// Fonction de calcul de la cinématique inverse : Résultat vrais ou faux en fonction de l'objectif donnée (accessible ou non)
int ComputeIK(int x, int y)
{
/// Variables locales
float ex,ey; // Vecteur déplacement
float sin2,cos2; // SINE ry COSINE de l'ANGLE 2
float angle1,angle2; // ANGLE 1 et 2 en RADIANS
float tan1; // TAN de ANGLE 1
// Changement de repère (inversion de l'axe Y)
y = m_Height - y - 1;
//..
ex = x - m_UpArm.pos.x;
ey = y - m_UpArm.pos.y;
cos2 = (pow(ex,2) + pow(ey,2) - pow(UpArm_Length,2) - pow(LowArm_Length,2) )/ (2*UpArm_Length*LowArm_Length);
if (cos2 >1 && cos2 <-1) return 0;
angle2 = acos (cos2);
sin2 = sin (angle2);
tan1 = (-(LowArm_Length*sin2*ex) + ((UpArm_Length+(LowArm_Length * cos2))*ey) ) / ((LowArm_Length*sin2*ey) + (UpArm_Length+(LowArm_Length*cos2))*ex);
angle1 = atan (tan1);
m_UpArm.rot.z = RADTODEG(angle1);
m_LowArm.rot.z = RADTODEG(angle2);
return 1;
}
// applies the transformation needed to bring the given vector to the x axis.
void Matrix4::transvecinv(float x, float y, float z) {
double theta = atan2(y,x);
double length = sqrt(y*y + x*x);
double phi = atan2((double) z, length);
rot((float) RADTODEG(phi), 'y');
rot((float) RADTODEG(-theta), 'z');
}
// ---------------------------------------------------------------------------
// Calculate angle of triangle, when adjacent and opposite sides are known
// ---------------------------------------------------------------------------
//
TInt CAlfExAnalogDialerControl::Angle(TReal32 aAdjacent, TReal32 aOpposite)
{
if (aAdjacent == 0)
{
aAdjacent = 0.01;
}
if (aOpposite == 0)
{
aOpposite = 0.01;
}
TReal angle;
Math::ATan(angle, Abs(aOpposite / aAdjacent));
if (aAdjacent < 0 && aOpposite > 0)
{
angle = KPi - angle;
}
else if (aAdjacent < 0 && aOpposite < 0)
{
angle = KPi + angle;
}
else if (aAdjacent > 0 && aOpposite < 0)
{
angle = 2* KPi - angle;
}
return RADTODEG(angle);
}
double Angle3 (Vector3 vector1, Vector3 vector2, AngleMode mode)
{
double angle = acos (Dot3 (vector1, vector2) / (Mag3 (vector1) * Mag3 (vector2))); // Angle in given mode between two vectors
switch (mode) // Get the angle mode
{
case kDegrees: // Degrees case
angle = RADTODEG(angle);
// Convert angle to radians
break; // Break out of switch statement
case kGradians: // Gradians case
angle = RADTOGRAD(angle);
// Convert angle to radians
break; // Break out of switch statement
case kRadians: // Radians case
break; // Break out of switch statement
default:
NOBREAK_MESSAGE("Unsupported mode: Angle3 failed","1");
angle = 0.0;// Invalid case
break; // Break out of switch statement
}
return angle;
// Return the angle between vectors in radians
}
void Renderer::drawAsteroids()
{
for (unsigned int i=0; i<game->asteroides.size(); i++ )
{
float x = game->asteroides[i]->position[0];
float y = game->asteroides[i]->position[1];
int vc = game->asteroides[i]->vertexCount;
float angle = game->asteroides[i]->fOrientation;
// tego tu nie ma być morf
// game->asteroides[i]->move();
glPushMatrix ();
glLineWidth (3.0f);
glTranslatef(x,y,0);
glRotatef( RADTODEG(angle) , 0, 0, 1 );
glBegin (GL_LINE_LOOP);
for(int j=0; j<vc; j++)
{
x = game->asteroides[i]->vertices[j].x;
y = game->asteroides[i]->vertices[j].y;
if ( game->asteroides[i]->m_contacting )
glColor3f(1,0,0);//red
else
glColor3f(1,1,1);//white
glVertex3f (x,y,0);
}
glEnd();
glPopMatrix ();
}
}
void CommunicateSensor::draw()
{
float x = position[0];
float y = position[1];
float angle = body->GetAngle();
glPushMatrix ();
glLineWidth (3.0f);
glTranslatef(x,y,0);
glRotatef( RADTODEG(angle) , 0, 0, 1 );
glBegin(GL_LINE_LOOP);
glColor3f(0,0.5,0);//white
for (int j=0; j < 360; j++)
{
float degInRad = DEGTORAD(j);
glVertex2f(cos(degInRad)*radiusMovable,sin(degInRad)*radiusMovable);
}
glEnd();
glPopMatrix ();
if(!obstacleSensorContainer.empty()){
for(auto obstacleSensor : obstacleSensorContainer){
if(obstacleSensor.second->drawable)
obstacleSensor.second->draw();
}
}
}
BOOL CCameraEffectUnit::On(EFFECTPARAM* pParam)
{
CCameraEffectUnitDesc* pDesc = (CCameraEffectUnitDesc*)m_pEffectUnitDesc;
switch( m_CameraEffectUnitType )
{
case eCameraEffectUnitType_AngleDist:
{
CObject* pObject = NULL;
if(pDesc->IsDangledToOperator()) // 오퍼레이터 or 타켓
pObject = pParam->m_pOperator;
else
pObject = pParam->m_pTargetSet[0].pTarget;
if( pObject == HEROPETBACKUP )
return TRUE;
if(pObject->IsInited() == FALSE) // 케릭터가 존재하지 않으면 return
return TRUE;
if((pParam->m_dwFlag & EFFECT_FLAG_HEROATTACK) == FALSE)
return TRUE;
CAMERA->SetCameraPivotObject(pDesc->m_CameraNum,pObject);
if(pDesc->m_bRelatedCoordinate) // 상대각도로 변환
{
float angleDeg = pDesc->m_InitAngleY+RADTODEG(pObject->GetAngle());
CAMERA->SetTargetAngleY(pDesc->m_CameraNum,angleDeg,0);
}
CAMERA->SetCurCamera(pDesc->m_CameraNum);
}
break;
case eCameraEffectUnitType_Filter:
{
int objectnum;
TARGETSET* pObject;
GetObjectSet(pParam,&pObject,&objectnum);
// 대상이 자기자신인 경우에만 필터를 적용시킨다.
for(int n=0;n<objectnum;++n)
{
if( pObject[n].pTarget->GetID() != HEROID )
continue;
const BOOL bFade = (m_fFilterFadeTime > 0.f);
if( m_bFilterOnlyOne )
CAMERA->DetachCameraFilter( m_dwFilterIndex, bFade, m_fFilterFadeTime );
CCameraFilterObject& cameraFilterObject = CAMERA->AttachCameraFilter( m_dwFilterIndex, !m_bFilterRepeat, bFade, m_fFilterFadeTime, m_dwFilterRemainTime );
m_dwCameraFilterObjectIndex = cameraFilterObject.GetObjectIndex();
}
}
break;
}
return TRUE;
}
//通过给定的喷射方向destiny确定旋转轴以及旋转角度degree并作旋转，默认喷射方向是（0,1,0）
void TransAndRotate(mVector3d pos, mVector3d destiny)
{
glTranslatef(pos.x, pos.y, pos.z);
double axis[3];
//axis为向量destiny与（0,1,0）的叉积
axis[0] = destiny.z;
axis[1] = 0;
axis[2] = -destiny.x;
double degree = RADTODEG(acos(destiny.y/sqrt(destiny.x*destiny.x + destiny.y*destiny.y + destiny.z*destiny.z)));
glRotated(degree, axis[0], axis[1], axis[2]);
}
void test_updateWheelContactGeom() {
const Real rad = .325;
WheelContactGeom contact;
//terrain
SurfaceVector surfs;
//flat(surfs);
//ramp(surfs);
grid(surfs, ResourceDir() + std::string("gridsurfdata.txt") );
//wheel pose
HomogeneousTransform HT_wheel_to_world;
VecOrient orient = {0,0,0}; //assume WMRSIM_USE_QUATERNION 0
Vec3 pos = {2.5, -1.0, rad};
//adjust height of wheel
Real zsurf;
surfacesHeight(surfs,pos,zsurf);
pos[2] += zsurf;
poseToHT(orient,pos,HT_wheel_to_world); //assumes WMRSIM_USE_QUATERNION 0
updateWheelContactGeom(surfs, HT_wheel_to_world, rad, contact );
//print
std::cout << "wheel pos = \n";
printVec3(pos,-1,-1);
std::cout << "dz = " << contact.dz << std::endl;
std::cout << "contact angle (deg)= " << RADTODEG(contact.angle) << std::endl;
std::cout << "\nHT_contact_to_wheel=\n";
printHT(contact.HT_wheel,-1,-1);
std::cout << "\nHT_contact_to_world=\n";
printHT(contact.HT_world,-1,-1);
if (1) {
//time it
int nw = 4;
timeval t0, t1;
int n= (int) 1e5;
gettimeofday(&t0, NULL);
for (int i=0; i<n*nw; i++) {
updateWheelContactGeom(surfs, HT_wheel_to_world, rad, contact );
}
gettimeofday(&t1, NULL);
std::cout << "num wheels: " << nw << std::endl;
std::cout << "iterations: " << (Real) n << std::endl;
std::cout << "clock (sec): " << tosec(t1)-tosec(t0) << std::endl;
}
}
void Renderer::DrawQuadTexture(float x, float y, float w, float h,float angle, unsigned int texture_id)
{
glPushMatrix ();
w /= 2.0f;
h /= 2.0f;
bool texturing_enabled = glIsEnabled(GL_TEXTURE_2D);
if(!texturing_enabled)
glEnable(GL_TEXTURE_2D);
glColor3f (1,1,1);
glTranslatef(x,y,0);
glRotatef(RADTODEG(angle), 0.0f, 0.0f, 1.0f);
glTranslatef(0,0,0);
// Bind texture and draw.
glBindTexture(GL_TEXTURE_2D, texture_id);
glBegin(GL_QUADS);
glTexCoord2f(0.0f, 1.0f);
glVertex3f(0 - w, 0 - h,0.1f);
glTexCoord2f(1.0f, 1.0f);
glVertex3f(0 + w, 0 - h,0.1f);
glTexCoord2f(1.0f, 0.0f);
glVertex3f(0 + w, 0 + h,0.1f);
glTexCoord2f(0.0f, 0.0f);
glVertex3f(0 - w, 0 + h,0.1f);
/* glTexCoord2f(0.0f, 1.0f); glVertex3f(0+w, 0,0.1f);
glTexCoord2f(1.0f, 1.0f); glVertex3f(0 , 0 ,0.1f);
glTexCoord2f(1.0f, 0.0f); glVertex3f(0, 0+h,0.1f);
glTexCoord2f(0.0f, 0.0f); glVertex3f(0+w, 0+h,0.1f); */
/* glTexCoord2f(0.0f, 1.0f); glVertex3f(1/w, 1/h,0.1f);
glTexCoord2f(1.0f, 1.0f); glVertex3f(1*w, 1/h,0.1f);
glTexCoord2f(1.0f, 0.0f); glVertex3f(1*w, 1*h,0.1f);
glTexCoord2f(0.0f, 0.0f); glVertex3f(1/w, 1*h,0.1f); */
glEnd();
// Disable if was disable.
if(!texturing_enabled)
glDisable(GL_TEXTURE_2D);
glPopMatrix ();
}
void Renderer::drawShip ()
{
for (unsigned int i=0; i<game->ships.size(); i++ )
{
/* DrawQuadTexture(game->ships[i]->position[0],
game->ships[i]->position[1],
game->ships[i]->w,
game->ships[i]->h,
game->ships[i]->fOrientation,
game->ships[i]->myID); */
float x = game->ships[i]->position[0];
float y = game->ships[i]->position[1];
float angle = game->ships[i]->fOrientation;
int vc = game->ships[i]->vertexCount;
glPushMatrix ();
glLineWidth (3.0f);
glTranslatef(x,y,0);
glRotatef( RADTODEG(angle) , 0, 0, 1 );
glBegin (GL_LINE_LOOP);
for(int j=0; j<vc; j++)
{
x = game->ships[i]->vertices[j].x;
y = game->ships[i]->vertices[j].y;
// glColor3f (0.7,1,1);
if ( game->ships[i]->m_contacting )
glColor3f(1,0,0);//red
else
glColor3f(1,1,1);//white
glVertex3f (x,y,0);
}
glEnd();
glPopMatrix ();
// DRAWING MODULE
}
}
const float& Entity::GetRoll() const
{
return RADTODEG(this->rotation.z);
}
/*
* Saves the given parameter to file.
*
* Returns the number of parameters saved.
*/
static int SARParmSaveToFileAnyIterate(
const char *filename, FILE *fp, const void *p
)
{
int parms_saved = 0;
int type = *(int *)p;
/* Version. */
if(type == SAR_PARM_VERSION)
{
#define PARM_TYPE const sar_parm_version_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"version %i %i %i%s%s\n",
pv->major, pv->minor, pv->release,
(pv->copyright != NULL) ? " " : "",
(pv->copyright != NULL) ? pv->copyright : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Name. */
else if(type == SAR_PARM_NAME)
{
#define PARM_TYPE const sar_parm_name_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
if(pv->name != NULL)
{
fprintf(
fp,
"name %s\n",
pv->name
);
parms_saved++;
}
#undef PARM_TYPE
}
/* Description. */
else if(type == SAR_PARM_DESCRIPTION)
{
#define PARM_TYPE const sar_parm_description_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
if(pv->description != NULL)
{
fprintf(
fp,
"description %s\n",
pv->description
);
parms_saved++;
}
#undef PARM_TYPE
}
/* Player model file. */
else if(type == SAR_PARM_PLAYER_MODEL_FILE)
{
#define PARM_TYPE const sar_parm_player_model_file_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
if(pv->file != NULL)
{
fprintf(
fp,
"player_model_file %s\n",
pv->file
);
parms_saved++;
}
#undef PARM_TYPE
}
/* Weather. */
else if(type == SAR_PARM_WEATHER)
{
#define PARM_TYPE const sar_parm_weather_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
if(pv->weather_preset_name != NULL)
{
fprintf(
fp,
"weather %s\n",
pv->weather_preset_name
);
parms_saved++;
}
#undef PARM_TYPE
}
/* Time of day. */
else if(type == SAR_PARM_TIME_OF_DAY)
{
#define PARM_TYPE const sar_parm_time_of_day_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"time_of_day %f\n",
pv->tod
);
parms_saved++;
#undef PARM_TYPE
}
/* Registered location. */
else if(type == SAR_PARM_REGISTER_LOCATION)
{
#define PARM_TYPE const sar_parm_register_location_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"register_location %f %f %f %f %f %f%s%s\n",
pv->pos.x, pv->pos.y, SFMMetersToFeet(pv->pos.z),
RADTODEG(pv->dir.heading),
RADTODEG(pv->dir.pitch),
RADTODEG(pv->dir.bank),
(pv->name != NULL) ? " " : "",
(pv->name != NULL) ? pv->name : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Scene GPS. */
else if(type == SAR_PARM_SCENE_GPS)
{
#define PARM_TYPE const sar_parm_scene_gps_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"scene_gps %f %f %f\n",
pv->dms_x_offset, pv->dms_y_offset,
pv->planet_radius
);
parms_saved++;
#undef PARM_TYPE
}
/* Scene map. */
else if(type == SAR_PARM_SCENE_MAP)
{
#define PARM_TYPE const sar_parm_scene_map_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"scene_map %f %f%s%s\n",
pv->width, pv->height,
(pv->file != NULL) ? " " : "",
(pv->file != NULL) ? pv->file : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Scene elevation. */
else if(type == SAR_PARM_SCENE_ELEVATION)
{
#define PARM_TYPE const sar_parm_scene_elevation_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"scene_elevation %f\n",
SFMMetersToFeet(pv->elevation)
);
parms_saved++;
#undef PARM_TYPE
}
/* Scene CANT. */
else if(type == SAR_PARM_SCENE_CANT)
{
#define PARM_TYPE const sar_parm_scene_cant_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"scene_cant %f\n",
RADTODEG(pv->cant)
);
parms_saved++;
#undef PARM_TYPE
}
/* Scene ground flags. */
else if(type == SAR_PARM_SCENE_GROUND_FLAGS)
{
#define PARM_TYPE const sar_parm_scene_ground_flags_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(fp, "scene_ground_flags");
if(pv->flags & SAR_SCENE_BASE_FLAG_IS_WATER)
fprintf(fp, " is_water");
fputc('\n', fp);
parms_saved++;
#undef PARM_TYPE
}
/* Scene ground tile. */
else if(type == SAR_PARM_SCENE_GROUND_TILE)
{
#define PARM_TYPE const sar_parm_scene_ground_tile_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"scene_ground_tile %i %i %f %.2f %.2f %.2f %.2f%s%s\n",
pv->tile_width, pv->tile_height, pv->close_range,
pv->color.r, pv->color.g, pv->color.b, pv->color.a,
(pv->texture_name != NULL) ? " " : "",
(pv->texture_name != NULL) ? pv->texture_name : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Texture base directory. */
else if(type == SAR_PARM_TEXTURE_BASE_DIRECTORY)
{
#define PARM_TYPE const sar_parm_texture_base_directory_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"texture_base_directory%s%s\n",
(pv->directory != NULL) ? " " : "",
(pv->directory != NULL) ? pv->directory : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Texture load. */
else if(type == SAR_PARM_TEXTURE_LOAD)
{
#define PARM_TYPE const sar_parm_texture_load_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"texture_load %s %s %f\n",
pv->name, pv->file, pv->priority
);
parms_saved++;
#undef PARM_TYPE
}
/* Mission scene file. */
else if(type == SAR_PARM_MISSION_SCENE_FILE)
{
#define PARM_TYPE const sar_parm_mission_scene_file_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"mission_scene_file%s%s\n",
(pv->file != NULL) ? " " : "",
(pv->file != NULL) ? pv->file : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Mission new objective. */
else if(type == SAR_PARM_MISSION_NEW_OBJECTIVE)
{
#define PARM_TYPE const sar_parm_mission_new_objective_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(fp, "mission_objective_new");
switch(pv->objective_type)
{
case SAR_MISSION_OBJECTIVE_ARRIVE_AT:
fprintf(fp, " arrive");
break;
case SAR_MISSION_OBJECTIVE_PICK_UP_ARRIVE_AT:
fprintf(fp, " pick_up_arrive");
break;
case SAR_MISSION_OBJECTIVE_PICK_UP:
fprintf(fp, " pick_up");
break;
}
fputc('\n', fp);
parms_saved++;
#undef PARM_TYPE
}
/* Mission time left. */
else if(type == SAR_PARM_MISSION_TIME_LEFT)
{
#define PARM_TYPE const sar_parm_mission_time_left_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"mission_objective_time_left %f\n",
pv->time_left
);
parms_saved++;
#undef PARM_TYPE
}
/* Mission begin at. */
else if(type == SAR_PARM_MISSION_BEGIN_AT)
{
#define PARM_TYPE const sar_parm_mission_begin_at_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"mission_begin_at%s%s\n",
(pv->name != NULL) ? " " : "",
(pv->name != NULL) ? pv->name : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Mission begin at position. */
else if(type == SAR_PARM_MISSION_BEGIN_AT_POS)
{
#define PARM_TYPE const sar_parm_mission_begin_at_pos_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"mission_begin_at_pos %f %f %f %f %f %f\n",
pv->pos.x, pv->pos.y, SFMMetersToFeet(pv->pos.z),
RADTODEG(pv->dir.heading),
RADTODEG(pv->dir.pitch),
RADTODEG(pv->dir.bank)
);
parms_saved++;
#undef PARM_TYPE
}
/* Mission arrive at. */
else if(type == SAR_PARM_MISSION_ARRIVE_AT)
{
#define PARM_TYPE const sar_parm_mission_arrive_at_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"mission_objective_arrive_at%s%s\n",
(pv->name != NULL) ? " " : "",
(pv->name != NULL) ? pv->name : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Mission message success. */
else if(type == SAR_PARM_MISSION_MESSAGE_SUCCESS)
{
#define PARM_TYPE const sar_parm_mission_message_success_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"mission_objective_message_success%s%s\n",
(pv->message != NULL) ? " " : "",
(pv->message != NULL) ? pv->message : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Mission message fail. */
else if(type == SAR_PARM_MISSION_MESSAGE_FAIL)
{
#define PARM_TYPE const sar_parm_mission_message_fail_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"mission_objective_message_fail%s%s\n",
(pv->message != NULL) ? " " : "",
(pv->message != NULL) ? pv->message : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Mission humans tally. */
else if(type == SAR_PARM_MISSION_HUMANS_TALLY)
{
#define PARM_TYPE const sar_parm_mission_humans_tally_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"mission_objective_humans_tally %i %i\n",
pv->humans_need_rescue, pv->total_humans
);
parms_saved++;
#undef PARM_TYPE
}
/* Mission add intercept. */
else if(type == SAR_PARM_MISSION_ADD_INTERCEPT)
{
#define PARM_TYPE const sar_parm_mission_add_intercept_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
switch(pv->ref_code)
{
case 3: case 2: /* Arrive or begin at location. */
fprintf(
fp,
"mission_add_intercept %i %f %f\n",
pv->ref_code,
pv->radius, pv->urgency
);
parms_saved++;
break;
default: /* Standard intercept way point. */
fprintf(
fp,
"mission_add_intercept %i %f %f %f %f %f\n",
pv->ref_code,
pv->pos.x,
pv->pos.y,
pv->pos.z, /* In meters. */
pv->radius, pv->urgency
);
parms_saved++;
break;
}
#undef PARM_TYPE
}
/* Mission log header. */
else if(type == SAR_PARM_MISSION_LOG_HEADER)
{
#define PARM_TYPE const sar_parm_mission_log_header_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(fp, "BeginHeader\n");
fprintf(fp, " Version %i %i %i\n",
pv->version_major, pv->version_minor, pv->version_release
);
if(pv->title != NULL)
fprintf(fp, " Title %s\n", pv->title);
if(pv->scene_file != NULL)
fprintf(fp, " SceneFile %s\n", pv->scene_file);
if(pv->player_stats_file != NULL)
fprintf(fp, " PlayerStatsFile %s\n", pv->player_stats_file);
fprintf(fp, "EndHeader\n");
parms_saved++;
#undef PARM_TYPE
}
/* Mission log event. */
else if(type == SAR_PARM_MISSION_LOG_EVENT)
{
#define PARM_TYPE const sar_parm_mission_log_event_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"%i %f %f %f %f%c%s\n",
pv->event_type,
pv->tod,
pv->pos.x,
pv->pos.y,
pv->pos.z, /* In meters. */
(pv->message != NULL) ? ':' : '\0',
(pv->message != NULL) ? pv->message : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* New object. */
else if(type == SAR_PARM_NEW_OBJECT)
{
#define PARM_TYPE const sar_parm_new_object_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"new_object %i\n",
pv->object_type
);
parms_saved++;
#undef PARM_TYPE
}
/* New helipad. */
else if(type == SAR_PARM_NEW_HELIPAD)
{
#define PARM_TYPE const sar_parm_new_helipad_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
if(pv->ref_obj_name != NULL)
fprintf(
fp,
"new_helipad %s %f %f %f %s %c %c %c %c %c %s %f %f %f %f %f %f\n",
pv->style,
pv->length, pv->width,
SFMMetersToFeet(pv->recession),
(pv->label != NULL) ? pv->label : "_",
(pv->flags & SAR_HELIPAD_FLAG_EDGE_LIGHTING) ? 'y' : 'n',
(pv->flags & SAR_HELIPAD_FLAG_FUEL) ? 'y' : 'n',
(pv->flags & SAR_HELIPAD_FLAG_REPAIR) ? 'y' : 'n',
(pv->flags & SAR_HELIPAD_FLAG_DROPOFF) ? 'y' : 'n',
(pv->flags & SAR_HELIPAD_FLAG_RESTART_POINT) ? 'y' : 'n',
pv->ref_obj_name,
pv->ref_offset.x, pv->ref_offset.y,
SFMMetersToFeet(pv->ref_offset.z),
RADTODEG(pv->ref_dir.heading),
RADTODEG(pv->ref_dir.pitch),
RADTODEG(pv->ref_dir.bank)
);
else
fprintf(
fp,
"new_helipad %s %f %f %f %s %c %c %c %c %c\n",
pv->style,
pv->length, pv->width,
SFMMetersToFeet(pv->recession),
(pv->label != NULL) ? pv->label : "_",
(pv->flags & SAR_HELIPAD_FLAG_EDGE_LIGHTING) ? 'y' : 'n',
(pv->flags & SAR_HELIPAD_FLAG_FUEL) ? 'y' : 'n',
(pv->flags & SAR_HELIPAD_FLAG_REPAIR) ? 'y' : 'n',
(pv->flags & SAR_HELIPAD_FLAG_DROPOFF) ? 'y' : 'n',
(pv->flags & SAR_HELIPAD_FLAG_RESTART_POINT) ? 'y' : 'n'
);
parms_saved++;
#undef PARM_TYPE
}
/* New runway. */
else if(type == SAR_PARM_NEW_RUNWAY)
{
#define PARM_TYPE const sar_parm_new_runway_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"new_runway %f %f %f %i %i %f %s %s %f %f",
pv->range, pv->length, pv->width, pv->surface_type,
pv->dashes, pv->edge_light_spacing,
(pv->north_label != NULL) ? pv->north_label : "_",
(pv->south_label != NULL) ? pv->south_label : "_",
pv->north_displaced_threshold,
pv->south_displaced_threshold
);
if(pv->flags & SAR_RUNWAY_FLAG_THRESHOLDS)
fprintf(fp, " thresholds");
if(pv->flags & SAR_RUNWAY_FLAG_BORDERS)
fprintf(fp, " borders");
if(pv->flags & SAR_RUNWAY_FLAG_TD_MARKERS)
fprintf(fp, " td_markers");
if(pv->flags & SAR_RUNWAY_FLAG_MIDWAY_MARKERS)
fprintf(fp, " midway_markers");
if(pv->flags & SAR_RUNWAY_FLAG_NORTH_GS)
fprintf(fp, " north_gs");
if(pv->flags & SAR_RUNWAY_FLAG_SOUTH_GS)
fprintf(fp, " south_gs");
fputc('\n', fp);
parms_saved++;
#undef PARM_TYPE
}
/* New human. */
else if(type == SAR_PARM_NEW_HUMAN)
{
#define PARM_TYPE const sar_parm_new_human_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"new_human %s",
pv->type_name
);
if(pv->flags & SAR_HUMAN_FLAG_NEED_RESCUE)
fprintf(fp, " need_rescue");
if(pv->flags & SAR_HUMAN_FLAG_SIT)
fprintf(fp, " sit");
if(pv->flags & SAR_HUMAN_FLAG_SIT_UP)
fprintf(fp, " sit_up");
if(pv->flags & SAR_HUMAN_FLAG_SIT_DOWN)
fprintf(fp, " sit_down");
if(pv->flags & SAR_HUMAN_FLAG_LYING)
fprintf(fp, " lying");
if(pv->flags & SAR_HUMAN_FLAG_ALERT)
fprintf(fp, " alert");
if(pv->flags & SAR_HUMAN_FLAG_AWARE)
fprintf(fp, " aware");
if(pv->flags & SAR_HUMAN_FLAG_IN_WATER)
fprintf(fp, " in_water");
fputc('\n', fp);
parms_saved++;
#undef PARM_TYPE
}
/* New fire. */
else if(type == SAR_PARM_NEW_FIRE)
{
#define PARM_TYPE const sar_parm_new_fire_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"new_fire %f %f\n",
pv->radius, SFMMetersToFeet(pv->height)
);
parms_saved++;
#undef PARM_TYPE
}
/* New smoke. */
else if(type == SAR_PARM_NEW_SMOKE)
{
#define PARM_TYPE const sar_parm_new_smoke_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"new_smoke %f %f %f %f %f %f %i %ld %i %i\n",
pv->offset.x,
pv->offset.y,
pv->offset.z, /* In meters. */
pv->radius_start,
pv->radius_max,
pv->radius_rate,
pv->hide_at_max,
pv->respawn_int,
pv->total_units,
pv->color_code
);
parms_saved++;
#undef PARM_TYPE
}
/* New premodeled object. */
else if(type == SAR_PARM_NEW_PREMODELED)
{
#define PARM_TYPE const sar_parm_new_premodeled_struct
int i;
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"new_premodeled %s",
pv->model_type
);
for(i = 0; i < pv->argc; i++)
fprintf(fp, " %s", pv->argv[i]);
fputc('\n', fp);
parms_saved++;
#undef PARM_TYPE
}
/* Select object by name. */
else if(type == SAR_PARM_SELECT_OBJECT_BY_NAME)
{
#define PARM_TYPE const sar_parm_select_object_by_name_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
if(pv->name != NULL)
{
fprintf(
fp,
"select_object_by_name %s\n",
pv->name
);
parms_saved++;
}
#undef PARM_TYPE
}
/* Model file. */
else if(type == SAR_PARM_MODEL_FILE)
{
#define PARM_TYPE const sar_parm_model_file_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
if(pv->file != NULL)
{
fprintf(
fp,
"model_file %s\n",
pv->file
);
parms_saved++;
}
#undef PARM_TYPE
}
/* Range. */
else if(type == SAR_PARM_RANGE)
{
#define PARM_TYPE const sar_parm_range_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"range %f\n",
pv->range
);
parms_saved++;
#undef PARM_TYPE
}
/* Range far. */
else if(type == SAR_PARM_RANGE_FAR)
{
#define PARM_TYPE const sar_parm_range_far_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"range_far %f\n",
pv->range_far
);
parms_saved++;
#undef PARM_TYPE
}
/* Translate. */
else if(type == SAR_PARM_TRANSLATE)
{
#define PARM_TYPE const sar_parm_translate_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"translate %f %f %f\n",
pv->translate.x,
pv->translate.y,
SFMMetersToFeet(pv->translate.z)
);
parms_saved++;
#undef PARM_TYPE
}
/* Translate random. */
else if(type == SAR_PARM_TRANSLATE_RANDOM)
{
#define PARM_TYPE const sar_parm_translate_random_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"translate_random %f %f\n",
pv->radius_bound,
pv->z_bound
);
parms_saved++;
#undef PARM_TYPE
}
/* Rotate. */
else if(type == SAR_PARM_ROTATE)
{
#define PARM_TYPE const sar_parm_rotate_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"rotate %f %f %f\n",
RADTODEG(pv->rotate.heading),
RADTODEG(pv->rotate.pitch),
RADTODEG(pv->rotate.bank)
);
parms_saved++;
#undef PARM_TYPE
}
/* No depth test. */
else if(type == SAR_PARM_NO_DEPTH_TEST)
{
#define PARM_TYPE const sar_parm_no_depth_test_struct
/* PARM_TYPE *pv = (PARM_TYPE *)p; */
fprintf(
fp,
"no_depth_test\n"
);
parms_saved++;
#undef PARM_TYPE
}
/* Polygon offset. */
else if(type == SAR_PARM_POLYGON_OFFSET)
{
#define PARM_TYPE const sar_parm_polygon_offset_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(fp, "polygon_offset");
if(pv->flags & SAR_OBJ_FLAG_POLYGON_OFFSET_REVERSE)
fprintf(fp, " reverse");
if(pv->flags & SAR_OBJ_FLAG_POLYGON_OFFSET_WRITE_DEPTH)
fprintf(fp, " write_depth");
fputc('\n', fp);
parms_saved++;
#undef PARM_TYPE
}
/* Countact bounds spherical. */
else if(type == SAR_PARM_CONTACT_BOUNDS_SPHERICAL)
{
#define PARM_TYPE const sar_parm_contact_bounds_spherical_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"contact_spherical %f\n",
pv->radius
);
parms_saved++;
#undef PARM_TYPE
}
/* Countact bounds cylendrical. */
else if(type == SAR_PARM_CONTACT_BOUNDS_CYLENDRICAL)
{
#define PARM_TYPE const sar_parm_contact_bounds_cylendrical_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"contact_cylendrical %f %f %f\n",
pv->radius,
pv->height_min, pv->height_max /* In meters. */
);
parms_saved++;
#undef PARM_TYPE
}
/* Countact bounds rectangular. */
else if(type == SAR_PARM_CONTACT_BOUNDS_RECTANGULAR)
{
#define PARM_TYPE const sar_parm_contact_bounds_rectangular_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"contact_rectangular %f %f %f %f %f %f\n",
pv->x_min, pv->x_max,
pv->y_min, pv->y_max,
pv->z_min, pv->z_max /* In meters. */
);
parms_saved++;
#undef PARM_TYPE
}
/* Ground elevation. */
else if(type == SAR_PARM_GROUND_ELEVATION)
{
#define PARM_TYPE const sar_parm_ground_elevation_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"ground_elevation %f\n",
SFMMetersToFeet(pv->elevation)
);
parms_saved++;
#undef PARM_TYPE
}
/* Object name. */
else if(type == SAR_PARM_OBJECT_NAME)
{
#define PARM_TYPE const sar_parm_object_name_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"object_name%s%s\n",
(pv->name != NULL) ? " " : "",
(pv->name != NULL) ? pv->name : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Object map description. */
else if(type == SAR_PARM_OBJECT_MAP_DESCRIPTION)
{
#define PARM_TYPE const sar_parm_object_map_description_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"object_map_description%s%s\n",
(pv->description != NULL) ? " " : "",
(pv->description != NULL) ? pv->description : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Object fuel. */
else if(type == SAR_PARM_FUEL)
{
#define PARM_TYPE const sar_parm_fuel_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"fuel %f %f\n",
pv->fuel, pv->fuel_max
);
parms_saved++;
#undef PARM_TYPE
}
/* Object hit points. */
else if(type == SAR_PARM_HITPOINTS)
{
#define PARM_TYPE const sar_parm_hitpoints_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"hitpoints %f %f\n",
pv->hitpoints, pv->hitpoints_max
);
parms_saved++;
#undef PARM_TYPE
}
/* Object engine state. */
else if(type == SAR_PARM_ENGINE_STATE)
{
#define PARM_TYPE const sar_parm_engine_state_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"engine_state %i\n",
pv->state
);
parms_saved++;
#undef PARM_TYPE
}
/* Object passengers. */
else if(type == SAR_PARM_PASSENGERS)
{
#define PARM_TYPE const sar_parm_passengers_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"passengers %i %i\n",
pv->passengers, pv->passengers_max
);
parms_saved++;
#undef PARM_TYPE
}
/* Runway approach lighting north. */
else if(type == SAR_PARM_RUNWAY_APPROACH_LIGHTING_NORTH)
{
#define PARM_TYPE const sar_parm_runway_approach_lighting_north_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"runway_approach_lighting_north"
);
if(pv->flags & SAR_RUNWAY_APPROACH_LIGHTING_END)
fprintf(fp, " end");
if(pv->flags & SAR_RUNWAY_APPROACH_LIGHTING_TRACER)
fprintf(fp, " tracer");
if(pv->flags & SAR_RUNWAY_APPROACH_LIGHTING_ALIGN)
fprintf(fp, " align");
if(pv->flags & SAR_RUNWAY_APPROACH_LIGHTING_ILS_GLIDE)
fprintf(fp, " ils_glide");
fputc('\n', fp);
parms_saved++;
#undef PARM_TYPE
}
/* Runway approach lighting south. */
else if(type == SAR_PARM_RUNWAY_APPROACH_LIGHTING_SOUTH)
{
#define PARM_TYPE const sar_parm_runway_approach_lighting_south_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"runway_approach_lighting_south"
);
if(pv->flags & SAR_RUNWAY_APPROACH_LIGHTING_END)
fprintf(fp, " end");
if(pv->flags & SAR_RUNWAY_APPROACH_LIGHTING_TRACER)
fprintf(fp, " tracer");
if(pv->flags & SAR_RUNWAY_APPROACH_LIGHTING_ALIGN)
fprintf(fp, " align");
if(pv->flags & SAR_RUNWAY_APPROACH_LIGHTING_ILS_GLIDE)
fprintf(fp, " ils_glide");
fputc('\n', fp);
parms_saved++;
#undef PARM_TYPE
}
/* Human message enter. */
else if(type == SAR_PARM_HUMAN_MESSAGE_ENTER)
{
#define PARM_TYPE const sar_parm_human_message_enter_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
fprintf(
fp,
"set_human_message_enter%s%s\n",
(pv->message != NULL) ? " " : "",
(pv->message != NULL) ? pv->message : ""
);
parms_saved++;
#undef PARM_TYPE
}
/* Human reference. */
else if(type == SAR_PARM_HUMAN_REFERENCE)
{
#define PARM_TYPE const sar_parm_human_reference_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
if(pv->reference_name != NULL)
{
fprintf(fp, "human_reference %s", pv->reference_name);
if(pv->flags & SAR_HUMAN_FLAG_RUN_TOWARDS)
fprintf(fp, " run_towards");
if(pv->flags & SAR_HUMAN_FLAG_RUN_AWAY)
fprintf(fp, " run_away");
fputc('\n', fp);
}
parms_saved++;
#undef PARM_TYPE
}
/* Welcome message. */
else if (type == SAR_PARM_WELCOME_MESSAGE)
{
#define PARM_TYPE const sar_parm_welcome_message_struct
PARM_TYPE *pv = (PARM_TYPE *)p;
if (pv->message != NULL)
{
fprintf(fp, "set_welcome_message %s", pv->message);
fputc('\n',fp);
}
parms_saved++;
#undef PARM_TYPE
}
return(parms_saved);
}
// performs rotation around a given vector
void Matrix4::rotate_axis(const float axis[3], float angle) {
transvec(axis[0], axis[1], axis[2]);
rot((float) (RADTODEG(angle)), 'x');
transvecinv(axis[0], axis[1], axis[2]);
}
static int
geo_get_coeff(
const surface_t* const sx,
const surface_t* const sy,
/* Output */
coord_t* const shift,
coord_t* const scale,
coord_t* const rot,
stimage_error_t* const error) {
size_t nxxcoeff, nxycoeff, nyxcoeff, nyycoeff;
double xxrange = 1.0;
double xyrange = 1.0;
double xxmaxmin = 1.0;
double xymaxmin = 1.0;
double yxrange = 1.0;
double yyrange = 1.0;
double yxmaxmin = 1.0;
double yymaxmin = 1.0;
double a, b, c, d;
assert(sx);
assert(sy);
assert(shift);
assert(scale);
assert(rot);
assert(sx->coeff);
assert(sy->coeff);
assert(sx->ncoeff >= 3);
assert(sy->ncoeff >= 3);
nxxcoeff = nyxcoeff = sx->nxcoeff;
nxycoeff = nyycoeff = sy->nycoeff;
/* Get the data range */
if (sx->type != surface_type_polynomial) {
xxrange = (sx->bbox.max.x - sx->bbox.min.x) / 2.0;
xxmaxmin = -(sx->bbox.max.x - sx->bbox.min.x) / 2.0;
xyrange = (sx->bbox.max.y - sx->bbox.min.y) / 2.0;
xymaxmin = (sx->bbox.max.y - sx->bbox.min.y) / 2.0;
}
if (sy->type != surface_type_polynomial) {
yxrange = (sy->bbox.max.x - sy->bbox.min.x) / 2.0;
yxmaxmin = (sy->bbox.max.x - sy->bbox.min.x) / 2.0;
yyrange = (sy->bbox.max.y - sy->bbox.min.y) / 2.0;
yymaxmin = (sy->bbox.max.y - sy->bbox.min.y) / 2.0;
}
/* Get the shifts */
shift->x = sx->coeff[0] + \
sx->coeff[1] * xxmaxmin / xxrange + \
sx->coeff[2] * xymaxmin / xyrange;
shift->y = sy->coeff[0] + \
sy->coeff[1] * yxmaxmin / yxrange +
sx->coeff[2] * yymaxmin / yyrange;
/* Get the rotation and scaling parameters */
if (nxxcoeff > 1) {
a = sx->coeff[1] / xxrange;
} else {
a = 0.0;
}
if (nxycoeff > 1) {
b = sx->coeff[nxxcoeff] / xyrange;
} else {
b = 0.0;
}
if (nyxcoeff > 1) {
c = sx->coeff[1] / yxrange;
} else {
c = 0.0;
}
if (nyycoeff > 1) {
d = sy->coeff[nyxcoeff] / yyrange;
} else {
d = 0.0;
}
scale->x = sqrt(a*a + c*c);
scale->y = sqrt(b*b + d*d);
if (double_approx_equal(a, 0.0) && double_approx_equal(c, 0.0)) {
rot->x = 0.0;
} else {
rot->x = RADTODEG(atan2(-c, a));
}
if (rot->x < 0.0) {
rot->x += 360.0;
}
if (double_approx_equal(b, 0.0) && double_approx_equal(d, 0.0)) {
rot->y = 0.0;
} else {
rot->y = RADTODEG(atan2(b, d));
}
if (rot->y < 0.0) {
rot->y += 360.0;
}
return 0;
}
///////////////////////////////////////////////////////////////////
// Render sky
void SkyManager::RenderSky()
{
#if CONFIG2_GLES
#warning TODO: implement SkyManager::RenderSky for GLES
#else
// Draw the sky as a small box around the camera position, with depth write enabled.
// This will be done before anything else is drawn so we'll be overlapped by everything else.
// Note: The coordinates for this were set up through a rather cumbersome trial-and-error
// process - there might be a smarter way to do it, but this seems to work.
// Do nothing unless SetSkySet was called
if (m_SkySet.empty())
return;
glDepthMask( GL_FALSE );
pglActiveTextureARB(GL_TEXTURE0_ARB);
glTexEnvi(GL_TEXTURE_ENV, GL_TEXTURE_ENV_MODE, GL_REPLACE);
glMatrixMode(GL_MODELVIEW);
glPushMatrix();
// Translate so we are at the camera in the X and Z directions, but
// put the horizon at a fixed height regardless of camera Y
const CCamera& camera = g_Renderer.GetViewCamera();
CVector3D pos = camera.m_Orientation.GetTranslation();
glTranslatef( pos.X, m_HorizonHeight, pos.Z );
// Rotate so that the "left" face, which contains the brightest part of each
// skymap, is in the direction of the sun from our light environment
glRotatef( 90.0f + RADTODEG(g_Renderer.GetLightEnv().GetRotation()), 0.0f, 1.0f, 0.0f );
// Distance to draw the faces at
const float D = 2000.0;
CShaderProgramPtr shader;
CShaderTechniquePtr skytech;
if (g_Renderer.GetRenderPath() == CRenderer::RP_SHADER)
{
skytech = g_Renderer.GetShaderManager().LoadEffect("sky_simple");
skytech->BeginPass();
shader = skytech->GetShader();
}
// Front face (positive Z)
if (g_Renderer.GetRenderPath() == CRenderer::RP_SHADER)
shader->BindTexture("baseTex", m_SkyTexture[FRONT]);
else
m_SkyTexture[FRONT]->Bind();
glBegin( GL_QUADS );
glTexCoord2f( 0, 1 );
glVertex3f( -D, -D, +D );
glTexCoord2f( 1, 1 );
glVertex3f( +D, -D, +D );
glTexCoord2f( 1, 0 );
glVertex3f( +D, +D, +D );
glTexCoord2f( 0, 0 );
glVertex3f( -D, +D, +D );
glEnd();
// Back face (negative Z)
if (g_Renderer.GetRenderPath() == CRenderer::RP_SHADER)
shader->BindTexture("baseTex", m_SkyTexture[BACK]);
else
m_SkyTexture[BACK]->Bind();
glBegin( GL_QUADS );
glTexCoord2f( 1, 1 );
glVertex3f( -D, -D, -D );
glTexCoord2f( 1, 0 );
glVertex3f( -D, +D, -D );
glTexCoord2f( 0, 0 );
glVertex3f( +D, +D, -D );
glTexCoord2f( 0, 1 );
glVertex3f( +D, -D, -D );
glEnd();
// Right face (negative X)
if (g_Renderer.GetRenderPath() == CRenderer::RP_SHADER)
shader->BindTexture("baseTex", m_SkyTexture[RIGHT]);
else
m_SkyTexture[RIGHT]->Bind();
glBegin( GL_QUADS );
glTexCoord2f( 0, 1 );
glVertex3f( -D, -D, -D );
glTexCoord2f( 1, 1 );
glVertex3f( -D, -D, +D );
glTexCoord2f( 1, 0 );
glVertex3f( -D, +D, +D );
glTexCoord2f( 0, 0 );
glVertex3f( -D, +D, -D );
glEnd();
// Left face (positive X)
if (g_Renderer.GetRenderPath() == CRenderer::RP_SHADER)
shader->BindTexture("baseTex", m_SkyTexture[LEFT]);
else
m_SkyTexture[LEFT]->Bind();
glBegin( GL_QUADS );
glTexCoord2f( 1, 1 );
glVertex3f( +D, -D, -D );
glTexCoord2f( 1, 0 );
glVertex3f( +D, +D, -D );
glTexCoord2f( 0, 0 );
glVertex3f( +D, +D, +D );
glTexCoord2f( 0, 1 );
glVertex3f( +D, -D, +D );
glEnd();
// Top face (positive Y)
if (g_Renderer.GetRenderPath() == CRenderer::RP_SHADER)
shader->BindTexture("baseTex", m_SkyTexture[TOP]);
else
m_SkyTexture[TOP]->Bind();
glBegin( GL_QUADS );
glTexCoord2f( 1, 0 );
glVertex3f( +D, +D, -D );
glTexCoord2f( 0, 0 );
glVertex3f( -D, +D, -D );
glTexCoord2f( 0, 1 );
glVertex3f( -D, +D, +D );
glTexCoord2f( 1, 1 );
glVertex3f( +D, +D, +D );
glEnd();
if (g_Renderer.GetRenderPath() == CRenderer::RP_SHADER)
skytech->EndPass();
glPopMatrix();
glDepthMask( GL_TRUE );
#endif
}
const float& Entity::GetPitch() const
{
return RADTODEG(this->rotation.x);
}
const float& Entity::GetYaw() const
{
return RADTODEG(this->rotation.y);
}
void MatrixStack::rotate(btQuaternion rot) {
btVector3 *axis = &rot.getAxis();
Matrix4 rot_matrix;
rot_matrix.rotate(RADTODEG(rot.getAngle()), axis->x(), axis->y(), axis->z());
m_currentMatrix = m_currentMatrix * rot_matrix;
}
/*
* Called by V3DGLProcessModelExtra() to process a model of type
* V3D_MODEL_TYPE_STANDARD.
*
* Given inputs glres, glinterp, and m are assumed valid.
*/
static void V3DGLProcessModelStandard(
v3d_glresource_struct *glres, v3d_glinterprite_struct *glinterp,
v3d_model_struct *m,
void *client_data,
void (*extra_cb)(v3d_model_struct *, const char *, void *)
)
{
int pn, line_num;
const char *line_ptr;
void *p;
int matrix_level = 0;
int texture_binded = FALSE;
void *last_p_texture_orient = NULL;
int coordinate_axis = V3D_GLCOORDINATE_AXIS_SCIENTIFIC;
int flip_winding = FALSE;
int pass_normals = V3D_GLPASS_NORMALS_AS_NEEDED;
int unitlize_normals = TRUE;
int pass_texcoords = V3D_GLPASS_TEXCOORDS_AS_NEEDED;
int texture_name_case_sensitive = FALSE;
int material_properties = V3D_GLPASS_MATERIAL_PROPERTIES_NEVER;
int enable_blending = V3D_GLENABLE_BLENDING_NEVER;
int faces = V3D_GLFACES_FRONT_AND_BACK;
int blending_enabled = FALSE;
int set_blend_func = FALSE;
const char *heightfield_base_dir = NULL;
const char *texture_base_dir = NULL;
int last_begin_ptype = -1;
mp_comment_struct *p_comment;
mp_translate_struct *p_translate;
mp_untranslate_struct *p_untranslate;
mp_rotate_struct *p_rotate;
mp_unrotate_struct *p_unrotate;
mp_point_struct *p_point;
mp_line_struct *p_line;
mp_line_strip_struct *p_line_strip;
mp_line_loop_struct *p_line_loop;
mp_triangle_struct *p_triangle;
mp_triangle_strip_struct *p_triangle_strip;
mp_triangle_fan_struct *p_triangle_fan;
mp_quad_struct *p_quad;
mp_quad_strip_struct *p_quad_strip;
mp_polygon_struct *p_polygon;
mp_color_struct *p_color;
mp_texture_select_struct *p_texture_select;
mp_texture_orient_xy_struct *p_texture_orient_xy;
mp_texture_orient_yz_struct *p_texture_orient_yz;
mp_texture_orient_xz_struct *p_texture_orient_xz;
mp_texture_off_struct *p_texture_off;
mp_heightfield_load_struct *p_heightfield_load;
/* Get some values GL interpritation structure (if set). */
if(glinterp->flags & V3D_GLFLAG_COORDINATE_AXIS)
coordinate_axis = glinterp->coordinate_axis;
if(glinterp->flags & V3D_GLFLAG_FLIP_WINDING)
flip_winding = glinterp->flip_winding;
if(glinterp->flags & V3D_GLFLAG_PASS_NORMALS)
pass_normals = glinterp->pass_normals;
if(glinterp->flags & V3D_GLFLAG_UNITLIZE_NORMALS)
unitlize_normals = glinterp->unitlize_normals;
if(glinterp->flags & V3D_GLFLAG_PASS_TEXCOORDS)
pass_texcoords = glinterp->pass_texcoords;
if(glinterp->flags & V3D_GLFLAG_TEXTURE_NAME_CASE_SENSITIVE)
texture_name_case_sensitive = glinterp->texture_name_case_sensitive;
if(glinterp->flags & V3D_GLFLAG_MATERIAL_PROPERTIES)
material_properties = glinterp->material_properties;
if(glinterp->flags & V3D_GLFLAG_FACES)
faces = glinterp->faces;
if(glinterp->flags & V3D_GLFLAG_ENABLE_BLENDING)
enable_blending = glinterp->enable_blending;
if(glinterp->flags & V3D_GLFLAG_SET_BLEND_FUNC)
set_blend_func = glinterp->set_blend_func;
if(glinterp->flags & V3D_GLFLAG_HEIGHTFIELD_BASE_DIR)
heightfield_base_dir = glinterp->heightfield_base_dir;
if(glinterp->flags & V3D_GLFLAG_TEXTURE_BASE_DIR)
texture_base_dir = glinterp->texture_base_dir;
/* Iterate through each primitive on the given editor. */
for(pn = 0; pn < m->total_primitives; pn++)
{
p = m->primitive[pn];
if(p == NULL)
continue;
/* Call glEnd() if last_begin_ptype does not match the
* new primitive type.
*/
if((last_begin_ptype != V3DMPGetType(p)) &&
(last_begin_ptype > -1)
)
{
glEnd();
last_begin_ptype = -1;
}
/* Handle by primitive type. */
switch(V3DMPGetType(p))
{
case V3DMP_TYPE_COMMENT:
p_comment = (mp_comment_struct *)p;
for(line_num = 0; line_num < p_comment->total_lines; line_num++)
{
line_ptr = (const char *)p_comment->line[line_num];
if(line_ptr == NULL)
continue;
if(extra_cb != NULL)
extra_cb(m, line_ptr, client_data);
}
break;
case V3DMP_TYPE_TRANSLATE:
p_translate = (mp_translate_struct *)p;
if(glinterp->flags & V3D_GLFLAG_ALLOW_TRANSLATIONS)
{
if(!glinterp->allow_translations)
break;
}
glPushMatrix();
matrix_level++;
switch(coordinate_axis)
{
case V3D_GLCOORDINATE_AXIS_GL:
glTranslated(
p_translate->x, p_translate->y, p_translate->z
);
break;
case V3D_GLCOORDINATE_AXIS_SCIENTIFIC:
glTranslated(
p_translate->x, p_translate->z, -p_translate->y
);
break;
}
break;
case V3DMP_TYPE_UNTRANSLATE:
p_untranslate = (mp_untranslate_struct *)p;
if(glinterp->flags & V3D_GLFLAG_ALLOW_TRANSLATIONS)
{
if(!glinterp->allow_translations)
break;
}
glPopMatrix();
matrix_level--;
break;
case V3DMP_TYPE_ROTATE:
p_rotate = (mp_rotate_struct *)p;
if(glinterp->flags & V3D_GLFLAG_ALLOW_ROTATIONS)
{
if(!glinterp->allow_rotations)
break;
}
glPushMatrix();
matrix_level++;
switch(coordinate_axis)
{
case V3D_GLCOORDINATE_AXIS_GL:
glRotated(
-RADTODEG(p_rotate->heading),
0.0, 0.0, 1.0
);
glRotated(
-RADTODEG(p_rotate->pitch),
1.0, 0.0, 0.0
);
glRotated(
-RADTODEG(p_rotate->bank),
0.0, 1.0, 0.0
);
break;
case V3D_GLCOORDINATE_AXIS_SCIENTIFIC:
glRotated(
-RADTODEG(p_rotate->heading),
0.0, 1.0, 0.0
);
glRotated(
-RADTODEG(p_rotate->pitch),
1.0, 0.0, 0.0
);
glRotated(
-RADTODEG(p_rotate->bank),
0.0, 0.0, 1.0
);
break;
}
break;
case V3DMP_TYPE_UNROTATE:
p_unrotate = (mp_unrotate_struct *)p;
if(glinterp->flags & V3D_GLFLAG_ALLOW_ROTATIONS)
{
if(!glinterp->allow_rotations)
break;
}
glPopMatrix();
matrix_level--;
break;
#define DO_SET_VERTEX_DYNAMIC \
{ \
int i; \
mp_vertex_struct *v, *n, *tc; \
mp_vertex_struct *fbn = NULL; /* Fallback normal vector. */ \
\
/* Look for first non-empty fallback normal vector. */ \
if(pass_normals != V3D_GLPASS_NORMALS_NEVER) \
{ \
for(i = 0; i < V_TOTAL; i++) \
{ \
n = P_PTR->n[i]; \
if(n != NULL) \
{ \
if((n->x != 0.0) || (n->y != 0.0) || (n->z != 0.0)) \
fbn = n; \
} \
} \
} \
\
if(flip_winding) \
{ \
/* Check if we need to set the fallback normal for the first \
* vertex. \
*/ \
if((pass_normals != V3D_GLPASS_NORMALS_NEVER) && (V_TOTAL > 0)) \
{ \
n = P_PTR->n[V_TOTAL - 1]; \
if(n != NULL) \
{ \
if((n->x == 0.0) && (n->y == 0.0) && (n->z == 0.0)) \
V3DGLSetNormal(glinterp, fbn); \
} \
} \
\
for(i = V_TOTAL - 1; i >= 0; i--) \
{ \
v = P_PTR->v[i]; \
n = P_PTR->n[i]; \
tc = P_PTR->tc[i]; \
V3DGLSetNormal(glinterp, n); \
V3DGLSetTexCoord(glinterp, v, tc, texture_binded, last_p_texture_orient); \
V3DGLSetVertex(glinterp, v); \
} \
} \
else \
{ \
/* Check if we need to set the fallback normal for the first \
* vertex. \
*/ \
if((pass_normals != V3D_GLPASS_NORMALS_NEVER) && (V_TOTAL > 0)) \
{ \
n = P_PTR->n[0]; \
if(n != NULL) \
{ \
if((n->x == 0.0) && (n->y == 0.0) && (n->z == 0.0)) \
V3DGLSetNormal(glinterp, fbn); \
} \
} \
\
for(i = 0; i < V_TOTAL; i++) \
{ \
v = P_PTR->v[i]; \
n = P_PTR->n[i]; \
tc = P_PTR->tc[i]; \
V3DGLSetNormal(glinterp, n); \
V3DGLSetTexCoord(glinterp, v, tc, texture_binded, last_p_texture_orient); \
V3DGLSetVertex(glinterp, v); \
} \
} \
}
#define DO_SET_VERTEX_STATIC \
{ \
int i; \
mp_vertex_struct *v, *n, *tc; \
mp_vertex_struct *fbn = NULL; /* Fallback normal vector. */ \
\
/* Look for first non-empty fallback normal vector. */ \
if(pass_normals != V3D_GLPASS_NORMALS_NEVER) \
{ \
for(i = 0; i < V_TOTAL; i++) \
{ \
n = &P_PTR->n[i]; \
if(n != NULL) \
{ \
if((n->x != 0.0) || (n->y != 0.0) || (n->z != 0.0)) \
fbn = n; \
} \
} \
} \
\
if(flip_winding) \
{ \
/* Check if we need to set the fallback normal for the first \
* vertex. \
*/ \
if(pass_normals != V3D_GLPASS_NORMALS_NEVER) \
{ \
n = &P_PTR->n[V_TOTAL - 1]; \
if((n->x == 0.0) && (n->y == 0.0) && (n->z == 0.0)) \
V3DGLSetNormal(glinterp, fbn); \
} \
\
for(i = V_TOTAL - 1; i >= 0; i--) \
{ \
v = &P_PTR->v[i]; \
n = &P_PTR->n[i]; \
tc = &P_PTR->tc[i]; \
V3DGLSetNormal(glinterp, n); \
V3DGLSetTexCoord(glinterp, v, tc, texture_binded, last_p_texture_orient); \
V3DGLSetVertex(glinterp, v); \
} \
} \
else \
{ \
/* Check if we need to set the fallback normal for the first \
* vertex. \
*/ \
if(pass_normals != V3D_GLPASS_NORMALS_NEVER) \
{ \
n = &P_PTR->n[0]; \
if((n->x == 0.0) && (n->y == 0.0) && (n->z == 0.0)) \
V3DGLSetNormal(glinterp, fbn); \
} \
\
for(i = 0; i < V_TOTAL; i++) \
{ \
v = &P_PTR->v[i]; \
n = &P_PTR->n[i]; \
tc = &P_PTR->tc[i]; \
V3DGLSetNormal(glinterp, n); \
V3DGLSetTexCoord(glinterp, v, tc, texture_binded, last_p_texture_orient); \
V3DGLSetVertex(glinterp, v); \
} \
} \
}
case V3DMP_TYPE_POINT:
#define P_PTR p_point
#define V_TOTAL V3DMP_POINT_NVERTEX
P_PTR = (mp_point_struct *)p;
if(last_begin_ptype != V3DMP_TYPE_POINT)
glBegin(GL_POINTS);
DO_SET_VERTEX_STATIC
last_begin_ptype = V3DMP_TYPE_POINT;
#undef P_PTR
#undef V_TOTAL
break;
case V3DMP_TYPE_LINE:
#define P_PTR p_line
#define V_TOTAL V3DMP_LINE_NVERTEX
P_PTR = (mp_line_struct *)p;
if(last_begin_ptype != V3DMP_TYPE_LINE)
glBegin(GL_LINES);
DO_SET_VERTEX_STATIC
last_begin_ptype = V3DMP_TYPE_LINE;
#undef P_PTR
#undef V_TOTAL
break;
case V3DMP_TYPE_LINE_STRIP:
#define P_PTR p_line_strip
#define V_TOTAL P_PTR->total
P_PTR = (mp_line_strip_struct *)p;
glBegin(GL_LINE_STRIP);
DO_SET_VERTEX_DYNAMIC
glEnd();
#undef P_PTR
#undef V_TOTAL
break;
case V3DMP_TYPE_LINE_LOOP:
#define P_PTR p_line_loop
#define V_TOTAL P_PTR->total
P_PTR = (mp_line_loop_struct *)p;
glBegin(GL_LINE_LOOP);
DO_SET_VERTEX_DYNAMIC
glEnd();
#undef P_PTR
#undef V_TOTAL
break;
case V3DMP_TYPE_TRIANGLE:
#define P_PTR p_triangle
#define V_TOTAL V3DMP_TRIANGLE_NVERTEX
P_PTR = (mp_triangle_struct *)p;
if(last_begin_ptype != V3DMP_TYPE_TRIANGLE)
glBegin(GL_TRIANGLES);
DO_SET_VERTEX_STATIC
last_begin_ptype = V3DMP_TYPE_TRIANGLE;
#undef P_PTR
#undef V_TOTAL
break;
case V3DMP_TYPE_TRIANGLE_STRIP:
#define P_PTR p_triangle_strip
#define V_TOTAL P_PTR->total
P_PTR = (mp_triangle_strip_struct *)p;
glBegin(GL_TRIANGLE_STRIP);
DO_SET_VERTEX_DYNAMIC
glEnd();
#undef P_PTR
#undef V_TOTAL
break;
case V3DMP_TYPE_TRIANGLE_FAN:
#define P_PTR p_triangle_fan
#define V_TOTAL P_PTR->total
P_PTR = (mp_triangle_fan_struct *)p;
glBegin(GL_TRIANGLE_FAN);
DO_SET_VERTEX_DYNAMIC
glEnd();
#undef P_PTR
#undef V_TOTAL
break;
case V3DMP_TYPE_QUAD:
#define P_PTR p_quad
#define V_TOTAL V3DMP_QUAD_NVERTEX
P_PTR = (mp_quad_struct *)p;
if(last_begin_ptype != V3DMP_TYPE_QUAD)
glBegin(GL_QUADS);
DO_SET_VERTEX_STATIC
last_begin_ptype = V3DMP_TYPE_QUAD;
#undef P_PTR
#undef V_TOTAL
break;
case V3DMP_TYPE_QUAD_STRIP:
#define P_PTR p_quad_strip
#define V_TOTAL P_PTR->total
P_PTR = (mp_quad_strip_struct *)p;
glBegin(GL_QUAD_STRIP);
DO_SET_VERTEX_DYNAMIC
glEnd();
#undef P_PTR
#undef V_TOTAL
break;
case V3DMP_TYPE_POLYGON:
#define P_PTR p_polygon
#define V_TOTAL P_PTR->total
P_PTR = (mp_polygon_struct *)p;
glBegin(GL_POLYGON);
DO_SET_VERTEX_DYNAMIC
glEnd();
#undef P_PTR
#undef V_TOTAL
break;
#undef DO_SET_VERTEX_STATIC
#undef DO_SET_VERTEX_DYNAMIC
case V3DMP_TYPE_COLOR:
p_color = (mp_color_struct *)p;
if(p_color->a < 1.0)
{
if(enable_blending)
{
if(!blending_enabled)
{
glEnable(GL_BLEND);
glDisable(GL_ALPHA_TEST);
blending_enabled = TRUE;
}
}
if(set_blend_func)
{
glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
}
}
else
{
if(enable_blending)
{
if(blending_enabled)
{
glDisable(GL_BLEND);
glEnable(GL_ALPHA_TEST);
blending_enabled = FALSE;
}
}
}
/* Set color? */
if(material_properties != V3D_GLPASS_MATERIAL_PROPERTIES_INSTEAD_COLOR)
{
glColor4d(p_color->r, p_color->g, p_color->b, p_color->a);
}
/* Set material properties? */
if(material_properties != V3D_GLPASS_MATERIAL_PROPERTIES_NEVER)
{
GLenum glface;
GLfloat glparam[4];
switch(faces)
{
case V3D_GLFACES_FRONT_AND_BACK:
glface = GL_FRONT_AND_BACK;
break;
case V3D_GLFACES_BACK:
glface = GL_BACK;
break;
default: /* V3D_GLFACES_FRONT */
glface = GL_FRONT;
break;
}
glparam[0] = (GLfloat)(p_color->ambient * p_color->r);
glparam[1] = (GLfloat)(p_color->ambient * p_color->g);
glparam[2] = (GLfloat)(p_color->ambient * p_color->b);
glparam[3] = (GLfloat)(p_color->a);
glMaterialfv(glface, GL_AMBIENT, glparam);
glparam[0] = (GLfloat)(p_color->diffuse * p_color->r);
glparam[1] = (GLfloat)(p_color->diffuse * p_color->g);
glparam[2] = (GLfloat)(p_color->diffuse * p_color->b);
glparam[3] = (GLfloat)(p_color->a);
glMaterialfv(glface, GL_DIFFUSE, glparam);
glparam[0] = (GLfloat)(p_color->specular * p_color->r);
glparam[1] = (GLfloat)(p_color->specular * p_color->g);
glparam[2] = (GLfloat)(p_color->specular * p_color->b);
glparam[3] = (GLfloat)(p_color->a);
glMaterialfv(glface, GL_SPECULAR, glparam);
glparam[0] = (GLfloat)(p_color->shininess * 128.0);
glMaterialf(glface, GL_SHININESS, glparam[0]);
glparam[0] = (GLfloat)(p_color->emission * p_color->r);
glparam[1] = (GLfloat)(p_color->emission * p_color->g);
glparam[2] = (GLfloat)(p_color->emission * p_color->b);
glparam[3] = (GLfloat)(p_color->a);
glMaterialfv(glface, GL_EMISSION, glparam);
}
break;
case V3DMP_TYPE_TEXTURE_SELECT:
p_texture_select = (mp_texture_select_struct *)p;
if(p_texture_select->name != NULL)
{
const char *tex_name = (const char *)p_texture_select->name;
int tn;
v3d_texture_ref_struct *t;
/* Previous last_p_texture_orient gets reset when
* a new texture is binded.
*/
last_p_texture_orient = NULL;
/* Iterate through each loaded texture on the
* gl resources structure.
*/
for(tn = 0; tn < glres->total_textures; tn++)
{
t = glres->texture[tn];
if((t == NULL) ? 1 : (t->name == NULL))
continue;
if(texture_name_case_sensitive)
{
if(!strcmp(t->name, tex_name))
break;
}
else
{
if(!strcasecmp(t->name, tex_name))
break;
}
}
/* Matched texture? */
if(tn < glres->total_textures)
t = glres->texture[tn];
else
t = NULL;
if(t == NULL)
{
/* No texture, unbind any existing texture. */
V3DTextureSelect(NULL);
texture_binded = FALSE;
}
else
{
V3DTextureSelect(t);
texture_binded = TRUE;
}
}
break;
case V3DMP_TYPE_TEXTURE_ORIENT_XY:
p_texture_orient_xy = (mp_texture_orient_xy_struct *)p;
if(texture_binded)
{
last_p_texture_orient = p;
}
break;
case V3DMP_TYPE_TEXTURE_ORIENT_YZ:
p_texture_orient_yz = (mp_texture_orient_yz_struct *)p;
if(texture_binded)
{
last_p_texture_orient = p;
}
break;
case V3DMP_TYPE_TEXTURE_ORIENT_XZ:
p_texture_orient_xz = (mp_texture_orient_xz_struct *)p;
if(texture_binded)
{
last_p_texture_orient = p;
}
break;
case V3DMP_TYPE_TEXTURE_OFF:
p_texture_off = (mp_texture_off_struct *)p;
V3DTextureSelect(NULL);
texture_binded = FALSE;
last_p_texture_orient = NULL;
break;
case V3DMP_TYPE_HEIGHTFIELD_LOAD:
p_heightfield_load = (mp_heightfield_load_struct *)p;
if(p_heightfield_load->path != NULL)
{
int status, widthp, heightp;
double x_spacing, y_spacing;
const char *cstrptr;
v3d_hf_options_struct hfopt;
char tmp_path[PATH_MAX + NAME_MAX];
if(ISPATHABSOLUTE(p_heightfield_load->path))
{
strncpy(tmp_path, p_heightfield_load->path, PATH_MAX + NAME_MAX);
}
else if(heightfield_base_dir != NULL)
{
cstrptr = (const char *)PrefixPaths(
heightfield_base_dir, p_heightfield_load->path
);
strncpy(
tmp_path,
(cstrptr == NULL) ? p_heightfield_load->path : cstrptr,
PATH_MAX + NAME_MAX
);
}
else
{
strncpy(tmp_path, p_heightfield_load->path, PATH_MAX + NAME_MAX);
}
glPushMatrix();
switch(coordinate_axis)
{
case V3D_GLCOORDINATE_AXIS_GL:
glTranslated(
p_heightfield_load->x,
p_heightfield_load->y,
p_heightfield_load->z
);
glRotated(
-RADTODEG(p_heightfield_load->heading),
0.0, 0.0, 1.0
);
glRotated(
-RADTODEG(p_heightfield_load->pitch),
1.0, 0.0, 0.0
);
glRotated(
-RADTODEG(p_heightfield_load->bank),
0.0, 1.0, 0.0
);
break;
case V3D_GLCOORDINATE_AXIS_SCIENTIFIC:
glTranslated(
p_heightfield_load->x,
p_heightfield_load->z,
-p_heightfield_load->y
);
glRotated(
-RADTODEG(p_heightfield_load->heading),
0.0, 1.0, 0.0
);
glRotated(
-RADTODEG(p_heightfield_load->pitch),
1.0, 0.0, 0.0
);
glRotated(
-RADTODEG(p_heightfield_load->bank),
0.0, 0.0, 1.0
);
break;
}
/* Set up heightfield options. */
hfopt.flags = (V3D_HF_OPT_FLAG_WINDING |
V3D_HF_OPT_FLAG_SET_NORMAL | V3D_HF_OPT_FLAG_SET_TEXCOORD
);
hfopt.winding = ((flip_winding) ?
V3D_HF_WIND_CCW : V3D_HF_WIND_CW
);
hfopt.set_normal = ((pass_normals != V3D_GLPASS_NORMALS_NEVER) ?
V3D_HF_SET_NORMAL_AVERAGED : V3D_HF_SET_NORMAL_NEVER
);
hfopt.set_texcoord = ((pass_texcoords != V3D_GLPASS_TEXCOORDS_NEVER) ?
V3D_HF_SET_TEXCOORD_ALWAYS : V3D_HF_SET_TEXCOORD_NEVER
);
/* Load heightfield from image file and generate GL
* commands.
*/
status = V3DHFLoadFromFile(
tmp_path,
p_heightfield_load->x_length,
p_heightfield_load->y_length,
p_heightfield_load->z_length,
&widthp, &heightp,
&x_spacing, &y_spacing,
NULL, /* No allocated z points. */
NULL, /* GL list not important. */
&hfopt
);
glPopMatrix();
}
break;
}
}
/* Need to call glEnd() if last_begin_ptype is not -1. */
if(last_begin_ptype > -1)
{
glEnd();
last_begin_ptype = -1;
}
/* Pop any extranous matrixes */
while(matrix_level > 0)
{
glPopMatrix();
matrix_level--;
}
/* Unbind any textures */
if(texture_binded)
V3DTextureSelect(NULL);
/* Restore blend state */
if(blending_enabled)
{
glDisable(GL_BLEND);
glEnable(GL_ALPHA_TEST);
blending_enabled = FALSE;
}
}
