void Context::postInit()
{
assert(!m_Limits);
// Must only be called once!
glewExperimental = GL_TRUE; //GL_FALSE;
GLenum e = glewInit();
if(e != GLEW_OK)
{
LogWarning("GLEW Error: %s", glewGetErrorString(e));
}
m_Limits = new Limits(this);
Log(
"Using OpenGL %s\n"
"Vendor: %s\n"
"Renderer: %s\n"
"GLSL: %s\n"
"GLEW: %s\n",
glGetString(GL_VERSION),
glGetString(GL_VENDOR),
glGetString(GL_RENDERER),
glGetString(GL_SHADING_LANGUAGE_VERSION),
glewGetString(GLEW_VERSION)
);
enableDebug(true);
m_Textures = new StrongRef<Texture>[limits().maxCombinedTextureUnits];
m_Samplers = new StrongRef<Sampler>[limits().maxCombinedTextureUnits];
m_Attributes = new VertexAttribute[limits().maxVertexAttributes];
selectTextureUnit(0); // Cause -1 is illogical and introduces errors with some functions
}
void SkJointEuler::type ( Type t )
{
if ( _type == (char)t ) return;
_type = (char)t;
if ( _type==(char)TypeZY )
{ value ( X, 0 );
limits ( X, true );
limits ( X, 0, 0 ); // will freeze X axis
}
SkJointQuat::ask_new();
}
/*!
\reimp
*/
void QModemPhoneBook::requestLimits( const QString& store )
{
QModemPhoneBookCache *cache;
// Find the cache entry associated with this store.
cache = findCache( store );
// If the cache is fully loaded, then emit the result now.
// If there is a password, then force a re-get of the phone book
// because the new password may not be the same as the original.
if ( cache->fullyLoaded && cache->passwd.isEmpty() ) {
emit limits( store, cache->limits );
return;
}
// We need to requery the extents if the phone book was previously loaded.
if ( cache->fullyLoaded ) {
cache->fullyLoaded = false;
cache->entries.clear();
cache->limits = QPhoneBookLimits();
sendQuery( cache );
}
// We'll need a signal to be emitted once it is fully loaded.
cache->needLimitEmit = true;
}
MgShape* MgCmdErase::hitTest(const MgMotion* sender)
{
Box2d limits(sender->startPointM, mgDisplayMmToModel(6, sender), 0);
Point2d nearpt;
return sender->view->shapes()->hitTest(limits, nearpt);
}
float MgComposite::_hitTest(const Point2d& pt, float tol, MgHitResult& res) const
{
void* it;
MgHitResult tmpRes;
Box2d limits(pt, 2 * tol, 0);
res.segment = 0;
res.dist = _FLT_MAX;
for (MgShape* sp = _shapes->getFirstShape(it); sp;
sp = _shapes->getNextShape(it))
{
if (limits.isIntersect(sp->shapec()->getExtent())) {
float d = sp->shapec()->hitTest(pt, tol, tmpRes);
if (res.dist > d - _MGZERO)
{
res = tmpRes;
res.dist = d;
res.segment = sp->getID();
}
}
}
_shapes->freeIterator(it);
return res.segment != 0;
}
void TextArea::display( const Rectangle& extents )
{
Rectangle limits( extents.geta() + border.geta(), extents.geta() + border.getb() );
limits.setintersect( extents );
gui->set_format_limits( limits );
Point cursor = limits.geta();
String next_line = text;
do
{
gui->set_current_cursor_location( cursor );
next_line = gui->writef( next_line, color );
cursor.increase_y();
}
while (next_line.formatlen() && limits.contains(cursor) ) ;
gui->reset_format_limits();
}
void Context::bindTexture( int unit, const StrongRef<Texture>& texture )
{
assert(InsideArray(unit, limits().maxCombinedTextureUnits));
if(m_Textures[unit] == texture)
return;
selectTextureUnit(unit);
if(!texture)
{
glBindTexture(ConvertToGL(m_Textures[unit]->type()), 0);
glDisable(ConvertToGL(m_Textures[unit]->type()));
m_Textures[unit] = NULL;
}
else
{
if(!m_Textures[unit] || (m_Textures[unit]->type() != texture->type()))
{
if(m_Textures[unit])
{
glDisable(ConvertToGL(m_Textures[unit]->type()));
}
glEnable(ConvertToGL(texture->type()));
}
glBindTexture(ConvertToGL(texture->type()), texture->handle());
m_Textures[unit] = texture;
}
}
/* Up_Down_Arrow()
* ====================================================================
* Handle the up and down arrow presses in the outline font dialog
* for the cache settings.
*/
void
Up_Down_Arrow( int obj, int UpButton, char *text, long *num, int NBase )
{
MRETS mk;
long min_cache;
XSelect( tree, obj );
*num = atol( text );
min_cache = (( UpButton == BUP ) ? ( 0L ) : ( MIN_CACHE_SIZE ) );
if( UpButton == CUP )
min_cache = MIN_CHAR_CACHE_SIZE;
*num = limits( *num, min_cache, MAX_CACHE_SIZE );
do
{
Evnt_timer( 50L );
if( obj == UpButton )
*num = (((*num + 1) > MAX_CACHE_SIZE ) ? ( MAX_CACHE_SIZE ) : ( *num + 1 ) );
else
*num = (((*num - 1) < min_cache ) ? ( min_cache ) : ( *num - 1 ) );
sprintf( text, "%5ld", *num );
Objc_draw( tree, NBase, MAX_DEPTH, NULL );
Graf_mkstate( &mk );
} while( mk.buttons );
XDeselect( tree, obj );
}
int main(int argc, char* argv[]) {
int gridRes = 5;
int increment = 1;
if (argc != 3) {
printf("Usage: ./CNmoonmarsCountPoints gridRes increment\n");
return EXIT_FAILURE;
}
gridRes = atoi(argv[1]);
increment = atoi(argv[2]);
printf("===============================================================\n");
std::string inputFile = "data/input-observedhotspots.txt";
printf("Point count is based on observed hotspots in file:\n");
printf("%s\n\n", inputFile.c_str());
ObservedHotspots observedHotspots(inputFile);
//observedHotspots.Iterate(PrintCoord, NULL);
//printf("\n");
AbcdSpaceLimits limits(observedHotspots);
limits.PrintToFile(stdout);
printf("\n");
long int count = AbcdSpaceProbabilityDistribution::CalculateNumberOfAbcdPoints(limits, gridRes, increment);
printf("Point count with gridRes = %d, increment = %d: %ld\n", gridRes, increment, count);
return EXIT_SUCCESS;
}
float MgComposite::_hitTest(const Point2d& pt, float tol, Point2d& nearpt,
int& segment, bool& inside) const
{
void* it;
float mindist = 1e10f;
Point2d tmpNear;
int tmpseg;
bool tmpIn;
Box2d limits(pt, 2 * tol, 0);
segment = 0;
for (MgShape* sp = _shapes->getFirstShape(it); sp;
sp = _shapes->getNextShape(it))
{
if (limits.isIntersect(sp->shapec()->getExtent())) {
float d = sp->shapec()->hitTest(pt, tol, tmpNear, tmpseg, tmpIn);
if (mindist > d - _MGZERO) {
mindist = d;
nearpt = tmpNear;
segment = sp->getID();
inside = tmpIn;
}
}
}
_shapes->freeIterator(it);
return mindist;
}
void PstnPhoneBook::requestLimits( const QString& store )
{
QPhoneBookLimits l;
l.setNumberLength( 20 );
l.setTextLength( 18 );
l.setFirstIndex( 1 );
l.setLastIndex( 150 );
emit limits( store, l );
}
int main() {
scanf("%d",&n);
int i,j;
for(i=0;i<n;i++)
scanf("%d",&a[i]);
scanf("%d %d",&p,&q);
ans = p;
limits(p);
limits(q);
for(i=0;i<n;++i)
{
for(j=i+1;j<n;++j)
limits( (a[i]+a[j])/2 );
}
printf("%d\n",ans);
return 0;
}
void OFonoPhoneBook::emitLimits(const QString & store)
{
QPhoneBookLimits l;
l.setUsed(numUsed);
l.setFirstIndex(1);
l.setLastIndex(numUsed);
l.setNumberLength(1);
l.setTextLength(1);
emit limits(store, l);
}
void operator()(iterator_t begin,
iterator_t end,
point_t& obb_center,
matrix_type& obb_orientation,
point_t& obb_low,
point_t& obb_high) {
obb_center = mean(begin, end);
obb_orientation = orientation(begin, end, obb_center);
limits(begin, end, obb_center, obb_orientation, obb_low, obb_high);
}
void HatchingBrush::hatch(KisPaintDeviceSP dev, qreal x, qreal y, double width, double height, double givenangle, const KoColor &color)
{
m_painter.begin(dev);
m_painter.setFillStyle(KisPainter::FillStyleForegroundColor);
m_painter.setPaintColor(color);
m_painter.setBackgroundColor(color);
angle = givenangle;
double tempthickness = m_settings->thickness * m_settings->thicknesssensorvalue;
if (tempthickness >= 1)
thickness = qRound(tempthickness);
else
thickness = 1;
if (m_settings->enabledcurveseparation)
separation = separationAsFunctionOfParameter(m_settings->separationsensorvalue, m_settings->separation, m_settings->separationintervals);
height_ = height;
width_ = width;
m_painter.setMaskImageSize(width_, height_);
QRect limits(QPoint(0,0), QPoint(width_, height_));
m_painter.setBounds(limits);
/* dx and dy are the separation between lines in the x and y axis
dx = separation / sin(angle*M_PI/180); csc = 1/sin(angle) */
dy = fabs(separation / cos(angle*M_PI/180)); // sec = 1/cos(angle)
// I took the absolute value to avoid confusions with negative numbers
if (!m_settings->subpixelprecision)
modf(dy, &dy);
// Exception for vertical lines, for which a tangent does not exist
if ((angle == 90) || (angle == -90))
{
verticalHotX = fmod((origin_x - x), separation);
iterateVerticalLines (true, 1, false); // Forward
iterateVerticalLines (true, 0, true); // In Between both
iterateVerticalLines (false, 1, false); // Backward
}
else
{
// Turn Angle + Point into Slope + Intercept
slope = tan(angle*M_PI/180); // Angle into slope
baseLineIntercept = origin_y - slope*origin_x; // Slope and Point of the Base Line into Intercept
cursorLineIntercept = y - slope*x;
hotIntercept = fmod((baseLineIntercept - cursorLineIntercept), dy); // This hotIntercept belongs to a line that intersects with the hatching area
iterateLines (true, 1, false); // Forward
iterateLines (true, 0, true); // In Between both
iterateLines (false, 1, false); // Backward
// I tried to make this cleaner but there's too many possibilities to be
// worth the micromanagement to optimize
}
}
bool MgCommandDraw::_click(const MgMotion* sender)
{
Box2d limits(sender->pointM, mgDisplayMmToModel(10, sender), 0);
Point2d nearpt;
MgShape* shape = sender->view->shapes()->hitTest(limits, nearpt);
if (shape) {
g_newShapeID = shape->getID();
mgGetCommandManager()->setCommand(sender, "select");
}
return shape || longPress(sender);
}
/* DoValuesCheck()
* ====================================================================
*/
void
DoValuesCheck( void )
{
long half;
int extra;
/* Speedo Character Stuff */
ccache = atol( CharSizeText );
if( !ccache )
ccache = old_ccache;
ccache = limits( ccache, MIN_CHAR_CACHE_SIZE, MAX_CACHE_SIZE );
/* Speedo Miscellaneous Stuff */
mcache = atol( MiscSizeText );
if( !mcache )
mcache = old_mcache;
mcache = limits( mcache, MIN_CACHE_SIZE, MAX_CACHE_SIZE );
/* Get Speedo Cache Size */
Current.SpeedoCacheSize = ccache + mcache;
/* Get Percent Value */
Current.speedo_percent = 0;
half = Current.SpeedoCacheSize / 2L;
extra = ((( ccache * 10L ) % Current.SpeedoCacheSize) > half );
CurPercent = (int)(( ccache * 10L ) / Current.SpeedoCacheSize);
Current.speedo_percent = CurPercent + extra;
Current.speedo_percent = (int)limits( (int)Current.speedo_percent, 1L, 9L );
/* Get BitMap Cache Size */
Current.BitMapCacheSize = atol( BitSizeText );
Current.BitMapCacheSize = limits( Current.BitMapCacheSize, 0L, MAX_CACHE_SIZE );
/* A Real Change has occurred, so set change flag */
if( ( Current.SpeedoCacheSize != OldSpeedoCache ) ||
( Current.speedo_percent != OldPercent ) ||
( Current.BitMapCacheSize != OldBitMapSize ) )
SetChangeFlag();
}
/*!
Constructs a new QContactSimSyncer as a child of the given \a parent for SIM storage of the given \a type.
*/
QContactSimSyncer::QContactSimSyncer(const QString &type, QObject *parent)
: QObject(parent), readState(Idle), mError(NoError), mSimType(type),
SIMLabelLimit(20), SIMNumberLimit(60),
SIMListStart(1), SIMListEnd(200),
addNameQuery("INSERT INTO contacts (recid, firstname, context) VALUES (:i, :fn, :c)"),
addNumberQuery("INSERT INTO contactphonenumbers (recid, phone_type, phone_number) VALUES (:i, 1, :pn)"),
updateNameQuery("UPDATE contacts SET firstname = :fn WHERE recid = :i"),
updateNumberQuery("UPDATE contactphonenumbers SET phone_number = :pn WHERE recid = :i AND phone_type = 1"),
removeNameQuery("DELETE FROM contacts WHERE recid = :i"),
removeNumberQuery("DELETE FROM contactphonenumbers WHERE recid = :i"),
selectNameQuery("SELECT firstname FROM contacts WHERE recid = :i"),
selectNumberQuery("SELECT phone_number from contactphonenumbers where recid=:id and phone_type=1"),
mPhoneBook(0), mSimInfo(0), simValueSpace(0), mReadyTimer(0)
{
static QUuid u("b63abe6f-36bd-4bb8-9c27-ece5436a5130");
// construct source for contact data.
mSource.context = u;
if (type == "SM")
mSource.identity = "sim";
else
mSource.identity = type;
mAccess = new ContactSqlIO(this);
mPhoneBook = new QPhoneBook( QString(), this );
mSimInfo = new QSimInfo( QString(), this );
connect(mPhoneBook, SIGNAL(entries(QString,QList<QPhoneBookEntry>)),
this, SLOT(updatePhoneBook(QString,QList<QPhoneBookEntry>)));
connect(mPhoneBook, SIGNAL(limits(QString,QPhoneBookLimits)),
this, SLOT(updatePhoneBookLimits(QString,QPhoneBookLimits)));
connect(mSimInfo, SIGNAL(inserted()), this, SLOT(updateSimIdentity()));
connect(mSimInfo, SIGNAL(removed()), this, SLOT(updateSimIdentity()));
readState = ReadingId | ReadingLimits | ReadingEntries;
resetSqlState();
if (mPhoneBook->storages().contains(mSimType))
sync();
else {
qLog(SimPhoneBook) << mSimType << "start timeout timer and connect to phonebook ready";
connect(mPhoneBook, SIGNAL(ready()), this, SLOT(sync()));
mReadyTimer = new QTimer(this);
mReadyTimer->setSingleShot(true);
mReadyTimer->setInterval(30000); // 30 seconds
connect(mReadyTimer, SIGNAL(timeout()), this, SLOT(simInfoTimeout()));
mReadyTimer->start();
}
}
matrix_type orientation(iterator_t point_begin,
iterator_t point_end,
point_t& center) const {
matrix<value_type, N, N> orientation;
value_type tightest_volume = boost::numeric::bounds<value_type>::highest();
for (int k = 0; k != _iterations; ++k) {
matrix<value_type, N, N> random;
point_t dir1 = generate_random_point();
point_t dir2 = generate_random_point();
point_t dir3 = generate_random_point();
// use ortho-normal system
dir1 /= dir1.length();
dir2 /= dir2.length();
dir3 /= dir3.length();
// normalize
dir3 = cross(dir1, dir2);
dir2 = cross(dir1, dir3);
random[0][0] = dir1[0];
random[1][0] = dir1[1];
random[2][0] = dir1[2];
random[0][1] = dir2[0];
random[1][1] = dir2[1];
random[2][1] = dir2[2];
random[0][2] = dir3[0];
random[1][2] = dir3[1];
random[2][2] = dir3[2];
// compute volume according to temporary orientation
point_t low, high;
limits(point_begin, point_end, center, random, low, high);
oriented_boundingbox<point_t> obb(random, center, low, high);
value_type volume = obb.volume();
// if tighter, apply
if (volume < tightest_volume) {
orientation = random;
tightest_volume = volume;
}
}
return orientation;
}
bool MgCommandDraw::_click(const MgMotion* sender)
{
Box2d limits(sender->pointM, sender->displayMmToModel(10.f), 0);
MgHitResult res;
MgShape* shape = sender->view->shapes()->hitTest(limits, res);
if (shape) {
sender->view->setNewShapeID(shape->getID());
sender->toSelectCommand();
LOGD("Command (%s) cancelled after the shape #%d clicked.", getName(), shape->getID());
}
return shape || (sender->view->useFinger() && longPress(sender));
}
const char* ocr_semantic_match(filtro_gestos_in_imagen_t* dibujo, pack_init_t* packInit)
{
char *devolver = 0;
int size,i;
char buffer[128];
char* text;
size=0;
if(dibujo && packInit){
fields_t* fields= limits(dibujo);
constellation_t* constelacion= makeConstellation(fields,dibujo);
for(i=0; i<constelacion->m_top; i++){
buffer[size]= match_constallation(packInit->dataBase,constelacion->m_list[i]);
if(i<constelacion->m_top-1 && fields->espacios[i]){size++; buffer[size]=' ';}
size++;
}
buffer[size]='\0';
freeFields(fields);
text= /*strdup(*/buffer/*)*/;
if(strcmp(text,"")){
char total[128]="";
int cont,k,a,i;
char word[128]=""; cont=k=a=0;
for(i=0; i<=size; i++){
if(text[i]==' '){
word[cont]='\0';
strcat(total,strcat(MatchDicc(word,cont,k,packInit,constelacion)," "));
word[0]='\0'; k=a; cont=0;}
else if(i==size){
word[cont]='\0';
strcat(total,strcat(MatchDicc(word,cont,k,packInit,constelacion)," "));
}
else {word[cont]=text[i]; a++; cont++;}
}
//free(dibujo->m_imagen);
//free(dibujo);
//freeConstellation(constelacion);
//return strdup(total);
devolver = strdup(total);
}
/*free(dibujo->m_imagen);
free(dibujo);*/
freeConstellation(constelacion);
}
/* free(dibujo->m_imagen);
free(dibujo);
freeConstellation(constelacion);*/
return devolver;
}
void tGauge::ChangeDataType( const tDataId& dataId )
{
m_SaveLimits = false;
if( dataId == DATA_TYPE_INVALID )
{
return;
}
//clear existing indicators
m_Indicators.clear();
m_Indicators << tIndicator( dataId );
//set captions and limits
tDigitalData pData( dataId );
AbsoluteLimits = pData.AbsoluteLimitsConverted();
tFloatLimits limits( pData.MinConverted(), pData.MaxConverted() );
tFloatLimits warnings( pData.WarningLowConverted(), pData.WarningHighConverted() );
m_UnitsType = pData.Units();
m_UnitsValue = tUnitsSettings::Instance()->Units( m_UnitsType );
//set update timer and update immediately
UpdateValues();
//autoconfigure if applicable
if( CanAutoConfigure() && AutoConfigure() )
{
DoAutoConfigure();
}
SetLimits( limits, warnings );
SetCaptions();
//does any type specific config
ReconfigureGauge();
m_BackIsCached = false;
m_ForeIsCached = false;
update();
m_Modified = true;
if( m_UnitsType != UNITS_ECONOMY )
{
// m_SaveLimits = true;
}
}
InterpolatorVec ReadInterpolatedLimits(const std::string& input_dir_name, Range& mass_range, Units units)
{
const auto& file_names = GetOrderedFileList(input_dir_name, ".*\\.root");
std::vector<std::vector<double>> limits(all_limit_quantiles.size());
std::set<double> masses;
const double units_factor = GetUnitsFactor(units);
if(!file_names.size())
throw exception("No input files are found.");
for(const auto& file_entry : file_names) {
const std::string& file_name = file_entry.second;
const double mass = file_entry.first;
std::cout << "Reading " << file_name << std::endl;
if(masses.count(mass))
throw exception("More than one file with for the mass point = %1%") % mass;
masses.insert(mass);
std::shared_ptr<TFile> file(new TFile(file_name.c_str(), "READ"));
std::shared_ptr<TTree> tree(dynamic_cast<TTree*>(file->Get("limit")));
double limit;
float quantileExpected;
tree->SetBranchAddress("limit", &limit);
tree->SetBranchAddress("quantileExpected", &quantileExpected);
for(Long64_t n = 0; n < tree->GetEntries(); ++n) {
tree->GetEntry(n);
const size_t quantile_id = GetQuantileId(quantileExpected);
limits.at(quantile_id).push_back(limit * units_factor);
}
}
const std::vector<double> mass_vec(masses.begin(), masses.end());
mass_range = Range(mass_vec.front(), mass_vec.back());
InterpolatorVec interps;
for(size_t n = 0; n < limits.size(); ++n) {
if(limits[n].size() != masses.size())
throw exception("Inconsistent input limits.");
InterpolatorPtr interp(new ROOT::Math::Interpolator(mass_vec, limits[n], ROOT::Math::Interpolation::kCSPLINE));
interps.push_back(interp);
}
return interps;
}
int non_pipe_process(char ***cmd_mat) {
int retval;
if ((retval = execute_non_forking(*cmd_mat)) == 2) {
long int sec1,uSec1; //set up time variables
etimeStart(&sec1,&uSec1); //start time
pid_t pid = fork_check();
if (pid == 0) { // child
char **new_subcmd = process_redirection(*cmd_mat);
execute_forking(new_subcmd);
} else { // parent
int status;
if (strcmp(process_redirection(*cmd_mat)[0], "limits") == 0) {
limits(pid);
} else if (strcmp(process_redirection(*cmd_mat)[0], "etime") == 0) {
etimeFinish(pid,sec1,uSec1);
} else
waitpid(pid, &status, 0);
retval = 1;
}
}
return retval;
}
void Solution::print(const std::string& output_path) {
Limits limit;
Dimension latitude(latitudeLeft, latitudeRight, 0);
Dimension longitude(longitudeLeft, longitudeRight, 0);
latitude.to_radian();
longitude.to_radian();
const unsigned density = 100;
for (auto i = static_cast<unsigned>(timeLeft); i < timeRight + 1; ++i) {
auto path = fmt::format("{}{}{:02}{}", output_path, "time_", i, ".txt");
std::ofstream out(path);
for (unsigned x = 0; x <= density; ++x) {
for (unsigned y = 0; y <= density; ++y) {
const float phi = latitude.left + (latitude.right - latitude.left) / density * x;
const float theta = longitude.left + (longitude.right - longitude.left) / density * y;
const float time = i * 3600;
float sum = 0;
for (const auto &item : grids) {
sum += item(phi, theta, time);
}
limit.update(sum);
fmt::print(out, "{:.2f}{}", sum, (y != density) ? ' ' : '\n');
}
}
out.close();
}
latitude.to_degrees();
longitude.to_degrees();
std::ofstream limits(output_path + "limits.txt");
fmt::print(limits, "{}\n{}\n{}", latitude, longitude, limit);
limits.close();
}
vector<vector<int> > combinationSum2(vector<int> &candidates, int target) {
candidates = filteCandidates(candidates, target);
vector<vector<int> > result;
int n = candidates.size();
if (n == 0)
return result;
std::sort(candidates.begin(), candidates.end(), std::less<int>());
vector<int> limits(n, 0);
int m = 1;
for (int i = 0; i < n; i++) {
if (candidates[i] == candidates[m - 1])
limits[m - 1]++;
else {
candidates[m] = candidates[i];
limits[m++] = 1;
}
}
candidates.resize(m);
vector<int> count(n, 0);
dfs(result, candidates, limits, target, 0, count);
return result;
}
void FsoPhoneBook::requestLimits(const QString & store)
{
qDebug() << "FsoPhoneBook::requestLimits store=" << store;
if (!simReady) {
wantLimits = true;
return;
}
QFsoDBusPendingReply < int, int, int >reply =
service->gsmSim.GetPhonebookInfo("contacts");
if (!checkReply(reply)) {
return;
}
QPhoneBookLimits l;
l.setUsed(numUsed);
l.setFirstIndex(1);
l.setLastIndex(reply.argumentAt(0).toInt());
l.setNumberLength(reply.argumentAt(1).toInt());
l.setTextLength(reply.argumentAt(2).toInt());
emit limits(store, l);
}
float MgComposite::_hitTest(const Point2d& pt, float tol, MgHitResult& res) const
{
MgShapeIterator it(_shapes);
MgHitResult tmpRes;
Box2d limits(pt, 2 * tol, 0);
res.segment = 0;
res.dist = _FLT_MAX;
while (MgShape* sp = it.getNext()) {
if (limits.isIntersect(sp->shapec()->getExtent())) {
float d = sp->shapec()->hitTest(pt, tol, tmpRes);
if (res.dist > d - _MGZERO)
{
res = tmpRes;
res.dist = d;
res.segment = sp->getID();
}
}
}
return res.segment != 0;
}
/* DoCache()
* ===================================================================
*/
void
DoCache( void )
{
long extra;
long interim;
Reset_Tree( ad_cache );
/* ------------------------------------------------------
* Handle the Cache I/O Boxes and the Unused Cache...
* ------------------------------------------------------
*/
Enable( LCACHE );
Enable( MCACHE );
Enable( SCACHE );
Enable( CCACHE );
MakeExit( LCACHE );
MakeExit( MCACHE );
MakeExit( SCACHE );
MakeExit( CCACHE );
Enable( CUTITLE );
Enable( CUNUSED );
Enable( MUTITLE );
Enable( MUNUSED );
dcache_size = bcache_size = 0L;
sprintf( data_cache_text, "%5ldK", dcache_size );
TedText( MUNUSED ) = data_cache_text;
/* Character Cache */
sprintf( bitmap_cache_text, "%5ldK", bcache_size );
TedText( CUNUSED ) = bitmap_cache_text;
if( !SpeedoFlag )
{
Disable( LCACHE );
Disable( MCACHE );
Disable( SCACHE );
Disable( CCACHE );
NoExit( LCACHE );
NoExit( MCACHE );
NoExit( SCACHE );
NoExit( CCACHE );
Disable( CUTITLE );
Disable( CUNUSED );
Disable( MUTITLE );
Disable( MUNUSED );
}
else
Calc_Cache( FALSE );
/* ------------------------------------------------------
* Handle the Cache Sizes...
* ------------------------------------------------------
*/
OldPercent = CurPercent = Current.speedo_percent;
OldSpeedoCache = Current.SpeedoCacheSize;
/* Set the Speedo Character Cache */
interim = Current.speedo_percent * Current.SpeedoCacheSize;
extra = ( interim % 10L ) > 5L;
ccache = ( interim / 10L ) + extra;
ccache = limits( ccache, MIN_CHAR_CACHE_SIZE, MAX_CACHE_SIZE );
old_ccache = ccache;
sprintf( CharSizeText,"%5ld", ccache );
TedText( CSIZE ) = CharSizeText;
/* Display a size based on a percentage of the Misc CACHE Size */
interim = (10L - (long)Current.speedo_percent ) * Current.SpeedoCacheSize;
extra = ( interim % 10L ) > 5L;
mcache = ( interim / 10L ) + extra;
mcache = limits( mcache, MIN_CACHE_SIZE, MAX_CACHE_SIZE );
old_mcache = mcache;
sprintf( MiscSizeText, "%5ld", mcache );
TedText( MSIZE ) = MiscSizeText;
/* Set the Bitmap Font Cache */
Current.BitMapCacheSize = limits( Current.BitMapCacheSize, 0L, MAX_CACHE_SIZE );
OldBitMapSize = Current.BitMapCacheSize;
sprintf( BitSizeText,"%5ld", Current.BitMapCacheSize );
TedText( BSIZE ) = BitSizeText;
/* Handle Getting the Current Minimum Amount of Miscellanous Required */
CurUsage = GetCurUsage();
sprintf( CurSizeText, "%5ldK", CurUsage );
TedText( CACHEMIN ) = CurSizeText;
Objc_draw( tree, ROOT, MAX_DEPTH, NULL );
}
float max(const FloatVector *v) {
return limits(v, 'b');
}