double itemAnimationTime(LWItemID item, int *keys)
{
double t = 0.0;
LWChannelID chan[3];
int k[3]={0,0,0}, typ;
LWDVector tim;
VCLR(tim);
typ = itemInfo->type(item);
k[0] = itemKeys(item, LWIP_POSITION, chan,tim);
k[1] = itemKeys(item, LWIP_ROTATION, chan,tim+1);
if(typ==LWI_OBJECT)
k[2] = itemKeys(item, LWIP_SCALING, chan,tim+2);
else if(typ==LWI_LIGHT)
{
LWEnvelopeID intens;
lightIntensity(item,0.0,&intens);
if(intens)
tim[2] = envDuration(intens, &(k[2]));
k[2] += 2; // catch up to 3-channel types
}
t = MAX3(tim[0],tim[1],tim[2]);
if(keys)
*keys = MAX3(k[0],k[1],k[2]);
return t;
}
int compare_boxes(BBOX &box1, BBOX &box2)
{
double tol_x, tol_y, tol_z;
tol_x = 0.01*MAX3( ABS(box1.x_max-box1.x_min), ABS(box2.x_max-box2.x_min), 1. );
tol_y = 0.01*MAX3( ABS(box1.y_max-box1.y_min), ABS(box2.y_max-box2.y_min), 1. );
tol_z = 0.01*MAX3( ABS(box1.z_max-box1.z_min), ABS(box2.z_max-box2.z_min), 1. );
// tol_x = tol_y = tol_z = 0.;
if ( (box1.x_min - box2.x_max) > tol_x ) return(0); // Return 0 if no overlap
if ( (box2.x_min - box1.x_max) > tol_x ) return(0);
if ( (box1.y_min - box2.y_max) > tol_y ) return(0);
if ( (box2.y_min - box1.y_max) > tol_y ) return(0);
if ( (box1.z_min - box2.z_max) > tol_z ) return(0);
if ( (box2.z_min - box1.z_max) > tol_z ) return(0);
return(1); // Boxes overlap
}
long point_triangle_intersection(Point3 p, Triangle3 t)
{
long sign12,sign23,sign31;
Point3 vect12,vect23,vect31,vect1h,vect2h,vect3h;
Point3 cross12_1p,cross23_2p,cross31_3p;
/* First, a quick bounding-box test: */
/* If P is outside triangle bbox, there cannot be an intersection. */
if (p.x > MAX3(t.v1.x, t.v2.x, t.v3.x)) return(OUTSIDE);
if (p.y > MAX3(t.v1.y, t.v2.y, t.v3.y)) return(OUTSIDE);
if (p.z > MAX3(t.v1.z, t.v2.z, t.v3.z)) return(OUTSIDE);
if (p.x < MIN3(t.v1.x, t.v2.x, t.v3.x)) return(OUTSIDE);
if (p.y < MIN3(t.v1.y, t.v2.y, t.v3.y)) return(OUTSIDE);
if (p.z < MIN3(t.v1.z, t.v2.z, t.v3.z)) return(OUTSIDE);
/* For each triangle side, make a vector out of it by subtracting vertexes; */
/* make another vector from one vertex to point P. */
/* The crossproduct of these two vectors is orthogonal to both and the */
/* signs of its X,Y,Z components indicate whether P was to the inside or */
/* to the outside of this triangle side. */
SUB(t.v1, t.v2, vect12)
SUB(t.v1, p, vect1h);
CROSS(vect12, vect1h, cross12_1p)
sign12 = SIGN3(cross12_1p); /* Extract X,Y,Z signs as 0..7 or 0...63 integer */
SUB(t.v2, t.v3, vect23)
SUB(t.v2, p, vect2h);
CROSS(vect23, vect2h, cross23_2p)
sign23 = SIGN3(cross23_2p);
SUB(t.v3, t.v1, vect31)
SUB(t.v3, p, vect3h);
CROSS(vect31, vect3h, cross31_3p)
sign31 = SIGN3(cross31_3p);
/* If all three crossproduct vectors agree in their component signs, */
/* then the point must be inside all three. */
/* P cannot be OUTSIDE all three sides simultaneously. */
/* this is the old test; with the revised SIGN3() macro, the test
* needs to be revised. */
#ifdef OLD_TEST
if ((sign12 == sign23) && (sign23 == sign31))
return(INSIDE);
else
return(OUTSIDE);
#else
return ((sign12 & sign23 & sign31) == 0) ? OUTSIDE : INSIDE;
#endif
}
bool
NBRampsComputer::fulfillsRampConstraints(
NBEdge* potHighway, NBEdge* potRamp, NBEdge* other, SUMOReal minHighwaySpeed, SUMOReal maxRampSpeed) {
// do not build ramps on rail edges
if (isRailway(potHighway->getPermissions()) || isRailway(potRamp->getPermissions())) {
return false;
}
// do not build ramps on connectors
if (potHighway->isMacroscopicConnector() || potRamp->isMacroscopicConnector() || other->isMacroscopicConnector()) {
return false;
}
// check whether a lane is missing
if (potHighway->getNumLanes() + potRamp->getNumLanes() <= other->getNumLanes()) {
return false;
}
// check conditions
// is it really a highway?
SUMOReal maxSpeed = MAX3(potHighway->getSpeed(), other->getSpeed(), potRamp->getSpeed());
if (maxSpeed < minHighwaySpeed) {
return false;
}
/*
if (potHighway->getSpeed() < minHighwaySpeed || other->getSpeed() < minHighwaySpeed) {
return false;
}
*/
// is it really a ramp?
if (maxRampSpeed > 0 && maxRampSpeed < potRamp->getSpeed()) {
return false;
}
return true;
}
void
MELoop::checkCar(MEVehicle* veh) {
const SUMOTime leaveTime = veh->getEventTime();
MESegment* const onSegment = veh->getSegment();
MESegment* const toSegment = nextSegment(onSegment, veh);
const bool teleporting = (onSegment == 0); // is the vehicle currently teleporting?
if (changeSegment(veh, leaveTime, toSegment, teleporting)) {
return;
}
if (MSGlobals::gTimeToGridlock > 0 && veh->getWaitingTime() > MSGlobals::gTimeToGridlock && !veh->isStopped()) {
teleportVehicle(veh, toSegment);
return;
}
if (veh->getBlockTime() == SUMOTime_MAX) {
veh->setBlockTime(leaveTime);
}
if (leaveTime < toSegment->getEntryBlockTime()) {
// receiving segment has recently received another vehicle
veh->setEventTime(toSegment->getEntryBlockTime());
} else if (toSegment->hasSpaceFor(veh, leaveTime) && !veh->mayProceed()) {
// either the junction is blocked or the traffic light is red
veh->setEventTime(leaveTime + MAX2(SUMOTime(1), myLinkRecheckInterval));
} else {
SUMOTime newEventTime = MAX3(toSegment->getEventTime() + 1, leaveTime + 1, leaveTime + myFullRecheckInterval);
if (MSGlobals::gTimeToGridlock > 0) {
// if teleporting is enabled, make sure we look at the vehicle when the the gridlock-time is up
newEventTime = MIN2(newEventTime, veh->getBlockTime() + MSGlobals::gTimeToGridlock + 1);
}
veh->setEventTime(newEventTime);
}
addLeaderCar(veh, onSegment->getLink(veh));
}
inline
void rgb_to_hls(float r, float g, float b, float &h, float &l, float &s) {
/* Given: r, b, g each in [0.1]
* Desired: h in [0,360), l and s in [0,1]
*/
float max = MAX3(r,g,b);
float min = MIN3(r,g,b);
l = (max+min)/2.0f; /* This is lightness */
/* Next calculate saturation */
if (max == min) { /* Achromatic, because r = g = b */
s = 0.0f;
h = 0.0f; /* Actually: UNDEFINED */
}
else { /* Chromatic case */
float delta = max-min;
/* First calculate saturation */
s = (l<=0.5f) ? (delta / (max+min)) : (delta / (2.0f - (max+min)));
/* Next calculate the hue */
if (r == max)
h = (g-b)/delta;
else if (g == max)
h = 2.0f + (b-r)/delta;
else if (b == max)
h = 4.0f + (r-g)/delta;
h *= 60.0f;
if (h<0.0f)
h += 360.0f;
} /*Chromatic case */
} /* RGB_To_HLS */
hsv_color RGBtoHSV(rgba_color rgb) {
float min, max, delta;
min = MIN3(rgb.r, rgb.g, rgb.b);
max = MAX3(rgb.r, rgb.g, rgb.b);
hsv_color ret;
ret.a = rgb.a;
ret.v = max; // v
delta = max - min;
if (max != 0)
ret.s = delta / max; // s
else {
// r = g = b = 0 // s = 0, v is undefined
ret.s = 0;
ret.h = -1;
return ret;
}
if (rgb.r == max)
ret.h = (rgb.g - rgb.b) / delta; // between yellow & magenta
else if (rgb.g == max)
ret.h = 2 + (rgb.b - rgb.r) / delta; // between cyan & yellow
else
ret.h = 4 + (rgb.r - rgb.g) / delta; // between magenta & cyan
ret.h *= 60; // degrees
if (ret.h < 0)
ret.h += 360;
return ret;
}
/**
* @brief Convert an sRGB color to Hue-Saturation-Lightness (HSL)
*
* @param H, S, L pointers to hold the result
* @param R, G, B the input sRGB values scaled in [0,1]
*
* This routine transforms from sRGB to the double hexcone HSL color space
* The sRGB values are assumed to be between 0 and 1. The outputs are
* H = hexagonal hue angle (0 <= H < 360),
* S = { C/(2L) if L <= 1/2 (0 <= S <= 1),
* { C/(2 - 2L) if L > 1/2
* L = (max(R',G',B') + min(R',G',B'))/2 (0 <= L <= 1),
* where C = max(R',G',B') - min(R',G',B'). The inverse color transformation
* is given by Hsl2Rgb.
*
* Wikipedia: http://en.wikipedia.org/wiki/HSL_and_HSV
*/
void Rgb2Hsl(num *H, num *S, num *L, num R, num G, num B)
{
num Max = MAX3(R, G, B);
num Min = MIN3(R, G, B);
num C = Max - Min;
*L = (Max + Min)/2;
if(C > 0)
{
if(Max == R)
{
*H = (G - B) / C;
if(G < B)
*H += 6;
}
else if(Max == G)
*H = 2 + (B - R) / C;
else
*H = 4 + (R - G) / C;
*H *= 60;
*S = (*L <= 0.5) ? (C/(2*(*L))) : (C/(2 - 2*(*L)));
}
else
*H = *S = 0;
}
void Rgb2Hf(float *H, float R, float G, float B)
{
float Max = MAX3(R, G, B);
float Min = MIN3(R, G, B);
float C = Max - Min;
if(C > 0)
{
if(Max == R)
{
*H = (G - B) / C;
if(G < B)
*H += 6;
}
else if(Max == G)
*H = 2 + (B - R) / C;
else
*H = 4 + (R - G) / C;
*H *= 60;
}
else
*H = 0;
}
/**
* @brief Convert an sRGB color to Hue-Saturation-Value (HSV)
*
* @param H, S, V pointers to hold the result
* @param R, G, B the input sRGB values scaled in [0,1]
*
* This routine transforms from sRGB to the hexcone HSV color space. The
* sRGB values are assumed to be between 0 and 1. The output values are
* H = hexagonal hue angle (0 <= H < 360),
* S = C/V (0 <= S <= 1),
* V = max(R',G',B') (0 <= V <= 1),
* where C = max(R',G',B') - min(R',G',B'). The inverse color transformation
* is given by Hsv2Rgb.
*
* Wikipedia: http://en.wikipedia.org/wiki/HSL_and_HSV
*/
void Rgb2Hsv(num *H, num *S, num *V, num R, num G, num B)
{
num Max = MAX3(R, G, B);
num Min = MIN3(R, G, B);
num C = Max - Min;
*V = Max;
if(C > 0)
{
if(Max == R)
{
*H = (G - B) / C;
if(G < B)
*H += 6;
}
else if(Max == G)
*H = 2 + (B - R) / C;
else
*H = 4 + (R - G) / C;
*H *= 60;
*S = C / Max;
}
else
*H = *S = 0;
}
struct hsv_color rgbtohsv_int(struct rgb_color rgb) {
struct hsv_color hsv;
uint8_T rgb_min, rgb_max;
rgb_min = MIN3(rgb.r, rgb.g, rgb.b);
rgb_max = MAX3(rgb.r, rgb.g, rgb.b);
if((rgb_max-rgb_min)==0){
return hsv;
}else if(rgb_max==0){
return hsv;
}
/* Compute hue */
if (rgb_max == rgb.r) {
hsv.hue = 0 + 43*(rgb.g - rgb.b)/(rgb_max - rgb_min);
} else if (rgb_max == rgb.g) {
hsv.hue = 85 + 43*(rgb.b - rgb.r)/(rgb_max - rgb_min);
} else /* rgb_max == rgb.b */ {
hsv.hue = 171 + 43*(rgb.r - rgb.g)/(rgb_max - rgb_min);
}
hsv.val = rgb_max;
hsv.sat = 255*(long)(rgb_max - rgb_min)/rgb_max;
return hsv;
}
int _IsolateMinorE4(graphP theGraph)
{
isolatorContextP IC = &theGraph->IC;
if (IC->px != IC->x)
{
if (_MarkPathAlongBicompExtFace(theGraph, IC->r, IC->w) != OK ||
_MarkPathAlongBicompExtFace(theGraph, IC->py, IC->r) != OK)
return NOTOK;
}
else
{
if (_MarkPathAlongBicompExtFace(theGraph, IC->r, IC->px) != OK ||
_MarkPathAlongBicompExtFace(theGraph, IC->w, IC->r) != OK)
return NOTOK;
}
if (theGraph->functions.fpMarkDFSPath(theGraph, MIN3(IC->ux, IC->uy, IC->uz),
MAX3(IC->ux, IC->uy, IC->uz)) != OK ||
_MarkDFSPathsToDescendants(theGraph) != OK ||
_JoinBicomps(theGraph) != OK ||
_AddAndMarkUnembeddedEdges(theGraph) != OK)
return NOTOK;
theGraph->IC.minorType |= MINORTYPE_E4;
return OK;
}
void
MSPerson::MSPersonStage_Waiting::proceed(MSNet* net, MSTransportable* person, SUMOTime now, Stage* previous) {
previous->getEdge()->addPerson(person);
myWaitingStart = now;
const SUMOTime until = MAX3(now, now + myWaitingDuration, myWaitingUntil);
net->getPersonControl().setWaitEnd(until, person);
}
struct hsv_color rgb_to_hsv(struct rgb_color rgb) {
struct hsv_color hsv;
unsigned char rgb_min, rgb_max;
rgb_min = MIN3(rgb.r, rgb.g, rgb.b);
rgb_max = MAX3(rgb.r, rgb.g, rgb.b);
hsv.val = rgb_max;
if (hsv.val == 0) {
hsv.hue = hsv.sat = 0;
return hsv;
}
hsv.sat = 255*long(rgb_max - rgb_min)/hsv.val;
if (hsv.sat == 0) {
hsv.hue = 0;
return hsv;
}
/* Compute hue */
if (rgb_max == rgb.r) {
hsv.hue = 0 + 43*(rgb.g - rgb.b)/(rgb_max - rgb_min);
} else if (rgb_max == rgb.g) {
hsv.hue = 85 + 43*(rgb.b - rgb.r)/(rgb_max - rgb_min);
} else /* rgb_max == rgb.b */ {
hsv.hue = 171 + 43*(rgb.r - rgb.g)/(rgb_max - rgb_min);
}
return hsv;
}
static void
get_size_full( TorrentCellRenderer * cell,
GtkWidget * widget,
gint * width,
gint * height )
{
int w, h;
int xpad, ypad;
GdkRectangle icon_area;
GdkRectangle name_area;
GdkRectangle stat_area;
GdkRectangle prog_area;
const char * name;
GdkPixbuf * icon;
struct TorrentCellRendererPrivate * p = cell->priv;
const tr_torrent * tor = p->tor;
const tr_stat * st = tr_torrentStatCached( (tr_torrent*)tor );
const tr_info * inf = tr_torrentInfo( tor );
GString * gstr_prog = p->gstr1;
GString * gstr_stat = p->gstr2;
icon = get_icon( tor, FULL_ICON_SIZE, widget );
name = tr_torrentName( tor );
g_string_truncate( gstr_stat, 0 );
getStatusString( gstr_stat, tor, st, p->upload_speed_KBps, p->download_speed_KBps );
g_string_truncate( gstr_prog, 0 );
getProgressString( gstr_prog, tor, inf, st );
gtr_cell_renderer_get_padding( GTK_CELL_RENDERER( cell ), &xpad, &ypad );
/* get the idealized cell dimensions */
g_object_set( p->icon_renderer, "pixbuf", icon, NULL );
gtk_cell_renderer_get_size( p->icon_renderer, widget, NULL, NULL, NULL, &w, &h );
icon_area.width = w;
icon_area.height = h;
g_object_set( p->text_renderer, "text", name, "weight", PANGO_WEIGHT_BOLD, "scale", 1.0, "ellipsize", PANGO_ELLIPSIZE_NONE, NULL );
gtk_cell_renderer_get_size( p->text_renderer, widget, NULL, NULL, NULL, &w, &h );
name_area.width = w;
name_area.height = h;
g_object_set( p->text_renderer, "text", gstr_prog->str, "weight", PANGO_WEIGHT_NORMAL, "scale", SMALL_SCALE, NULL );
gtk_cell_renderer_get_size( p->text_renderer, widget, NULL, NULL, NULL, &w, &h );
prog_area.width = w;
prog_area.height = h;
g_object_set( p->text_renderer, "text", gstr_stat->str, NULL );
gtk_cell_renderer_get_size( p->text_renderer, widget, NULL, NULL, NULL, &w, &h );
stat_area.width = w;
stat_area.height = h;
/**
*** LAYOUT
**/
if( width != NULL )
*width = xpad * 2 + icon_area.width + GUI_PAD + MAX3( name_area.width, prog_area.width, stat_area.width );
if( height != NULL )
*height = ypad * 2 + name_area.height + prog_area.height + GUI_PAD_SMALL + p->bar_height + GUI_PAD_SMALL + stat_area.height;
/* cleanup */
g_object_unref( icon );
}
int _IsolateMinorE4(graphP theGraph)
{
isolatorContextP IC = &theGraph->IC;
if (IC->px != IC->x)
{
if (_MarkPathAlongBicompExtFace(theGraph, IC->r, IC->w) != OK ||
_MarkPathAlongBicompExtFace(theGraph, IC->py, IC->r) != OK)
return NOTOK;
}
else
{
if (_MarkPathAlongBicompExtFace(theGraph, IC->r, IC->px) != OK ||
_MarkPathAlongBicompExtFace(theGraph, IC->w, IC->r) != OK)
return NOTOK;
}
// Note: The x-y path is already marked, due to identifying E as the type of non-planarity minor
if (theGraph->functions.fpMarkDFSPath(theGraph, MIN3(IC->ux, IC->uy, IC->uz),
MAX3(IC->ux, IC->uy, IC->uz)) != OK ||
_MarkDFSPathsToDescendants(theGraph) != OK ||
_JoinBicomps(theGraph) != OK ||
_AddAndMarkUnembeddedEdges(theGraph) != OK)
return NOTOK;
theGraph->IC.minorType |= MINORTYPE_E4;
return OK;
}
/* TODO This function is only used by the fade to random HSV. It might be possible to eliminate */
void rgb_to_hsv(uint8_t red, uint8_t green, uint8_t blue, uint8_t* hue, uint8_t* sat, uint8_t* val) {
uint8_t rgb_min, rgb_max;
rgb_min = MIN3(red, green, blue);
rgb_max = MAX3(red, green, blue);
*val = rgb_max;
if (*val == 0) {
*hue = *sat = 0;
return;
}
*sat = 255*(rgb_max - rgb_min)/ *val;
if (*sat == 0) {
*hue = 0;
return;
}
/* Compute hue */
if (rgb_max == red) {
*hue = 0 + 43*(green - blue)/(rgb_max - rgb_min);
} else if (rgb_max == green) {
*hue = 85 + 43*(blue - red)/(rgb_max - rgb_min);
} else /* rgb_max == rgb.b */ {
*hue = 171 + 43*(red - green)/(rgb_max - rgb_min);
}
}
static hsv_color rgb_to_hsv(rgb_color rgb) {
uint8_t rgb_min, rgb_max;
hsv_color hsv;
//integer find min and max RGB value
rgb_min = MIN3(rgb.r, rgb.g, rgb.b);
rgb_max = MAX3(rgb.r, rgb.g, rgb.b);
//compute value
hsv.v = rgb_max;
if (hsv.v == 0) {
hsv.h = hsv.s = 0;
} else {
//integer compute saturation
hsv.s = 255*((uint16_t)(rgb_max - rgb_min))/hsv.v;
if (hsv.s == 0) {
hsv.h = 0;
} else {
//integer compute hue
if (rgb_max == rgb.r) {
hsv.h = 0 + 43*(rgb.g - rgb.b)/(rgb_max - rgb_min);
} else if (rgb_max == rgb.g) {
hsv.h = 85 + 43*(rgb.b - rgb.r)/(rgb_max - rgb_min);
} else /* rgb_max == rgb.b */ {
hsv.h = 171 + 43*(rgb.r - rgb.g)/(rgb_max - rgb_min);
}
}
}
return hsv;
}
double OperaColors::RGB2HUE(double r, double g, double b) {
double H;
double m2 = MAX3(r, g, b);
double m1 = CENTER(r, g, b);
double m0 = MIN3(r, g, b);
if (m2 == m1) {
if (r == g) {
H = 60;
goto _RGB2HUE_END;
}
if (g == b) {
H = 180;
goto _RGB2HUE_END;
}
H = 60;
goto _RGB2HUE_END;
}
double F = 60 * (m1 - m0) / (m2 - m0);
if (r == m2) {
H = 0 + F * (g - b);
goto _RGB2HUE_END;
}
if (g == m2) {
H = 120 + F * (b - r);
goto _RGB2HUE_END;
}
H = 240 + F * (r - g);
_RGB2HUE_END:
if (H < 0)
H = H + 360;
return H;
}
/* Find substrings matching .(expr), where expr is a balanced expression
* (following R rules for matching [], (), {}, '', "", ``, %%, \, and comments.)
* Returns a _list_ of _character arrays_ one array per each input string.
* Each character array alternates between "outside quote" and "inside quote."
*/
SEXP _find_subst_expressions_list(SEXP strs, SEXP begin, SEXP end) {
int ns, nb, ne;
assert_type(strs, STRSXP);
assert_type(begin, STRSXP);
assert_type(end, STRSXP);
ns = LENGTH(strs);
nb = LENGTH(begin);
ne = LENGTH(end);
int nout;
if (MIN3(ns, nb, ne) == 0) {
nout = 0;
} else {
nout = MAX3(ns, nb, ne);
if ((nout % ns > 0)||(nout % nb > 0)||(nout % ne > 0)) {
warning("longer object length is not a multiple"
" of shorter object length");
}
}
SEXP out = PROTECT(allocVector(VECSXP, nout));
if (ns == nout)
setAttrib(out, R_NamesSymbol, getAttrib(strs, R_NamesSymbol));
for (int i = 0; i < nout; i++) {
SET_VECTOR_ELT(out, i,
find_subst_expressions(STRING_ELT(strs, i%ns),
STRING_ELT(begin, i%nb),
STRING_ELT(end, i%ne)));
}
UNPROTECT(1);
return out;
}
void
MSPerson::MSPersonStage_Waiting::proceed(MSNet* net,
MSPerson* person, SUMOTime now,
const MSEdge & /*previousEdge*/) {
const SUMOTime until = MAX3(now, now + myWaitingDuration, myWaitingUntil);
net->getPersonControl().setArrival(until, person);
}
/******************************************************************************
FUNCTION: RGBtoHLS
PURPOSE: Convert from RGB to HLS
IN: RGB color (0xBBGGRR)
OUT: Hue, Saturation, Luminance from 0 to 1
COPYRIGHT:1995-1997 Robert Mashlan
Modified for LabWindows/CVI, 1999 Guillaume Dargaud
******************************************************************************/
void RGBtoHLS(const COLORREF rgb, double *H, double *L, double *S )
{
double delta;
double r = (double)((rgb )&0xFF)/255;
double g = (double)((rgb>> 8)&0xFF)/255;
double b = (double)((rgb>>16)&0xFF)/255;
double cmax = MAX3(r,g,b);
double cmin = MIN3(r,g,b);
*L=(cmax+cmin)/2.0;
if(cmax == cmin)
{
*S = *H = 0; // it's really undefined
}
else
{
if(*L < 0.5) *S = (cmax-cmin)/(cmax+cmin);
else *S = (cmax-cmin)/(2.0-cmax-cmin);
delta = cmax - cmin;
if(r == cmax)
{
*H = (g - b) / delta;
}
else
{
if(g == cmax) *H = 2.0 + (b-r) / delta;
else *H = 4.0 + (r-g) / delta;
}
*H /= 6.0;
if (*H < 0.0) *H += 1;
}
}
static void
get_size_full( TorrentCellRenderer * cell,
GtkWidget * widget,
gint * width,
gint * height )
{
int w, h;
GdkRectangle icon_area;
GdkRectangle name_area;
GdkRectangle stat_area;
GdkRectangle prog_area;
const char * name;
char * status;
char * progress;
GdkPixbuf * icon;
GtkCellRenderer * text_renderer;
struct TorrentCellRendererPrivate * p = cell->priv;
const tr_torrent * tor = p->tor;
const tr_stat * st = tr_torrentStatCached( (tr_torrent*)tor );
const tr_info * inf = tr_torrentInfo( tor );
icon = get_icon( tor, FULL_ICON_SIZE, widget );
name = inf->name;
status = getStatusString( tor, st, p->upload_speed, p->download_speed );
progress = getProgressString( tor, inf, st );
/* get the idealized cell dimensions */
g_object_set( p->icon_renderer, "pixbuf", icon, NULL );
gtk_cell_renderer_get_size( p->icon_renderer, widget, NULL, NULL, NULL, &w, &h );
icon_area.width = w;
icon_area.height = h;
text_renderer = get_text_renderer( st, cell );
g_object_set( text_renderer, "text", name, "weight", PANGO_WEIGHT_BOLD, "scale", 1.0, "ellipsize", PANGO_ELLIPSIZE_NONE, NULL );
gtk_cell_renderer_get_size( text_renderer, widget, NULL, NULL, NULL, &w, &h );
name_area.width = w;
name_area.height = h;
g_object_set( text_renderer, "text", progress, "weight", PANGO_WEIGHT_NORMAL, "scale", SMALL_SCALE, NULL );
gtk_cell_renderer_get_size( text_renderer, widget, NULL, NULL, NULL, &w, &h );
prog_area.width = w;
prog_area.height = h;
g_object_set( text_renderer, "text", status, NULL );
gtk_cell_renderer_get_size( text_renderer, widget, NULL, NULL, NULL, &w, &h );
stat_area.width = w;
stat_area.height = h;
/**
*** LAYOUT
**/
if( width != NULL )
*width = cell->parent.xpad * 2 + icon_area.width + GUI_PAD + MAX3( name_area.width, prog_area.width, stat_area.width );
if( height != NULL )
*height = cell->parent.ypad * 2 + name_area.height + prog_area.height + GUI_PAD_SMALL + p->bar_height + GUI_PAD_SMALL + stat_area.height;
/* cleanup */
g_free( status );
g_free( progress );
g_object_unref( icon );
}
static void
RGBtoHSV (double r, double g, double b, double *h, double *s, double *v)
{
double min, max, delta;
min = MIN3 (r, g, b );
max = MAX3 (r, g, b );
*v = max; // v
delta = max - min;
if (max != 0) *s = delta / max; // s
else {
*s = 0.0;
*h = 0.0;
return;
}
if (delta == 0.0) *h = 0.0; // some shade of grey
else if (r == max) *h = (g - b) / delta; // between yellow & magenta
else if (g == max) *h = 2 + ( b - r ) / delta; // between cyan & yellow
else *h = 4 + (r - g) / delta; // between magenta & cyan
#if 0
if (isnan (*h)) {
printf ("isnan %f %f %f %f %f %f\n", r, g, b, delta, max, min);
}
#endif
*h *= M_PI / 3.0; // degrees
if (*h < 0) *h += 2.0 * M_PI;
}
void
MSPerson::MSPersonStage_Waiting::proceed(MSNet* net, MSPerson* person, SUMOTime now,
MSEdge* previousEdge, const SUMOReal /* at */) {
previousEdge->addPerson(person);
const SUMOTime until = MAX3(now, now + myWaitingDuration, myWaitingUntil);
net->getPersonControl().setWaitEnd(until, person);
}
void RGBFtoHSV( float r, float g, float b, float *h, float *s, float *v )
{
float min, max, delta;
min = MIN3( r, g, b );
max = MAX3( r, g, b );
*v = max; // v
delta = max - min;
if( max != 0 )
*s = delta / max; // s
else {
// r = g = b = 0 // s = 0, v is undefined
*s = 0;
*h = -1;
return;
}
if( r == max )
*h = ( g - b ) / delta; // between yellow & magenta
else if( g == max )
*h = 2 + ( b - r ) / delta; // between cyan & yellow
else
*h = 4 + ( r - g ) / delta; // between magenta & cyan
*h *= 60; // degrees
if( *h < 0 )
*h += 360;
}
///
// PointTriangleIntersection()
//
// Test if 3D point is inside 3D triangle
static
int PointTriangleIntersection(const vector3& p, const TRI& t)
{
int sign12,sign23,sign31;
vector3 vect12,vect23,vect31,vect1h,vect2h,vect3h;
vector3 cross12_1p,cross23_2p,cross31_3p;
///
// First, a quick bounding-box test:
// If P is outside triangle bbox, there cannot be an intersection.
//
if (p.x() > MAX3(t.m_P[0].x(), t.m_P[1].x(), t.m_P[2].x())) return(OUTSIDE);
if (p.y() > MAX3(t.m_P[0].y(), t.m_P[1].y(), t.m_P[2].y())) return(OUTSIDE);
if (p.z() > MAX3(t.m_P[0].z(), t.m_P[1].z(), t.m_P[2].z())) return(OUTSIDE);
if (p.x() < MIN3(t.m_P[0].x(), t.m_P[1].x(), t.m_P[2].x())) return(OUTSIDE);
if (p.y() < MIN3(t.m_P[0].y(), t.m_P[1].y(), t.m_P[2].y())) return(OUTSIDE);
if (p.z() < MIN3(t.m_P[0].z(), t.m_P[1].z(), t.m_P[2].z())) return(OUTSIDE);
///
// For each triangle side, make a vector out of it by subtracting vertexes;
// make another vector from one vertex to point P.
// The crossproduct of these two vectors is orthogonal to both and the
// signs of its X,Y,Z components indicate whether P was to the inside or
// to the outside of this triangle side.
//
SUB(t.m_P[0], t.m_P[1], vect12);
SUB(t.m_P[0], p, vect1h);
CROSS(vect12, vect1h, cross12_1p)
sign12 = SIGN3(cross12_1p); /* Extract X,Y,Z signs as 0..7 or 0...63 integer */
SUB(t.m_P[1], t.m_P[2], vect23)
SUB(t.m_P[1], p, vect2h);
CROSS(vect23, vect2h, cross23_2p)
sign23 = SIGN3(cross23_2p);
SUB(t.m_P[2], t.m_P[0], vect31)
SUB(t.m_P[2], p, vect3h);
CROSS(vect31, vect3h, cross31_3p)
sign31 = SIGN3(cross31_3p);
///
// If all three crossproduct vectors agree in their component signs, /
// then the point must be inside all three.
// P cannot be OUTSIDE all three sides simultaneously.
//
return (((sign12 & sign23 & sign31) == 0) ? OUTSIDE : INSIDE);
}
int main(void)
{
int a = 1, b = 2, c = 3;
printf("min = %i\n", MIN(a, b));
printf ("max3 = %i\n", MAX3(a, b, c));
return 0;
}
/*********************************************************************
* @fn hwLight_RGB_to_RGBW
*
* @brief Convert RGB LED values to RGBW. The white value is written to W,
* the original RGB values are overwritten.
*
* @param R - pointer to red input and output value from 0 to PWM_FULL_DUTY_CYCLE
* @param G - pointer to green input and output value from 0 to PWM_FULL_DUTY_CYCLE
* @param B - pointer to blue input and output value from 0 to PWM_FULL_DUTY_CYCLE
* @param W - pointer to white output value from 0 to PWM_FULL_DUTY_CYCLE
*
* @return none
*/
static void hwLight_RGB_to_RGBW( uint16 *R, uint16 *G, uint16 *B, uint16 *W )
{
uint16 w;
if ( MAX3(*R,*G,*B) == 0 )
{
*W = 0;
return;
}
w = (uint16)( ( (uint32)MIN3(*R,*G,*B) * ( *R + *G + *B ) ) / ( MAX3(*R,*G,*B) * 3 ) );
*R += w;
*G += w;
*B += w;
*W = MIN3(*R,*G,*B);
*W = (*W > PWM_FULL_DUTY_CYCLE) ? PWM_FULL_DUTY_CYCLE : *W;
*R -= *W;
*G -= *W;
*B -= *W;
}
void add (DiffRecord* drp) {
uint32_t mismatchValue;
if (drp->fBase.fFilename.equals(drp->fComparison.fFilename)) {
fResultsOfType[drp->fResult].push(new SkString(drp->fBase.fFilename));
} else {
SkString* blame = new SkString("(");
blame->append(drp->fBase.fFilename);
blame->append(", ");
blame->append(drp->fComparison.fFilename);
blame->append(")");
fResultsOfType[drp->fResult].push(blame);
}
switch (drp->fResult) {
case DiffRecord::kEqualBits_Result:
fNumMatches++;
break;
case DiffRecord::kEqualPixels_Result:
fNumMatches++;
break;
case DiffRecord::kDifferentSizes_Result:
fNumMismatches++;
break;
case DiffRecord::kDifferentPixels_Result:
fNumMismatches++;
if (drp->fFractionDifference * 100 > fMaxMismatchPercent) {
fMaxMismatchPercent = drp->fFractionDifference * 100;
}
mismatchValue = MAX3(drp->fMaxMismatchR, drp->fMaxMismatchG,
drp->fMaxMismatchB);
if (mismatchValue > fMaxMismatchV) {
fMaxMismatchV = mismatchValue;
}
break;
case DiffRecord::kCouldNotCompare_Result:
fNumMismatches++;
fStatusOfType[drp->fBase.fStatus][drp->fComparison.fStatus].push(
new SkString(drp->fBase.fFilename));
break;
case DiffRecord::kUnknown_Result:
SkDEBUGFAIL("adding uncategorized DiffRecord");
break;
default:
SkDEBUGFAIL("adding DiffRecord with unhandled fResult value");
break;
}
switch (drp->fResult) {
case DiffRecord::kEqualBits_Result:
case DiffRecord::kEqualPixels_Result:
break;
default:
add_unique_basename(&fFailedBaseNames[drp->fResult], drp->fBase.fFilename);
break;
}
}
