void OnLMBClick()
{
if (ms.y < gun->cy - 10)
{
double a;
int j = -1;
for (int i = 0; i < R_COUNT; i++)
{
if (crosses[i]->IsEnabled() == 0)
{
if (j >= -1) j = i;
}
else if (ms.x > crosses[i]->x - 10 && ms.x < crosses[i]->x + 10 && ms.y > crosses[i]->y - 10 && ms.y < crosses[i]->y + 10)
{
j = -2;
break;
}
}
if (j >= 0)
{
if (score > 0) score -= 1;
crosses[j]->Enable(ms.x, ms.y);
if (gun->cx - ms.x == 0)
{
a = M_PI/2;
}
else
{
a = atan((double)gun->cy - ms.y / (double) gun->cx - ms.x);
if (gun->cx - ms.x < 0) a += M_PI;
}
rockets[j]->Enable(round_int(gun->cx - 15 * cos(a)) - 2, round_int(gun->cy - 15 * sin(a)) - 5, 3, 6, round_int(gun->cx - 15 * cos(a)), round_int(gun->cy - 15 * sin(a)));
}
}
}
void DungeonUtil::drawLine(double x1, double y1, double x2, double y2, float brushSize, int steps, const SelectiveDungeonTile& tile) {
double x = x1;
double y = y1;
double deltaX = (x2 - x1);
double deltaY = (y2 - y1);
for(int i = 0; i < steps; i++) {
double percent = (double)i / (double)(MACRO_MAX(steps - 1, 1));
drawFilledCircle(round_int(x + (percent * deltaX)), round_int(y + (percent * deltaY)), brushSize, tile);
}
}
void Script :: logic(float t)
{
const unsigned int time_between_ticks = round_int(1000.0f / m_TickFrames);
// accumualate time
m_TickTime.logic(t);
//std::cout << m_TickTime.milliseconds() << std::endl;
if(m_TickTime.milliseconds() < time_between_ticks) {
return;
}
unsigned int remaining_frames = (unsigned int)(m_TickTime.milliseconds() / time_between_ticks - 1);
unsigned int remaining_time = (unsigned int)m_TickTime.milliseconds() % time_between_ticks;
// DEBUG{
//Log::get().write(str("Remaining Frames: ") + str(remaining_frames));
//assert(remaining_frames < 5);
// }DEBUG
m_TickTime.reset();
m_TickTime.logic(((remaining_frames)*time_between_ticks) + remaining_time);
// need to sleep?
if(m_SleepFrames > 0)
{
// sleep this frame
m_SleepFrames -= 1;
return;
}
int status = lua_resume(m_pThread, 0);
if(status != LUA_YIELD)
{
// either error or done with script
if(status == LUA_ERRRUN && lua_isstring(m_pThread, -1))
{
Log::get().error(str(lua_tostring(m_pThread, -1)));
return; // bail
}
else
{
// script is finished
m_bDone = true;
}
}
// figure out how many frames to sleep before resuming script
if(lua_isnumber(m_pThread, 1))
{
m_SleepFrames = round_int(lua_tonumber(m_pThread, 1) - 1.0);
if(m_SleepFrames < 0)
m_SleepFrames = 0;
}
}
void ClockCycleCounter::compute_clk_mul ()
{
assert (! _init_flag);
#if defined (__MACOS__)
long clk_speed_mhz = CurrentProcessorSpeed ();
const Int64 clk_speed =
static_cast <Int64> (clk_speed_mhz) * (1000L*1000L);
const double start_time_s = stopwatch_ClockCycleCounter_get_time_s ();
start ();
const double duration = 0.01; // Seconds
while (stopwatch_ClockCycleCounter_get_time_s () - start_time_s < duration)
{
continue;
}
const double stop_time_s = stopwatch_ClockCycleCounter_get_time_s ();
stop ();
const double diff_time_s = stop_time_s - start_time_s;
const double nbr_cycles = diff_time_s * static_cast <double> (clk_speed);
const Int64 diff_time_c = _state - _start_time;
const double clk_mul = nbr_cycles / static_cast <double> (diff_time_c);
_clk_mul = round_int (clk_mul);
#endif // __MACOS__
}
int filterer::commonDiff(scan *s1)
{
int common = 0;
if (s1->charge[0] == 1){
vector <int> dists;
dists.assign(300,0);
vector <peakData *> r;
for (unsigned int i = 0; i < s1->peaks.size(); ++i){
if (s1->peaks.at(i).rank == 1 || s1->peaks.at(i).rank == 2){
r.push_back(&s1->peaks.at(i));
}
}
for (unsigned int i = 0 ; i < r.size(); ++i){
for (unsigned int j = i; j < r.size() && j < i+5; ++j){
double diff = fabs(r.at(i)->exact_mz-r.at(j)->exact_mz);
if (diff > 20 && diff < 300){
dists[round_int(diff)]++;
}
}
}
for (unsigned int i = 0; i < dists.size(); ++i){
if (dists.at(i) >= 2){
common += dists.at(i)-1;
cout << dists.at(i) << " ";
}
}
cout << endl;
}
s1->commonDiff = common;
return common;
}
void DrawRocketsAndCrosses()
{
double a;
for (int i = 0; i < R_COUNT; i++)
{
if (crosses[i]->IsEnabled() == 1)
{
if (sqrt(((long int) (crosses[i]->x - rockets[i]->cx) * (crosses[i]->x - rockets[i]->cx)) + ((long int) (crosses[i]->y - rockets[i]->cy) * (crosses[i]->y - rockets[i]->cy))) < 5)
{
if (explodes[i]->IsEnabled() == 1)
{
explodes[i]->Disable(BG_COLOR);
}
explodes[i]->Enable(crosses[i]->x, crosses[i]->y);
crosses[i]->Disable(BG_COLOR);
rockets[i]->Disable(BG_COLOR);
}
else
{
crosses[i]->Draw(CROSS_COLOR);
if (rockets[i]->cx - crosses[i]->x == 0)
{
a = M_PI / 2;
}
else
{
a = atan((double)(rockets[i]->cy - crosses[i]->y) / (double)(rockets[i]->cx - crosses[i]->x));
if (rockets[i]->cx - crosses[i]->x < 0) a += M_PI;
}
rockets[i]->cx = round_int(rockets[i]->cx - R_SPEED * cos(a));
rockets[i]->cy = round_int(rockets[i]->cy - R_SPEED * sin(a));
rockets[i]->DrawAngle(crosses[i]->x, crosses[i]->y, R_COLOR);
}
}
}
}
/**************************************************************************
*
* Function Name :
* Parameters :
* Return Value :
* Purpose :
*
**************************************************************************/
int
is_an_integer(double value)
{
double abs_value;
if (value < 0.0) abs_value = value * -1.0;
else abs_value = value;
abs_value = round_int(abs_value) - abs_value;
if (abs_value < 0.0) abs_value = abs_value * -1.0;
if (abs_value <= DELTA) {
return (TRUE);
}
else {
return (FALSE);
}
}
void DungeonUtil::drawCrookedLine(double x1, double y1, double x2, double y2, int subdivisons, float maxDisplacement, float brushSize, const SelectiveDungeonTile& tile) {
// we'll use a midpoint displacement algorithm here
// we need to allow variance in the brushSize probably
// WARNING: precision might be too bad like this
if (subdivisons > 0) {
// find the perpendicular to the line
v2d_t offset = v2d_normalize(v2d_v(x2 - x1, y2 - y1));
// not done yet...
double temp = offset.vec[0];
offset.vec[0] = offset.vec[1];
offset.vec[1] = -temp;
// scale it
offset = v2d_scale(r_num(-maxDisplacement, maxDisplacement), offset);
double offsetMidpointX = avg(x1, x2) + offset.x;
double offsetMidpointY = avg(y1, y2) + offset.y;
maxDisplacement *= DISPLACEMENT_SCALE;
drawCrookedLine(x1, y1, offsetMidpointX, offsetMidpointY, subdivisons - 1, maxDisplacement, brushSize, tile);
drawCrookedLine(offsetMidpointX, offsetMidpointY, x2, y2, subdivisons - 1, maxDisplacement, brushSize, tile);
}
else {
// WARNING: is this really an acceptable way to draw this line?
// float lineLength = dist(x1, y1, x2, y2);
double lineLength = v2d_dist(v2d_v(x1, y1), v2d_v (x2, y2));
int steps = MACRO_MAX(round_int(lineLength / (brushSize * 0.5f)), 1);
// drawLine(round_int(x1), round_int(y1), round_int(x2), round_int(y2), brushSize, steps, tile);
drawLine(x1, y1, x2, y2, brushSize, steps, tile);
}
}
void CharacterInfo::reload() {
// update attributes
std::string attributes = "";
attributes.append(std::to_string(m_attributes->currentHealthPoints));
attributes.append("/");
attributes.append(std::to_string(m_attributes->maxHealthPoints));
attributes.append("\n");
// health regeneration
attributes.append(std::to_string(m_attributes->healthRegenerationPerS));
attributes.append("/s\n");
// crit
attributes.append(std::to_string(m_attributes->criticalHitChance));
attributes.append("%\n");
// cooldown reduction
attributes.append(std::to_string(m_attributes->haste));
attributes.append(" - ");
attributes.append(std::to_string(-round_int(m_attributes->cooldownMultiplier * 100.f - 100.f)));
attributes.append("% " + g_textProvider->getText("CooldownReduction"));
attributes.append("\n\n");
// dmg
attributes.append(std::to_string(m_attributes->damagePhysical) + "\n");
attributes.append(std::to_string(m_attributes->damageFire) + "\n");
attributes.append(std::to_string(m_attributes->damageIce) + "\n");
attributes.append(std::to_string(m_attributes->damageShadow) + "\n");
attributes.append(std::to_string(m_attributes->damageLight) + "\n\n");
// resistance
attributes.append(std::to_string(m_attributes->resistancePhysical));
attributes.append(" - ");
attributes.append(std::to_string(-round_int(m_attributes->physicalMultiplier * 100.f - 100.f)));
attributes.append("% " + g_textProvider->getText("Reduction"));
attributes.append("\n");
attributes.append(std::to_string(m_attributes->resistanceFire));
attributes.append(" - ");
attributes.append(std::to_string(-round_int(m_attributes->fireMultiplier * 100.f - 100.f)));
attributes.append("% " + g_textProvider->getText("Reduction"));
attributes.append("\n");
attributes.append(std::to_string(m_attributes->resistanceIce));
attributes.append(" - ");
attributes.append(std::to_string(-round_int(m_attributes->iceMultiplier * 100.f - 100.f)));
attributes.append("% " + g_textProvider->getText("Reduction"));
attributes.append("\n");
attributes.append(std::to_string(m_attributes->resistanceShadow));
attributes.append(" - ");
attributes.append(std::to_string(-round_int(m_attributes->shadowMultiplier * 100.f - 100.f)));
attributes.append("% " + g_textProvider->getText("Reduction"));
attributes.append("\n");
attributes.append(std::to_string(m_attributes->resistanceLight));
attributes.append(" - ");
attributes.append(std::to_string(-round_int(m_attributes->lightMultiplier * 100.f - 100.f)));
attributes.append("% " + g_textProvider->getText("Reduction"));
attributes.append("\n");
m_attributeText.setString(attributes);
m_window->setWidth(3 * GUIConstants::TEXT_OFFSET + m_namesText.getLocalBounds().width + m_attributeText.getLocalBounds().width);
}
void filterer::analyze(vector<scan*> &sec, parameters ¶ms)
{
for (unsigned int i = 0; i < sec.size();++i){
sec.at(i)->TICFore = 0;
sec.at(i)->TICBack = 0;
sec.at(i)->sumPeaksIntn = 0;
if (i % 500 == 0){
cout <<".";
cout.flush();
}
if (sec.at(i)->mz.size() != 0){
peakData p;
for (unsigned int j = 0; j < sec.at(i)->mz.size(); ++j){
p.has_a = false;
p.has_comp = false;
p.has_h2o_nh3 = false;
p.has_iso = false;
p.posi = j;
p.intn = sec.at(i)->intn.at(j);
p.exact_mz = sec.at(i)->mz.at(j);
p.mz = round_int(sec.at(i)->mz.at(j));
sec.at(i)->peaks.push_back(p);
}
sec.at(i)->num_peaks = sec.at(i)->peaks.size();
sec.at(i)->charge[0] = 0;
sec.at(i)->charge[1] = 0;
sec.at(i)->TIC = 0;
float sumP = 0;
double maxFore = 0;
double maxBack = 0;
double maxPeak = 0;
double secondPeak = 0;
for (unsigned int k = 0; k < sec.at(i)->peaks.size(); ++k){
sec.at(i)->TIC += sec.at(i)->peaks.at(k).intn;
sumP += sec.at(i)->peaks.at(k).intn;
if (sec.at(i)->peaks.at(k).mz <= sec.at(i)->preMZ){
sec.at(i)->TICFore+=sec.at(i)->peaks.at(k).intn;
if (sec.at(i)->peaks.at(k).intn > maxFore)
maxFore = sec.at(i)->peaks.at(k).intn;
}
else{
sec.at(i)->TICBack+=sec.at(i)->peaks.at(k).intn;
if (sec.at(i)->peaks.at(k).intn > maxBack)
maxBack = sec.at(i)->peaks.at(k).intn;
}
if (sec.at(i)->peaks.at(k).intn>maxPeak){
secondPeak = maxPeak;
maxPeak=sec.at(i)->peaks.at(k).intn;
}
else if (sec.at(i)->peaks.at(k).intn>secondPeak && sec.at(i)->peaks.at(k).intn<maxPeak){
secondPeak = sec.at(i)->peaks.at(k).intn;
}
}
sec.at(i)->TICFore -= maxFore;
sec.at(i)->TICBack -= maxBack;
sec.at(i)->sumPeaksIntn=sumP;
if (sec.at(i)->TICFore*0.125 > sec.at(i)->TICBack){
sec.at(i)->charge[0]=1;
sec.at(i)->charge[1]=0;
for (unsigned int j = 0; j < sec.at(i)->peaks.size(); ++j){
if (sec.at(i)->peaks.at(j).mz > sec.at(i)->preMZ){
sec.at(i)->peaks.erase(sec.at(i)->peaks.begin()+j);
j--;
}
}
}
sec.at(i)->num_peaks = sec.at(i)->peaks.size();
sec.at(i)->basePeakIntensity= maxPeak;
sec.at(i)->secBasePeakIntn = secondPeak;
calIntnRatio(sec.at(i));
goodSegments(sec.at(i));
neutralPeaks(sec.at(i));
calculateParents(sec.at(i));
complement(sec.at(i));
int num_r_peaks = 0;
for (unsigned int j = 0; j < sec.at(i)->peaks.size(); ++j){
if (sec.at(i)->peaks.at(j).rank<4)
num_r_peaks++;
}
sec.at(i)->num_r_peaks = num_r_peaks;
sec.at(i)->iso_ratio = 0;
if (num_r_peaks != 0)
sec.at(i)->iso_ratio = (double)sec.at(i)->num_iso/(double)sec.at(i)->num_r_peaks;
if (num_r_peaks != 0)
sec.at(i)->h2o_ratio = (double)sec.at(i)->num_h2o/(double)sec.at(i)->num_r_peaks;
}
//tout << endl;
}
calNormTIC(sec);
for (unsigned int i = 0; i < sec.size();++i){
sec.at(i)->discrim=discrim_m(*sec.at(i),params);
// if (sec.at(i)->discrim>cutoff)
// sec.at(i)->good = true;
// else
// sec.at(i)->good = false;
// evalCharge(sec.at(i));
}
cout <<"Done"<<endl;
}
void filterer::calculateParents(scan *s1)
{
int pCounts[5000];
double pSum[5000];
for (unsigned int k = 0; k < 5000; ++k){
pCounts[k] = 0;
pSum[k] = 0;
}
for (unsigned int k = 0; k <s1->peaks.size(); ++k){
if (s1->peaks.at(k).rank < 10){
for (unsigned int l = 0; l <s1->peaks.size(); ++l){
double sumval = s1->peaks.at(k).exact_mz+s1->peaks.at(l).exact_mz;
double sum2val = s1->peaks.at(k).exact_mz*2+s1->peaks.at(l).exact_mz;
if ((sumval > s1->preMZ-3 &&sumval < s1->preMZ+3) || (sumval > s1->preMZ*2-1-3 && sumval < s1->preMZ*2-1+3)){
int roundVal = round_int(sumval);
if (roundVal < 5000){
pCounts[roundVal]++;
pSum[roundVal]+=sumval;
}
}
if ((sumval > s1->preMZ*3-1-3 &&sumval < s1->preMZ*3-1+3)){
int roundVal = round_int(sum2val);
if (roundVal < 5000){
pCounts[roundVal]++;
pSum[roundVal]+=sum2val;
}
}
}
}
}
int maxP1 = 0;
int maxP2 = 0;
int maxP3 = 0;
int pos1 = 0;
int pos2 = 0;
int pos3 = 0;
unsigned int pre = round_int(s1->preMZ);
for (unsigned int k =pre-3; k <= pre+3; ++k){
if (k > 0 && k < 5000 && pCounts[k] > maxP1){
maxP1 = pCounts[k];
pos1 = k;
}
}
pre = round_int(s1->preMZ*2-1);
for (unsigned int k =pre-3; k <= pre+3; ++k){
if (k > 0 && k < 5000 && pCounts[k] > maxP2){
maxP2 = pCounts[k];
pos2 = k;
}
}
pre = round_int(s1->preMZ*3-1);
for (unsigned int k =pre-3; k <= pre+3; ++k){
if (k > 0 && k < 5000 && pCounts[k] > maxP3){
maxP3 = pCounts[k];
pos3 = k;
}
}
if (maxP1 == 0)
s1->parent1 = s1->preMZ; // stored as parent+H
else
s1->parent1 = pSum[pos1]/pCounts[pos1];
if (maxP2 == 0)
s1->parent2 = s1->preMZ*2-1; // stored as parent+H
else
s1->parent2 = pSum[pos2]/pCounts[pos2];
if (maxP3 == 0)
s1->parent3 = s1->preMZ*3-1; // stored as parent+H
else
s1->parent3 = pSum[pos3]/pCounts[pos3];
}
v2di_t DungeonUtil::arcLerp(int x, int y, float radius, float startAngle, float rotation, float percent) const {
float finalAngle = startAngle + (percent * rotation);
return v2di_v(x + round_int(radius * cos(finalAngle)), y + round_int(radius * sin(finalAngle)));
}
