/** Used to get the normal vector of the road (pointing upward).
Local coordinates are used to locate the point where to
get the road normal vector.
The vector is normalized.
@ingroup tracktools
@param p Local position
@param norm Returned normalized road normal vector
*/
void
RtTrackSurfaceNormalL(tTrkLocPos *p, t3Dd *norm)
{
tTrkLocPos p1;
t3Dd px1, px2, py1, py2;
t3Dd v1, v2;
tdble lg;
p1.seg = p->seg;
p1.toStart = 0;
p1.toRight = p->toRight;
RtTrackLocal2Global(&p1, &px1.x, &px1.y, TR_TORIGHT);
px1.z = RtTrackHeightL(&p1);
if (p1.seg->type == TR_STR) {
p1.toStart = p1.seg->length;
} else {
p1.toStart = p1.seg->arc;
}
RtTrackLocal2Global(&p1, &px2.x, &px2.y, TR_TORIGHT);
px2.z = RtTrackHeightL(&p1);
p1.toRight = 0;
p1.toStart = p->toStart;
RtTrackLocal2Global(&p1, &py1.x, &py1.y, TR_TORIGHT);
py1.z = RtTrackHeightL(&p1);
p1.toRight = p1.seg->width;
RtTrackLocal2Global(&p1, &py2.x, &py2.y, TR_TORIGHT);
py2.z = RtTrackHeightL(&p1);
v1.x = px2.x - px1.x;
v1.y = px2.y - px1.y;
v1.z = px2.z - px1.z;
v2.x = py2.x - py1.x;
v2.y = py2.y - py1.y;
v2.z = py2.z - py1.z;
norm->x = v1.y * v2.z - v2.y * v1.z;
norm->y = v2.x * v1.z - v1.x * v2.z;
norm->z = v1.x * v2.y - v2.x * v1.y;
lg = sqrt(norm->x * norm->x + norm->y * norm->y + norm->z * norm->z);
if (lg == 0.0) {
lg = 1.0f;
} else {
lg = 1.0f / lg;
}
norm->x *= lg;
norm->y *= lg;
norm->z *= lg;
}
void PTrackManager::CorrectCars()
{
for (int i = 0; i < nCars; i++)
{
tCarElt* curCar = &carList[i];
// If current car on first segment, prevent from leaving segment
if (curCar->pub.trkPos.seg->id == 0)
{
if (curCar->pub.trkPos.toStart < 10)
{
curCar->pub.trkPos.toStart = 10;
RtTrackLocal2Global(&(curCar->_trkPos), &(curCar->_pos_X), &(curCar->_pos_Y), TR_TORIGHT);
raceManager->_reSimItf.config(curCar, raceManager);
}
}
}
}
void PTrackManager::InitCars()
{
// Get pointer to car list
carList = raceManager->carList;
// Retrieve number of cars in race
nCars = raceManager->s->raceInfo.ncars;
// Start segment
tTrackSeg* startSeg = track->GetStart();
// Array of positions
tTrkLocPos* positions = new tTrkLocPos[nCars];
for (int i = 0; i < nCars; i++)
positions[i] = tTrkLocPos();
// Spacing between cars
tdble carXSpacing = (startSeg->width / 2) - 3; // Assuming 3 is around average car width
tdble carYSpacing = 20;
/* Starting grid positons are calculated regardless of pole position as follows:
Y
|---------|
| P1 P2 |
| P3 P4 |
| P5 P6 |
| P7 P8 |
| P9 P10 |
|---------| - X
*/
// Calculate position grid here
if (nCars > 1)
{
int row = 1;
for (int i = 0; i < nCars; i++) // Grid Y
{
tTrkLocPos* curPos = &positions[i];
curPos->seg = startSeg;
curPos->toStart = startSeg->length - (carYSpacing * row);
if (i % 2 > 0) // RIGHT POS
curPos->toMiddle = carXSpacing;
else if (i % 2 == 0) // LEFT POS
{
curPos->toMiddle = -carXSpacing;
row++;
}
}
}
else
{
positions[0].seg = startSeg;
positions[0].toStart = startSeg->length - carYSpacing;
positions[0].toMiddle = carXSpacing;
}
// Assign car positions
for (int i = 0; i < nCars; i++)
{
// Get the car
tCarElt* curCar = &carList[i];
// Assign the car the correct position
curCar->pub.trkPos = positions[i];
// Convert the local position to a global one, and assign to car's actual global position
RtTrackLocal2Global(&(curCar->_trkPos), &(curCar->_pos_X), &(curCar->_pos_Y), TR_TOMIDDLE);
}
// Set up cars in physics sim
for (int i = 0; i < nCars; i++)
{
tCarElt* curCar = &carList[i];
raceManager->_reSimItf.config(curCar, raceManager);
}
delete[] positions;
}
/*
* Function
* initStartingGrid
*
* Description
* Place the cars on the starting grid
*
* Parameters
* Race Information structure initialized
*
* Return
* none
*/
static void
initStartingGrid(void)
{
char path[64];
int i;
tTrackSeg *curseg;
int rows;
tdble a, b;
//tdble wi2; // Never used.
tdble d1, d2,d3;
tdble startpos, tr, ts;
tdble speedInit;
tdble heightInit;
tCarElt *car;
const char *pole;
void *trHdle = ReInfo->track->params;
void *params = ReInfo->params;
snprintf(path, sizeof(path), "%s/%s", ReInfo->_reRaceName, RM_SECT_STARTINGGRID);
/* Search for the first turn for find the pole side */
curseg = ReInfo->track->seg->next;
while (curseg->type == TR_STR) {
/* skip the straight segments */
curseg = curseg->next;
}
/* Set the pole for the inside of the first turn */
if (curseg->type == TR_LFT) {
pole = GfParmGetStr(params, path, RM_ATTR_POLE, "left");
} else {
pole = GfParmGetStr(params, path, RM_ATTR_POLE, "right");
}
/* Tracks definitions can force the pole side */
pole = GfParmGetStr(trHdle, RM_SECT_STARTINGGRID, RM_ATTR_POLE, pole);
if (strcmp(pole, "left") == 0) {
a = ReInfo->track->width;
b = -a;
} else {
a = 0;
b = ReInfo->track->width;
}
//wi2 = ReInfo->track->width * 0.5f; // Never used.
rows = (int)GfParmGetNum(params, path, RM_ATTR_ROWS, (char*)NULL, 2);
rows = (int)GfParmGetNum(trHdle, RM_SECT_STARTINGGRID, RM_ATTR_ROWS, (char*)NULL, (tdble)rows);
d1 = GfParmGetNum(params, path, RM_ATTR_TOSTART, (char*)NULL, 10);
d1 = GfParmGetNum(trHdle, RM_SECT_STARTINGGRID, RM_ATTR_TOSTART, (char*)NULL, d1);
d2 = GfParmGetNum(params, path, RM_ATTR_COLDIST, (char*)NULL, 10);
d2 = GfParmGetNum(trHdle, RM_SECT_STARTINGGRID, RM_ATTR_COLDIST, (char*)NULL, d2);
d3 = GfParmGetNum(params, path, RM_ATTR_COLOFFSET, (char*)NULL, 5);
d3 = GfParmGetNum(trHdle, RM_SECT_STARTINGGRID, RM_ATTR_COLOFFSET, (char*)NULL, d3);
speedInit = GfParmGetNum(params, path, RM_ATTR_INITSPEED, (char*)NULL, 0.0);
heightInit = GfParmGetNum(params, path, RM_ATTR_INITHEIGHT, (char*)NULL, 0.3f);
heightInit = GfParmGetNum(trHdle, RM_SECT_STARTINGGRID, RM_ATTR_INITHEIGHT, (char*)NULL, heightInit);
if (rows < 1) {
rows = 1;
}
for (i = 0; i < ReInfo->s->_ncars; i++) {
car = &(ReInfo->carList[i]);
car->_speed_x = speedInit;
startpos = ReInfo->track->length - (d1 + (i / rows) * d2 + (i % rows) * d3);
tr = a + b * ((i % rows) + 1) / (rows + 1);
curseg = ReInfo->track->seg; /* last segment */
while (startpos < curseg->lgfromstart) {
curseg = curseg->prev;
}
ts = startpos - curseg->lgfromstart;
car->_trkPos.seg = curseg;
car->_trkPos.toRight = tr;
switch (curseg->type) {
case TR_STR:
car->_trkPos.toStart = ts;
RtTrackLocal2Global(&(car->_trkPos), &(car->_pos_X), &(car->_pos_Y), TR_TORIGHT);
car->_yaw = curseg->angle[TR_ZS];
break;
case TR_RGT:
car->_trkPos.toStart = ts / curseg->radius;
RtTrackLocal2Global(&(car->_trkPos), &(car->_pos_X), &(car->_pos_Y), TR_TORIGHT);
car->_yaw = curseg->angle[TR_ZS] - car->_trkPos.toStart;
break;
case TR_LFT:
car->_trkPos.toStart = ts / curseg->radius;
RtTrackLocal2Global(&(car->_trkPos), &(car->_pos_X), &(car->_pos_Y), TR_TORIGHT);
car->_yaw = curseg->angle[TR_ZS] + car->_trkPos.toStart;
break;
}
car->_pos_Z = RtTrackHeightL(&(car->_trkPos)) + heightInit;
FLOAT_NORM0_2PI(car->_yaw);
RePhysicsEngine().configureCar(car);
}
}
static void
RemoveCar(tCar *car, tSituation *s)
{
int i;
tCarElt *carElt;
tTrkLocPos trkPos;
int trkFlag;
tdble travelTime;
tdble dang;
#define PULL_Z_OFFSET 3.0
#define PULL_SPD 0.5
carElt = car->carElt;
if (carElt->_state & RM_CAR_STATE_PULLUP) {
carElt->_pos_Z += car->restPos.vel.z * SimDeltaTime;
carElt->_yaw += car->restPos.vel.az * SimDeltaTime;
carElt->_roll += car->restPos.vel.ax * SimDeltaTime;
carElt->_pitch += car->restPos.vel.ay * SimDeltaTime;
sgMakeCoordMat4(carElt->pub.posMat, carElt->_pos_X, carElt->_pos_Y, carElt->_pos_Z - carElt->_statGC_z,
RAD2DEG(carElt->_yaw), RAD2DEG(carElt->_roll), RAD2DEG(carElt->_pitch));
if (carElt->_pos_Z > (car->restPos.pos.z + PULL_Z_OFFSET)) {
carElt->_state &= ~RM_CAR_STATE_PULLUP;
carElt->_state |= RM_CAR_STATE_PULLSIDE;
travelTime = DIST(car->restPos.pos.x, car->restPos.pos.y, carElt->_pos_X, carElt->_pos_Y) / PULL_SPD;
car->restPos.vel.x = (car->restPos.pos.x - carElt->_pos_X) / travelTime;
car->restPos.vel.y = (car->restPos.pos.y - carElt->_pos_Y) / travelTime;
}
return;
}
if (carElt->_state & RM_CAR_STATE_PULLSIDE) {
carElt->_pos_X += car->restPos.vel.x * SimDeltaTime;
carElt->_pos_Y += car->restPos.vel.y * SimDeltaTime;
sgMakeCoordMat4(carElt->pub.posMat, carElt->_pos_X, carElt->_pos_Y, carElt->_pos_Z - carElt->_statGC_z,
RAD2DEG(carElt->_yaw), RAD2DEG(carElt->_roll), RAD2DEG(carElt->_pitch));
if ((fabs(car->restPos.pos.x - carElt->_pos_X) < 0.5) && (fabs(car->restPos.pos.y - carElt->_pos_Y) < 0.5)) {
carElt->_state &= ~RM_CAR_STATE_PULLSIDE;
carElt->_state |= RM_CAR_STATE_PULLDN;
}
return;
}
if (carElt->_state & RM_CAR_STATE_PULLDN) {
carElt->_pos_Z -= car->restPos.vel.z * SimDeltaTime;
sgMakeCoordMat4(carElt->pub.posMat, carElt->_pos_X, carElt->_pos_Y, carElt->_pos_Z - carElt->_statGC_z,
RAD2DEG(carElt->_yaw), RAD2DEG(carElt->_roll), RAD2DEG(carElt->_pitch));
if (carElt->_pos_Z < car->restPos.pos.z) {
carElt->_state &= ~RM_CAR_STATE_PULLDN;
carElt->_state |= RM_CAR_STATE_OUT;
}
return;
}
if (carElt->_state & RM_CAR_STATE_NO_SIMU) {
return;
}
if ((s->_maxDammage) && (car->dammage > s->_maxDammage)) {
carElt->_state |= RM_CAR_STATE_BROKEN;
} else {
carElt->_state |= RM_CAR_STATE_OUTOFGAS;
}
carElt->_gear = car->transmission.gearbox.gear = 0;
carElt->_enginerpm = car->engine.rads = 0;
if (!(carElt->_state & RM_CAR_STATE_DNF)) {
if (fabs(carElt->_speed_x) > 1.0) {
return;
}
}
carElt->_state |= RM_CAR_STATE_PULLUP;
carElt->priv.collision = car->collision = 0;
for(i = 0; i < 4; i++) {
carElt->_skid[i] = 0;
carElt->_wheelSpinVel(i) = 0;
carElt->_brakeTemp(i) = 0;
}
carElt->pub.DynGC = car->DynGC;
carElt->_speed_x = 0;
/* compute the target zone for the wrecked car */
trkPos = car->trkPos;
if (trkPos.toRight > trkPos.seg->width / 2.0) {
while (trkPos.seg->lside != 0) {
trkPos.seg = trkPos.seg->lside;
}
trkPos.toLeft = -3.0;
trkFlag = TR_TOLEFT;
} else {
while (trkPos.seg->rside != 0) {
trkPos.seg = trkPos.seg->rside;
}
trkPos.toRight = -3.0;
trkFlag = TR_TORIGHT;
}
trkPos.type = TR_LPOS_SEGMENT;
RtTrackLocal2Global(&trkPos, &(car->restPos.pos.x), &(car->restPos.pos.y), trkFlag);
car->restPos.pos.z = RtTrackHeightL(&trkPos) + carElt->_statGC_z;
car->restPos.pos.az = RtTrackSideTgAngleL(&trkPos);
car->restPos.pos.ax = 0;
car->restPos.pos.ay = 0;
car->restPos.vel.z = PULL_SPD;
travelTime = (car->restPos.pos.z + PULL_Z_OFFSET - carElt->_pos_Z) / car->restPos.vel.z;
dang = car->restPos.pos.az - carElt->_yaw;
NORM_PI_PI(dang);
car->restPos.vel.az = dang / travelTime;
dang = car->restPos.pos.ax - carElt->_roll;
NORM_PI_PI(dang);
car->restPos.vel.ax = dang / travelTime;
dang = car->restPos.pos.ay - carElt->_pitch;
NORM_PI_PI(dang);
car->restPos.vel.ay = dang / travelTime;
}
void
grCustomizePits(void)
{
tTrackPitInfo *pits;
int i;
tdble x, y;
tdble x2, y2, z2;
ThePits = new ssgBranch();
PitsAnchor->addKid(ThePits);
pits = &(grTrack->pits);
/* draw the pit identification */
switch (pits->type) {
case TR_PIT_ON_TRACK_SIDE:
for (i = 0; i < pits->nMaxPits; i++) {
char buf[256];
t3Dd normalvector;
sgVec3 vtx;
sgVec4 clr = {0,0,0,1};
sgVec3 nrm;
sgVec2 tex;
ssgState *st;
ssgVertexArray *pit_vtx = new ssgVertexArray(4);
ssgTexCoordArray *pit_tex = new ssgTexCoordArray(4);
ssgColourArray *pit_clr = new ssgColourArray(1);
ssgNormalArray *pit_nrm = new ssgNormalArray(1);
pit_clr->add(clr);
if (pits->driversPits[i].car[0]) {
// If we have more than one car in the pit use the team pit logo of driver 0.
if (pits->driversPits[i].freeCarIndex == 1) {
// One car assigned to the pit.
sprintf(buf, "drivers/%s/%d;drivers/%s;data/textures;data/img;.",
pits->driversPits[i].car[0]->_modName, pits->driversPits[i].car[0]->_driverIndex,
pits->driversPits[i].car[0]->_modName);
} else {
// Multiple cars assigned to the pit.
sprintf(buf, "drivers/%s;data/textures;data/img;.", pits->driversPits[i].car[0]->_modName);
}
} else {
sprintf(buf, "data/textures;data/img;.");
}
st = grSsgLoadTexStateEx("logo.rgb", buf, FALSE, FALSE);
((ssgSimpleState*)st)->setShininess(50);
RtTrackLocal2Global(&(pits->driversPits[i].pos), &x, &y, pits->driversPits[i].pos.type);
RtTrackSideNormalG(pits->driversPits[i].pos.seg, x, y, pits->side, &normalvector);
x2 = x - pits->width/2.0 * normalvector.x + pits->len/2.0 * normalvector.y;
y2 = y - pits->width/2.0 * normalvector.y - pits->len/2.0 * normalvector.x;
z2 = RtTrackHeightG(pits->driversPits[i].pos.seg, x2, y2);
nrm[0] = normalvector.x;
nrm[1] = normalvector.y;
nrm[2] = 0;
pit_nrm->add(nrm);
tex[0] = -0.7;
tex[1] = 0.33;
vtx[0] = x2;
vtx[1] = y2;
vtx[2] = z2;
pit_tex->add(tex);
pit_vtx->add(vtx);
tex[0] = -0.7;
tex[1] = 1.1;
vtx[0] = x2;
vtx[1] = y2;
vtx[2] = z2 + 4.8;
pit_tex->add(tex);
pit_vtx->add(vtx);
x2 = x - pits->width/2.0 * normalvector.x - pits->len/2.0 * normalvector.y;
y2 = y - pits->width/2.0 * normalvector.y + pits->len/2.0 * normalvector.x;
z2 = RtTrackHeightG(pits->driversPits[i].pos.seg, x2, y2);
tex[0] = 1.3;
tex[1] = 0.33;
vtx[0] = x2;
vtx[1] = y2;
vtx[2] = z2;
pit_tex->add(tex);
pit_vtx->add(vtx);
tex[0] = 1.3;
tex[1] = 1.1;
vtx[0] = x2;
vtx[1] = y2;
vtx[2] = z2 + 4.8;
pit_tex->add(tex);
pit_vtx->add(vtx);
ssgVtxTable *pit = new ssgVtxTable(GL_TRIANGLE_STRIP, pit_vtx, pit_nrm, pit_tex, pit_clr);
pit->setState(st);
pit->setCullFace(0);
ThePits->addKid(pit);
}
break;
case TR_PIT_ON_SEPARATE_PATH:
break;
case TR_PIT_NONE:
break;
}
}
static void
RemoveCar(tCar *car, tSituation *s)
{
int i;
tCarElt *carElt;
tTrkLocPos trkPos;
int trkFlag;
tdble travelTime;
tdble dang;
static tdble PULL_Z_OFFSET = 3.0;
static tdble PULL_SPD = 0.5;
carElt = car->carElt;
if (carElt->_state & RM_CAR_STATE_PULLUP) {
carElt->_pos_Z += car->restPos.vel.z * SimDeltaTime;
carElt->_yaw += car->restPos.vel.az * SimDeltaTime;
carElt->_roll += car->restPos.vel.ax * SimDeltaTime;
carElt->_pitch += car->restPos.vel.ay * SimDeltaTime;
sgMakeCoordMat4(carElt->pub.posMat, carElt->_pos_X, carElt->_pos_Y, carElt->_pos_Z - carElt->_statGC_z,
(float) RAD2DEG(carElt->_yaw), (float) RAD2DEG(carElt->_roll), (float) RAD2DEG(carElt->_pitch));
if (carElt->_pos_Z > (car->restPos.pos.z + PULL_Z_OFFSET)) {
carElt->_state &= ~RM_CAR_STATE_PULLUP;
carElt->_state |= RM_CAR_STATE_PULLSIDE;
// Moved pullside velocity computation down due to floating point error accumulation.
}
return;
}
if (carElt->_state & RM_CAR_STATE_PULLSIDE) {
// Recompute speed to avoid missing the parking point due to error accumulation (the pos might be
// in the 0-10000 range, depending on the track and vel*dt is around 0-0.001, so basically all
// but the most significant digits are lost under bad conditions, happens e.g on e-track-4).
// Should not lead to a division by zero because the pullside process stops if the car is within
// [0.5, 0.5]. Do not move it back.
travelTime = DIST(car->restPos.pos.x, car->restPos.pos.y, carElt->_pos_X, carElt->_pos_Y) / PULL_SPD;
car->restPos.vel.x = (car->restPos.pos.x - carElt->_pos_X) / travelTime;
car->restPos.vel.y = (car->restPos.pos.y - carElt->_pos_Y) / travelTime;
carElt->_pos_X += car->restPos.vel.x * SimDeltaTime;
carElt->_pos_Y += car->restPos.vel.y * SimDeltaTime;
sgMakeCoordMat4(carElt->pub.posMat, carElt->_pos_X, carElt->_pos_Y, carElt->_pos_Z - carElt->_statGC_z,
(float) RAD2DEG(carElt->_yaw), (float) RAD2DEG(carElt->_roll), (float) RAD2DEG(carElt->_pitch));
if ((fabs(car->restPos.pos.x - carElt->_pos_X) < 0.5) && (fabs(car->restPos.pos.y - carElt->_pos_Y) < 0.5)) {
carElt->_state &= ~RM_CAR_STATE_PULLSIDE;
carElt->_state |= RM_CAR_STATE_PULLDN;
}
return;
}
if (carElt->_state & RM_CAR_STATE_PULLDN) {
carElt->_pos_Z -= car->restPos.vel.z * SimDeltaTime;
sgMakeCoordMat4(carElt->pub.posMat, carElt->_pos_X, carElt->_pos_Y, carElt->_pos_Z - carElt->_statGC_z,
(float) RAD2DEG(carElt->_yaw), (float) RAD2DEG(carElt->_roll), (float) RAD2DEG(carElt->_pitch));
if (carElt->_pos_Z < car->restPos.pos.z) {
carElt->_state &= ~RM_CAR_STATE_PULLDN;
carElt->_state |= RM_CAR_STATE_OUT;
}
return;
}
if (carElt->_state & (RM_CAR_STATE_NO_SIMU & ~RM_CAR_STATE_PIT)) {
return;
}
if (carElt->_state & RM_CAR_STATE_PIT) {
if ((s->_maxDammage) && (car->dammage > s->_maxDammage)) {
// Broken during pit stop.
carElt->_state &= ~RM_CAR_STATE_PIT;
carElt->_pit->pitCarIndex = TR_PIT_STATE_FREE;
} else {
return;
}
}
if ((s->_maxDammage) && (car->dammage > s->_maxDammage)) {
carElt->_state |= RM_CAR_STATE_BROKEN;
} else {
carElt->_state |= RM_CAR_STATE_OUTOFGAS;
}
carElt->_gear = car->transmission.gearbox.gear = 0;
carElt->_enginerpm = car->engine.rads = 0;
if (!(carElt->_state & RM_CAR_STATE_DNF)) {
if (fabs(carElt->_speed_x) > 1.0) {
return;
}
}
carElt->_state |= RM_CAR_STATE_PULLUP;
// RM_CAR_STATE_NO_SIMU evaluates to > 0 from here, so we remove the car from the
// collision detection.
SimCollideRemoveCar(car, s->_ncars);
carElt->priv.collision = car->collision = 0;
for(i = 0; i < 4; i++) {
carElt->_skid[i] = 0;
carElt->_wheelSpinVel(i) = 0;
carElt->_brakeTemp(i) = 0;
}
carElt->pub.DynGC = car->DynGC;
carElt->_speed_x = 0;
// Compute the target zone for the wrecked car.
trkPos = car->trkPos;
if (trkPos.toRight > trkPos.seg->width / 2.0) {
while (trkPos.seg->lside != 0) {
trkPos.seg = trkPos.seg->lside;
}
trkPos.toLeft = -3.0;
trkFlag = TR_TOLEFT;
} else {
while (trkPos.seg->rside != 0) {
trkPos.seg = trkPos.seg->rside;
}
trkPos.toRight = -3.0;
trkFlag = TR_TORIGHT;
}
trkPos.type = TR_LPOS_SEGMENT;
RtTrackLocal2Global(&trkPos, &(car->restPos.pos.x), &(car->restPos.pos.y), trkFlag);
car->restPos.pos.z = RtTrackHeightL(&trkPos) + carElt->_statGC_z;
car->restPos.pos.az = RtTrackSideTgAngleL(&trkPos);
car->restPos.pos.ax = 0;
car->restPos.pos.ay = 0;
car->restPos.vel.z = PULL_SPD;
travelTime = (car->restPos.pos.z + PULL_Z_OFFSET - carElt->_pos_Z) / car->restPos.vel.z;
dang = car->restPos.pos.az - carElt->_yaw;
FLOAT_NORM_PI_PI(dang);
car->restPos.vel.az = dang / travelTime;
dang = car->restPos.pos.ax - carElt->_roll;
FLOAT_NORM_PI_PI(dang);
car->restPos.vel.ax = dang / travelTime;
dang = car->restPos.pos.ay - carElt->_pitch;
FLOAT_NORM_PI_PI(dang);
car->restPos.vel.ay = dang / travelTime;
}
