2;
buffer2 = new std::complex<int16_t>[total_num_samps];
std::complex<int16_t> *buffer3;
buffer3 = new std::complex<int16_t>[total_num_samps];
std::complex<int16_t> *buffer4;
buffer4 = new std::complex<int16_t>[total_num_samps];
int16_t *aux0;
aux0 = new int16_t[2*total_num_samps];
int16_t *aux1;
aux1 = new int16_t[2*total_num_samps];
int16_t *aux2;
aux2 = new int16_t[2*total_num_samps];
int16_t *aux3;
aux3 = new int16_t[2*total_num_samps];
int16_t *aux4;
aux4 = new int16_t[2*total_num_samps];
//generate the picture as grayscale
int r=system("octave image_transmition.m &");
if(r){
std::cout<<" loading picture - check!\n";
}
int nPicRaw = 16384;//size of the image in grayscale 128*128
double nBinPac = 27200;//size of binary data in one packet
//loading picture as grayscale
int16_t pictureRaw[nPicRaw];
std::ifstream ifs( "data_toSend.dat", std::ifstream::in );
ifs.read((char * )pictureRaw,nPicRaw*sizeof(int16_t));
ifs.close();
//converting grayscale to binary and XOR with pseudonoise
itpp::bvec picBinInter = prepairPic(pictureRaw,nPicRaw);//transforms grayscale in binary data
//cutting the large binary data into 5 packets
bvec dataBinTmp0;
dataBinTmp0.ins(dataBinTmp0.length(),picBinInter.get(0,(nBinPac-1)));
bvec dataBinTmp1;
dataBinTmp1.ins(dataBinTmp1.length(),picBinInter.get(nBinPac,(2*nBinPac-1)));
bvec dataBinTmp2;
dataBinTmp2.ins(dataBinTmp2.length(),picBinInter.get(2*nBinPac,(3*nBinPac-1)));
bvec dataBinTmp3;
dataBinTmp3.ins(dataBinTmp3.length(),picBinInter.get(3*nBinPac,(4*nBinPac-1)));
bvec dataBinTmp4;
dataBinTmp4.ins(dataBinTmp4.length(),picBinInter.get(4*nBinPac,picBinInter.length()));
dataBinTmp4.ins(dataBinTmp4.length(),randb(nBinPac-dataBinTmp4.length())); //filling the last packet with random data
//saving the binary picture
it_file my_file("binPicture.it");
my_file << Name("picBinInter") << picBinInter;
my_file.flush();
my_file.close();
//processing each packet
tx_funct(aux0,dataBinTmp0,dataBinTmp0.length());
tx_funct(aux1,dataBinTmp1,dataBinTmp1.length());
tx_funct(aux2,dataBinTmp2,dataBinTmp2.length());
tx_funct(aux3,dataBinTmp3,dataBinTmp3.length());
tx_funct(aux4,dataBinTmp4,dataBinTmp4.length());
//filling the output buffer
for(int i=0,count1=0;i<(int)(2*total_num_samps);i=i+2){
buffer0[count1]=std::complex<short>(aux0[i],aux0[i+1]);
buffer1[count1]=std::complex<short>(aux1[i],aux1[i+1]);
buffer2[count1]=std::complex<short>(aux2[i],aux2[i+1]);
buffer3[count1]=std::complex<short>(aux3[i],aux3[i+1]);
buffer4[count1]=std::complex<short>(aux4[i],aux4[i+1]);
count1++;
}
// Save data to file to check what was sent
std::ofstream ofs( "sent0.dat" , std::ifstream::out );
ofs.write((char * ) buffer0, 2*total_num_samps*sizeof(int16_t));
ofs.flush();
ofs.close();
// Save data to file to check what was sent
std::ofstream ofs1( "sent1.dat" , std::ifstream::out );
ofs1.write((char * ) buffer1, 2*total_num_samps*sizeof(int16_t));
ofs1.flush();
ofs1.close();
// Save data to file to check what was sent
std::ofstream ofs2( "sent2.dat" , std::ifstream::out );
ofs2.write((char * ) buffer2, 2*total_num_samps*sizeof(int16_t));
ofs2.flush();
ofs2.close();
// Save data to file to check what was sent
std::ofstream ofs3( "sent3.dat" , std::ifstream::out );
ofs3.write((char * ) buffer3, 2*total_num_samps*sizeof(int16_t));
ofs3.flush();
ofs3.close();
// Save data to file to check what was sent
std::ofstream ofs4( "sent4.dat" , std::ifstream::out );
ofs4.write((char * ) buffer4, 2*total_num_samps*sizeof(int16_t));
ofs4.flush();
ofs4.close();
//Conjugate!!!
for(int i=0; i<(int)(total_num_samps);i++){
buffer0[i]=std::conj(buffer0[i]);
buffer1[i]=std::conj(buffer1[i]);
buffer2[i]=std::conj(buffer2[i]);
buffer3[i]=std::conj(buffer3[i]);
buffer4[i]=std::conj(buffer4[i]);
}
std::cout << " ----------- " << std::endl;
std::cout<<" Conjugated! \n";
std::cout << " ----------- " << std::endl;
///////////////////////////////////////////////////////////////// END PROCESSING /////////////////////////////////////////////////////////////////////
//create a usrp device and streamer
dev_addr["addr0"]="192.168.10.2";
dev = uhd::usrp::multi_usrp::make(dev_addr);
// Internal variables
uhd::clock_config_t my_clock_config;
if (!demoMode) {
dev->set_time_source("external");
};
if (use_external_10MHz) {
dev->set_clock_source("external");
}
else {
dev->set_clock_source("internal");
};
uhd::usrp::dboard_iface::sptr db_iface;
db_iface=dev->get_tx_dboard_iface(0);
board_60GHz_TX my_60GHz_TX(db_iface); //60GHz
my_60GHz_TX.set_gain(gain); // 60GHz
uhd::tune_result_t tr;
uhd::tune_request_t trq(freq,LOoffset); //std::min(tx_rate,10e6));
tr=dev->set_tx_freq(trq,0);
//dev->set_tx_gain(gain);
std::cout << tr.to_pp_string() << "\n";
stream_args.cpu_format="sc16";
if (use_8bits)
stream_args.otw_format="sc8";
else
stream_args.otw_format="sc16";
tx_stream=dev->get_tx_stream(stream_args);
//set properties on the device
std::cout << boost::format("Setting TX Rate: %f Msps...") % (tx_rate/1e6) << std::endl;
dev->set_tx_rate(tx_rate);
std::cout << boost::format("Actual TX Rate: %f Msps...") % (dev->get_tx_rate()/1e6) << std::endl;
std::cout << boost::format("Setting device timestamp to 0...") << std::endl;
uhd::tx_metadata_t md;
if(demoMode){
dev->set_time_now(uhd::time_spec_t(0.0));
md.start_of_burst = true;
md.end_of_burst = false;
md.has_time_spec = false;
md.time_spec = uhd::time_spec_t(seconds_in_future);
tx_stream->send(buffer0,total_num_samps,md,60);
tx_stream->send(buffer1,total_num_samps,md,3);
tx_stream->send(buffer2,total_num_samps,md,3);
tx_stream->send(buffer3,total_num_samps,md,3);
tx_stream->send(buffer4,total_num_samps,md,3);
tx_stream->send(buffer4,total_num_samps,md,3);
md.start_of_burst = false;
std::cout << " " << std::endl;
std::cout<< "picture transmitted once!" << std::endl;
std::cout << " " << std::endl;
int f=system("octave toMatlab.m");
if(f){
std::cout << " Programm Paused - Press Any Key To leave! " << std::endl;
}
}
else
{
dev->set_time_now(uhd::time_spec_t(0.0));
md.start_of_burst = true;
md.end_of_burst = false;
md.has_time_spec = false;
md.time_spec = uhd::time_spec_t(seconds_in_future);
tx_stream->send(buffer0,total_num_samps,md,60);
tx_stream->send(buffer1,total_num_samps,md,3);
tx_stream->send(buffer2,total_num_samps,md,3);
tx_stream->send(buffer3,total_num_samps,md,3);
tx_stream->send(buffer4,total_num_samps,md,3);
tx_stream->send(buffer4,total_num_samps,md,3);
md.start_of_burst = false;
std::cout << " " << std::endl;
std::cout<< "picture transmitted once!" << std::endl;
std::cout << " " << std::endl;
};
//finished
std::cout << std::endl << "Done!" << std::endl << std::endl;
return 0;
}
MCDAAOFDM_BER_Test::MCDAAOFDM_BER_Test()
{
modem=new Modem_MCDAAOFDM();
int L=1;
int quasi_static=modem->Nfft+modem->Ncp;
cmat fading;
cvec channel1,channel2,channel3,channel4,channel5,channel6,channel7,channel8,channel9,channel10,channel11,channel12,channel13,channel14,channel15,channel16;
bvec transmitted_bits;
bvec received_bits;
cvec modulated_ofdm;
cvec transmitted_symbols;
cvec received_ofdm;
double norm_fading;
BERC berc;
AWGN_Channel channel;
vec EbN0dB = linspace(0, 40, 41);
vec EbN0 = pow(10, EbN0dB / 10);
double Eb = 1.0;
vec N0 = Eb * pow(EbN0, -1.0);
int NumOfBits = 1000000;
int MaxIterations = 10;
int MaxNrOfErrors = 200;
int MinNrOfErrors = 5;
vec ber;
ber.set_size(EbN0dB.size(), false);
ber.clear();
RNG_randomize();
for (int i=0;i<EbN0dB.length();i++){
cout << endl << "Simulating point nr " << i + 1 << endl;
berc.clear();
channel.set_noise(N0(i));
for (int j=0;j<MaxIterations;j++) {
transmitted_bits = randb(NumOfBits);
modulated_ofdm=sqrt(modem->Nfft+modem->Ncp)/sqrt(modem->Nfft)*modem->modulate_mask_qpsk(transmitted_bits,0);
transmitted_symbols.set_length(modulated_ofdm.length()+L+1);
transmitted_symbols.zeros();
fading.set_size(L,modulated_ofdm.length());
fading.zeros();
channel1.set_length(modulated_ofdm.length());
/* channel2.set_length(modulated_ofdm.length());
channel3.set_length(modulated_ofdm.length());
channel4.set_length(modulated_ofdm.length());
channel5.set_length(modulated_ofdm.length());
channel6.set_length(modulated_ofdm.length());
channel7.set_length(modulated_ofdm.length());
channel8.set_length(modulated_ofdm.length());
channel9.set_length(modulated_ofdm.length());
channel10.set_length(modulated_ofdm.length());
channel11.set_length(modulated_ofdm.length());
channel12.set_length(modulated_ofdm.length());
channel13.set_length(modulated_ofdm.length());
channel14.set_length(modulated_ofdm.length());
channel15.set_length(modulated_ofdm.length());
channel16.set_length(modulated_ofdm.length());*/
for(int k=0;k<modulated_ofdm.length()/quasi_static;k++){
channel1.replace_mid(k*quasi_static,ones_c(quasi_static));
//complex<double> random_complex= randn_c();
//double canal=sqrt(real(random_complex*conj(random_complex)));
//channel1.replace_mid(k*quasi_static,canal*ones_c(quasi_static));
//channel1.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
/* channel2.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel3.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel4.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel5.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel6.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel7.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel8.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel9.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel10.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel11.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel12.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel13.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel14.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel15.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));
channel16.replace_mid(k*quasi_static,randn_c()*ones(quasi_static));*/
}
norm_fading=1./sqrt(inv_dB(0)*norm(channel1)*norm(channel1)/modulated_ofdm.length()/*+inv_dB(0)*norm(channel2)*norm(channel2)/modulated_ofdm.length()+inv_dB(0)*norm(channel3)*norm(channel3)/modulated_ofdm.length()+inv_dB(0)*norm(channel4)*norm(channel4)/modulated_ofdm.length()+inv_dB(0)*norm(channel5)*norm(channel5)/modulated_ofdm.length()+inv_dB(0)*norm(channel6)*norm(channel6)/modulated_ofdm.length()+inv_dB(0)*norm(channel7)*norm(channel7)/modulated_ofdm.length()+inv_dB(0)*norm(channel8)*norm(channel8)/modulated_ofdm.length()+inv_dB(0)*norm(channel9)*norm(channel9)/modulated_ofdm.length()+inv_dB(0)*norm(channel10)*norm(channel10)/modulated_ofdm.length()+inv_dB(0)*norm(channel11)*norm(channel11)/modulated_ofdm.length()+inv_dB(0)*norm(channel12)*norm(channel12)/modulated_ofdm.length()+inv_dB(0)*norm(channel13)*norm(channel13)/modulated_ofdm.length()+inv_dB(0)*norm(channel14)*norm(channel14)/modulated_ofdm.length()+inv_dB(0)*norm(channel15)*norm(channel15)/modulated_ofdm.length()+inv_dB(0)*norm(channel16)*norm(channel16)/modulated_ofdm.length()*/);
fading.set_row(0,norm_fading*channel1);
/* fading.set_row(1,norm_fading*channel2);
fading.set_row(2,norm_fading*channel3);
fading.set_row(3,norm_fading*channel4);
fading.set_row(4,norm_fading*channel5);
fading.set_row(5,norm_fading*channel6);
fading.set_row(6,norm_fading*channel7);
fading.set_row(7,norm_fading*channel8);
fading.set_row(8,norm_fading*channel9);
fading.set_row(9,norm_fading*channel10);
fading.set_row(10,norm_fading*channel11);
fading.set_row(11,norm_fading*channel12);
fading.set_row(12,norm_fading*channel13);
fading.set_row(13,norm_fading*channel14);
fading.set_row(14,norm_fading*channel15);
fading.set_row(15,norm_fading*channel16);*/
for (int k=0;k<L;k++){
transmitted_symbols+=concat(zeros_c(k),elem_mult(to_cvec(modulated_ofdm),fading.get_row(k)),zeros_c(L+1-k));
}
received_ofdm = channel(transmitted_symbols);
//received_chips = sum_chips;
cvec constellation;
vec estimated_channel;
double metric;
//bool is_ofdm=modem->detection(received_ofdm,metric);
modem->time_offset_estimate=0;
modem->frequency_offset_estimate=0;
cvec demodulated_ofdm_symbols=modem->equalizer_fourth_power(received_ofdm,0,estimated_channel);
received_bits=modem->demodulate_mask_gray_qpsk(demodulated_ofdm_symbols,0,constellation);
berc.count(transmitted_bits, received_bits);
ber(i) = berc.get_errorrate();
cout << " Iteration " << j + 1 << ": ber = " << berc.get_errorrate() << endl;
if (berc.get_errors() > MaxNrOfErrors) {
cout << "Breaking on point " << i + 1 << " with " << berc.get_errors() << " errors." << endl;
break;
}
}
if (berc.get_errors() < MinNrOfErrors) {
cout << "Exiting Simulation on point " << i + 1 << endl;
break;
}
}
//Print results:
cout << endl;
cout << "EbN0dB = " << EbN0dB << endl;
cout << "ber = " << ber << endl;
}
point TargetControl::genTarget(point currentPos, bool directionMatters)
{
double theta;
point targetPos;
if(!directionMatters) //Direction not constrained this trial
{
do
{
theta=randb(0,360);
targetPos=currentPos+point(cos(theta),sin(theta))*spawnDist;
} while(targetPos.mag()>innerRadius);
return targetPos;
}
//If direction predetermined, use it
if (nextDirection>=0) {targetPos=currentPos+point(cos(nextDirection),sin(nextDirection))*spawnDist; nextDirection=-1; return targetPos;}
//Make sure we haven't bottomed out
int sum=0;
for(int k=0;k<directions;k++)
{
sum+=((timesUsed[k]>=minUses)?0:1);
}
if (sum==0) minUses++;
//Find the best direction
double min=std::numeric_limits<double>::infinity();
int index=-1;
double mag;
point bestPos;
for(int k=0;k<directions;k++)
{
targetPos=currentPos+point(cos(direction[k]),sin(direction[k]))*spawnDist;
mag=targetPos.mag();
if((mag<min)&&(timesUsed[k]<minUses)&&(mag<innerRadius)) {min=mag; index=k; bestPos=targetPos;}
}
if(index != -1)
{
timesUsed[index]++;
return bestPos;
}
//If no direction can produce a legal target pick randomly among the least used and set up for it
int m=INT_MAX;
int i;
int * shuffle = new int[directions];
randperm(shuffle,directions);
for(int k=0;k<directions;k++)
if(timesUsed[shuffle[k]]<m) {m=timesUsed[shuffle[k]]; i=shuffle[k];}
timesUsed[i]++;
nextDirection=direction[i];
theta=atan2(currentPos.Y()+spawnDist*sin(direction[i]),currentPos.X()+spawnDist*cos(direction[i]))-3.14159265;
targetPos=currentPos - point(cos(theta),sin(theta))*spawnDist;
if (targetPos.mag()>innerRadius)
{
point V=point(spawnDist*cos(direction[i]),spawnDist*sin(direction[i]));
point center=currentPos+V;
double distance=center.mag();
double xi=(pow(distance,2)+pow(innerRadius,2)-pow(spawnDist,2))/(2*distance);
double yi=sqrt(pow(innerRadius,2)-pow(xi,2));
point i1=center*(xi/distance)+point(-center.Y(),center.X())*(yi/distance);
point i2=center*(xi/distance)-point(-center.Y(),center.X())*(yi/distance);
double angle1=atan2(i1.Y()-V.Y()-currentPos.Y(),i1.X()-V.X()-currentPos.X());
double angle2=atan2(i2.Y()-V.Y()-currentPos.Y(),i2.X()-V.X()-currentPos.X());
point p1p=currentPos+point(cos(angle1),sin(angle1))*spawnDist;
point p1m=currentPos+point(cos(angle2),sin(angle2))*spawnDist;
if (p1p.mag()>p1m.mag()) targetPos=p1m;
else targetPos=p1p;
}
return (targetPos.mag()<=maxRadius)?targetPos:point(0,0);
}
void draw() {
// update the mouse position and add it to the broadphase
auto mousePosition = static_cast<sf::Vector2f>(sf::Mouse::getPosition(window));
const auto mouseSize = mouseObject.getSize();
mouseObject.setPosition(mousePosition);
mousePosition -= mouseObject.getOrigin();
broadphase.addRectangle(
mousePosition.x,
mousePosition.y,
mouseSize.x,
mouseSize.y,
&mouseObject);
// move the rectangles around and add them to the broadphase
for (const auto& object : objects) {
object->setPosition(randb(0, window.getSize().x), randb(0, window.getSize().y));
const auto objectPosition = object->getPosition() - object->getOrigin();
const auto objectSize = object->getSize();
broadphase.addRectangle(
objectPosition.x,
objectPosition.y,
objectSize.x,
objectSize.y,
object);
object->setFillColor(sf::Color(0x00, 0x8B, 0x8B));
object->setOutlineColor(sf::Color::White);
}
// now query the collision pairs and change the color of objects that hit the mouse object to red
const auto &collisionPairs = broadphase.getCollisionPairs();
for (const auto &pair : collisionPairs) {
sf::RectangleShape *other = nullptr;
if (pair.first == &mouseObject)
other = (sf::RectangleShape*)pair.second;
else if (pair.second == &mouseObject)
other = (sf::RectangleShape*)pair.first;
else {
((sf::RectangleShape*)pair.first)->setOutlineColor(sf::Color::Cyan);
((sf::RectangleShape*)pair.second)->setOutlineColor(sf::Color::Cyan);
}
if (other != nullptr)
other->setFillColor(sf::Color(200, 0, 0));
}
// clear out the broadphase for the next run
broadphase.clear();
// clear the window with black color
window.clear(sf::Color::Black);
for (const auto& object : objects)
window.draw(*object);
window.draw(mouseObject);
// draw a grid to outline the buckets
const float lineThickness = 5;
const sf::Color lineColor(150, 150, 150);
sf::RectangleShape verticalLine(sf::Vector2f(lineThickness, window.getSize().y));
verticalLine.setFillColor(lineColor);
for (size_t i = 1; i < (window.getSize().x / broadphase.getCellWidth()); ++i) {
verticalLine.setPosition(i * broadphase.getCellWidth(), 0);
window.draw(verticalLine);
}
sf::RectangleShape horizontalLine(sf::Vector2f(window.getSize().x, lineThickness));
horizontalLine.setFillColor(lineColor);
for (size_t i = 1; i < (window.getSize().y / broadphase.getCellHeight()); ++i) {
horizontalLine.setPosition(0, i * broadphase.getCellHeight());
window.draw(horizontalLine);
}
}