void CPlayerCamera::SetRotation ( CVector & vecRotation )
{
// Rotate a 1000,0,0 vector with the given rotation vector
CVector vecRotationCopy = vecRotation;
vecRotationCopy.fX = 0.0f;
CVector vecNormal = CVector ( 1000.0f, 0.0f, 0.0f );
RotateVector ( vecNormal, vecRotationCopy );
// Add it with our current position
vecNormal += m_vecPosition;
// Set the calculated vector as the target
m_vecLookAt = vecNormal;
}
bool CRigidBody::Contains(const PAVECTOR* pPoint)
{
D3DXVECTOR3 localPoint = (*pPoint) - m_position;
localPoint = RotateVector(localPoint, true);
for (std::list<Ptr<IHitbox>>::iterator it = m_lHitbox.begin();
it != m_lHitbox.end();
it++)
{
if ((*it)->Contains(&PAVector(localPoint))) return true;
}
return false;
}
BOOL CGeometry::TransformLights(D3DVECTOR *CameraRotation,D3DVECTOR *CameraPosition)
{
HRESULT ddrval;
for(int i=0; i<MAXLIGHTS; i++) {
if(m_Lights[i].InUse) {
D3DVECTOR RelVec = m_Lights[i].Position;
RelVec.x -= CameraPosition->x;
RelVec.y -= CameraPosition->y;
RelVec.z -= CameraPosition->z;
SetWorldMatrix(CameraRotation);
RotateVector(&RelVec,&m_Lights[i].LightDesc.dvPosition);
if(m_Lights[i].Transform) {
RelVec = m_Lights[i].Direction;
RotateVector(&RelVec,&m_Lights[i].LightDesc.dvDirection);
}
DXCALL(m_Lights[i].Light->SetLight(&m_Lights[i].LightDesc));
}
}
return TRUE;
}
void CClientCamera::SetRotation ( const CVector& vecRotation )
{
// Rotate a 1000,0,0 vector with the given rotation vector
CVector vecRotationCopy = vecRotation;
vecRotationCopy.fX = 0.0f;
CVector vecNormal = CVector ( 1000.0f, 0.0f, 0.0f );
RotateVector ( vecNormal, vecRotationCopy );
// Add it with our current position
CVector vecPosition;
GetPosition ( vecPosition );
vecPosition += vecNormal;
// Set the calculated vector as the target
SetTarget ( vecPosition );
}
void TMercury::Reflect(value_type x1, state_type y1, value_type &x2, state_type &y2, int &polarisation,
const double normal[3], solid *leaving, solid *entering, bool &trajectoryaltered, bool &traversed){
value_type vnormal = y1[3]*normal[0] + y1[4]*normal[1] + y1[5]*normal[2]; // velocity normal to reflection plane
//particle was neither transmitted nor absorbed, so it has to be reflected
double prob = mc->UniformDist(0,1);
material *mat = vnormal < 0 ? &entering->mat : &leaving->mat;
double diffprob = mat->DiffProb;
// cout << "prob: " << diffprob << '\n';
if (prob >= diffprob){
//************** specular reflection **************
// printf("Specular reflection! Erefl=%LG neV\n",Enormal*1e9);
x2 = x1;
for (int i = 0; i < 6; i++)
y2[i] = y1[i];
y2[3] -= 2*vnormal*normal[0]; // reflect velocity
y2[4] -= 2*vnormal*normal[1];
y2[5] -= 2*vnormal*normal[2];
}
else{
//************** diffuse reflection no MR model ************
double phi_r, theta_r;
phi_r = mc->UniformDist(0, 2*pi); // generate random reflection angles (Lambert's law)
theta_r = mc->SinCosDist(0, 0.5*pi);
if (vnormal > 0) theta_r = pi - theta_r; // if velocity points out of volume invert polar angle
x2 = x1;
for (int i = 0; i < 3; i++)
y2[i] = y1[i];
value_type vabs = sqrt(y1[3]*y1[3] + y1[4]*y1[4] + y1[5]*y1[5]);
y2[3] = vabs*cos(phi_r)*sin(theta_r); // new velocity with respect to z-axis
y2[4] = vabs*sin(phi_r)*sin(theta_r);
y2[5] = vabs*cos(theta_r);
RotateVector(&y2[3], normal, &y1[3]); // rotate velocity into coordinate system defined by incoming velocity and plane normal
// printf("Diffuse reflection! Erefl=%LG neV w_e=%LG w_s=%LG\n",Enormal*1e9,phi_r/conv,theta_r/conv);
}
if (mc->UniformDist(0,1) < entering->mat.SpinflipProb){
polarisation *= -1;
Nspinflip++;
}
traversed = false;
trajectoryaltered = true;
} // end reflect method
void ScanHModelForDecals(DISPLAYBLOCK *objectPtr, SECTION_DATA *sectionDataPtr)
{
SECTION *sectionPtr = sectionDataPtr->sempai;
/* Unreal things aren't drawn... */
if (!(sectionDataPtr->flags§ion_data_notreal) && (sectionPtr->Shape!=NULL))
{
/* does the object have decals? */
extern MODULE *playerPherModule;
if(sectionDataPtr->NumberOfDecals && playerPherModule)
{
int d;
for(d=0; d<sectionDataPtr->NumberOfDecals; d++)
{
int i;
DECAL decal;
decal.DecalID = sectionDataPtr->Decals[d].DecalID;
decal.ModuleIndex = playerPherModule->m_index;
decal.UOffset = 0;
for(i=0; i<5; i++)
{
decal.Vertices[i] = sectionDataPtr->Decals[d].Vertices[i];
RotateVector(&(decal.Vertices[i]),&(sectionDataPtr->SecMat));
decal.Vertices[i].vx += sectionDataPtr->World_Offset.vx;
decal.Vertices[i].vy += sectionDataPtr->World_Offset.vy;
decal.Vertices[i].vz += sectionDataPtr->World_Offset.vz;
}
RenderDecal(&decal);
}
}
}
/* Now call recursion... */
if (sectionDataPtr->First_Child!=NULL)
{
SECTION_DATA *childrenListPtr = sectionDataPtr->First_Child;
while (childrenListPtr!=NULL)
{
ScanHModelForDecals(objectPtr,childrenListPtr);
childrenListPtr=childrenListPtr->Next_Sibling;
}
}
}
void NtlGetDestination_Keyboard_TURN_R(float fCurrentHeadingVectorX, float fCurrentHeadingVectorZ, float fSpeedInSecs,
float fCurrentPositionX, float fCurrentPositionY, float fCurrentPositionZ,
DWORD dwDeltaTimeInMillisecs, float fTurningSpeedRatio,
CNtlVector* pNewHeadingVector, CNtlVector* pDestination)
{
UNREFERENCED_PARAMETER( fSpeedInSecs );
pNewHeadingVector->x = fCurrentHeadingVectorX;
pNewHeadingVector->y = 0.0f;
pNewHeadingVector->z = fCurrentHeadingVectorZ;
pDestination->x = fCurrentPositionX;
pDestination->y = fCurrentPositionY;
pDestination->z = fCurrentPositionZ;
float fRadian = 2 * NTL_PI * ((float)dwDeltaTimeInMillisecs / (float)NTL_REQUIRED_TIME_FOR_COMPLETE_CIRCULAR_MOVEMENT_IN_MILLISECS);
fRadian *= fTurningSpeedRatio;
*pNewHeadingVector = RotateVector(pNewHeadingVector, -fRadian);
}
/**
* Drive method for Mecanum wheeled robots.
*
* A method for driving with Mecanum wheeled robots. There are 4 wheels
* on the robot, arranged so that the front and back wheels are toed in 45 degrees.
* When looking at the wheels from the top, the roller axles should form an X across the robot.
*
* This is designed to be directly driven by joystick axes.
*
* @param x The speed that the robot should drive in the X direction. [-1.0..1.0]
* @param y The speed that the robot should drive in the Y direction.
* This input is inverted to match the forward == -1.0 that joysticks produce. [-1.0..1.0]
* @param rotation The rate of rotation for the robot that is completely independent of
* the translation. [-1.0..1.0]
* @param gyroAngle The current angle reading from the gyro. Use this to implement field-oriented controls.
*/
void RobotDrive::MecanumDrive_Cartesian(float x, float y, float rotation, float gyroAngle)
{
double xIn = x;
double yIn = y;
// Negate y for the joystick.
yIn = -yIn;
// Compenstate for gyro angle.
RotateVector(xIn, yIn, gyroAngle);
double wheelSpeeds[kMaxNumberOfMotors];
wheelSpeeds[kFrontLeftMotor] = xIn + yIn + rotation;
wheelSpeeds[kFrontRightMotor] = -xIn + yIn - rotation;
wheelSpeeds[kRearLeftMotor] = -xIn + yIn + rotation;
wheelSpeeds[kRearRightMotor] = xIn + yIn - rotation;
Normalize(wheelSpeeds);
m_frontLeftMotor->Set(wheelSpeeds[kFrontLeftMotor] * m_invertedMotors[kFrontLeftMotor]);
m_frontRightMotor->Set(wheelSpeeds[kFrontRightMotor] * m_invertedMotors[kFrontRightMotor]);
m_rearLeftMotor->Set(wheelSpeeds[kRearLeftMotor] * m_invertedMotors[kRearLeftMotor]);
m_rearRightMotor->Set(wheelSpeeds[kRearRightMotor] * m_invertedMotors[kRearRightMotor]);
}
/**
* Drive method for Mecanum wheeled robots.
*
* A method for driving with Mecanum wheeled robots. There are 4 wheels
* on the robot, arranged so that the front and back wheels are toed in 45
* degrees.
* When looking at the wheels from the top, the roller axles should form an X
* across the robot.
*
* This is designed to be directly driven by joystick axes.
*
* @param x The speed that the robot should drive in the X direction.
* [-1.0..1.0]
* @param y The speed that the robot should drive in the Y direction.
* This input is inverted to match the forward == -1.0 that joysticks produce.
* [-1.0..1.0]
* @param rotation The rate of rotation for the robot that is completely
* independent of
* the translation. [-1.0..1.0]
* @param gyroAngle The current angle reading from the gyro. Use this to
* implement field-oriented controls.
*/
void RobotDrive::MecanumDrive_Cartesian(float x, float y, float rotation,
float gyroAngle) {
static bool reported = false;
if (!reported) {
HALReport(HALUsageReporting::kResourceType_RobotDrive, GetNumMotors(),
HALUsageReporting::kRobotDrive_MecanumCartesian);
reported = true;
}
double xIn = x;
double yIn = y;
// Negate y for the joystick.
yIn = -yIn;
// Compenstate for gyro angle.
RotateVector(xIn, yIn, gyroAngle);
double wheelSpeeds[kMaxNumberOfMotors];
wheelSpeeds[kFrontLeftMotor] = xIn + yIn + rotation;
wheelSpeeds[kFrontRightMotor] = -xIn + yIn - rotation;
wheelSpeeds[kRearLeftMotor] = -xIn + yIn + rotation;
wheelSpeeds[kRearRightMotor] = xIn + yIn - rotation;
Normalize(wheelSpeeds);
m_frontLeftMotor->Set(wheelSpeeds[kFrontLeftMotor] * m_maxOutput,
m_syncGroup);
m_frontRightMotor->Set(wheelSpeeds[kFrontRightMotor] * m_maxOutput,
m_syncGroup);
m_rearLeftMotor->Set(wheelSpeeds[kRearLeftMotor] * m_maxOutput, m_syncGroup);
m_rearRightMotor->Set(wheelSpeeds[kRearRightMotor] * m_maxOutput,
m_syncGroup);
if (m_syncGroup != 0) {
CANJaguar::UpdateSyncGroup(m_syncGroup);
}
m_safetyHelper->Feed();
}
TParticle* TSurfaceSource::CreateParticle(){
double t = fmc->UniformDist(0, fActiveTime);
double RandA = fmc->UniformDist(0,sourcearea);
double SumA = 0;
vector<TTriangle>::iterator i;
for (i = sourcetris.begin(); i != sourcetris.end(); i++){
SumA += i->area();
if (RandA <= SumA) break;
}
double a = fmc->UniformDist(0,1); // generate random point on triangle (see Numerical Recipes 3rd ed., p. 1114)
double b = fmc->UniformDist(0,1);
if (a+b > 1){
a = 1 - a;
b = 1 - b;
}
CVector nv = i->normal();
CPoint p = i->tri[0] + a*(i->tri[1] - i->tri[0]) + b*(i->tri[2] - i->tri[0]) + nv*REFLECT_TOLERANCE;
double Ekin = fmc->Spectrum(fParticleName);
double phi_v = fmc->UniformDist(0, 2*pi); // generate random velocity angles in upper hemisphere
double theta_v = fmc->SinCosDist(0, 0.5*pi); // Lambert's law!
if (Enormal > 0){
double vnormal = sqrt(Ekin*cos(theta_v)*cos(theta_v) + Enormal); // add E_normal to component normal to surface
double vtangential = sqrt(Ekin)*sin(theta_v);
theta_v = atan2(vtangential, vnormal); // update angle
Ekin = vnormal*vnormal + vtangential*vtangential; // update energy
}
double v[3] = {cos(phi_v)*sin(theta_v), sin(phi_v)*sin(theta_v), cos(theta_v)};
double n[3] = {nv[0], nv[1], nv[2]};
RotateVector(v, n);
phi_v = atan2(v[1],v[0]);
theta_v = acos(v[2]);
int polarisation = fmc->DicePolarisation(fParticleName);
return TParticleSource::CreateParticle(t, p[0], p[1], p[2], Ekin, phi_v, theta_v, polarisation);
}
void NtlGetDestination_Keyboard_B_TURN_R(float fCurrentHeadingVectorX, float fCurrentHeadingVectorZ, float fSpeedInSecs,
float fCurrentPositionX, float fCurrentPositionY, float fCurrentPositionZ,
DWORD dwDeltaTimeInMillisecs, float fTurningSpeedRatio,
CNtlVector* pNewHeadingVector, CNtlVector* pDestination)
{
pNewHeadingVector->x = fCurrentHeadingVectorX;
pNewHeadingVector->y = 0.0f;
pNewHeadingVector->z = fCurrentHeadingVectorZ;
float fRadian = 2 * NTL_PI * ((float)dwDeltaTimeInMillisecs / (float)NTL_REQUIRED_TIME_FOR_COMPLETE_CIRCULAR_MOVEMENT_IN_MILLISECS);
fRadian *= fTurningSpeedRatio;
*pNewHeadingVector = RotateVector(pNewHeadingVector, -fRadian);
float fRadius = 0.0f;
fRadius = (fSpeedInSecs * NTL_BACKWARD_MOVEMENT_SPEED_RATE) * ((float)NTL_REQUIRED_TIME_FOR_COMPLETE_CIRCULAR_MOVEMENT_IN_MILLISECS / (float)1000) / (2 * NTL_PI);
float fTempX = fCurrentHeadingVectorX * fRadius / sqrt(fCurrentHeadingVectorX * fCurrentHeadingVectorX + fCurrentHeadingVectorZ * fCurrentHeadingVectorZ);
float fTempZ = fCurrentHeadingVectorZ * fRadius / sqrt(fCurrentHeadingVectorX * fCurrentHeadingVectorX + fCurrentHeadingVectorZ * fCurrentHeadingVectorZ);
pDestination->x = fCurrentPositionX - fTempX * sin(fRadian) + fTempZ * (1 - cos(fRadian));
pDestination->y = fCurrentPositionY;
pDestination->z = fCurrentPositionZ - fTempZ * sin(fRadian) - fTempX * (1 - cos(fRadian));
}
void TeleportPreservedSBsToNewEnvModule(MODULE *new_pos, MODULE* old_pos, int orient_change)
{
int i;
VECTORCH mod_offset;
mod_offset.vx = new_pos->m_world.vx - old_pos->m_world.vx;
mod_offset.vy = new_pos->m_world.vy - old_pos->m_world.vy;
mod_offset.vz = new_pos->m_world.vz - old_pos->m_world.vz;
for(i = 0; i < Num_SB_Preserved; i++)
{
VECTORCH obj_world;
VECTORCH pos_rel;
STRATEGYBLOCK *sbptr;
DYNAMICSBLOCK *dynptr;
sbptr = &SB_Preserved[i];
dynptr = sbptr->DynPtr;
GLOBALASSERT(dynptr);
obj_world = sbptr->DynPtr->Position;
{
// okay we need to find our relative position to the moduke
int cos;
int sin;
int angle;
MATRIXCH mat;
pos_rel.vx = dynptr->Position.vx - old_pos->m_world.vx;
pos_rel.vy = dynptr->Position.vy - old_pos->m_world.vy;
pos_rel.vz = dynptr->Position.vz - old_pos->m_world.vz;
if(orient_change == 1 || orient_change == -3)
angle = 1024;
else if(orient_change == 2 || orient_change == -2)
angle = 2048;
else if(orient_change == 3 || orient_change == -1)
angle = 3072;
else
angle = 0;
cos = GetCos(angle);
sin = GetSin(angle);
mat.mat11 = cos;
mat.mat12 = 0;
mat.mat13 = -sin;
mat.mat21 = 0;
mat.mat22 = 65536;
mat.mat23 = 0;
mat.mat31 = sin;
mat.mat32 = 0;
mat.mat33 = cos;
// rotate the relative object about the center of the
// module and rotate the abject about its own y-axis
RotateVector(&pos_rel, &mat);
MatrixMultiply(&dynptr->OrientMat,&mat,&dynptr->OrientMat);
MatrixToEuler(&dynptr->OrientMat, &dynptr->OrientEuler);
}
#if 0
dynptr->Position.vx = mod_offset.vx;
dynptr->Position.vy = mod_offset.vy;
dynptr->Position.vz = mod_offset.vz;
dynptr->PrevPosition.vx = mod_offset.vx;
dynptr->PrevPosition.vy = mod_offset.vy;
dynptr->PrevPosition.vz = mod_offset.vz;
#endif
dynptr->Position.vx = pos_rel.vx + new_pos->m_world.vx;
dynptr->Position.vy = pos_rel.vy + new_pos->m_world.vy;
dynptr->Position.vz = pos_rel.vz + new_pos->m_world.vz;
dynptr->PrevPosition.vx = -pos_rel.vx + old_pos->m_world.vx;
dynptr->PrevPosition.vy = -pos_rel.vy + old_pos->m_world.vy;
dynptr->PrevPosition.vz = -pos_rel.vz + old_pos->m_world.vz;
}
}
bool DexMouseTracker::GetCurrentMarkerFrame( CodaFrame &frame ) {
POINT mouse_position;
GetCursorPos( &mouse_position );
RECT rect;
GetWindowRect( GetDesktopWindow(), &rect );
Vector3 position, rotated;
Vector3 x_dir, y_span, z_span;
Vector3 x_displacement, y_displacement, z_displacement;
double x, y, z;
Quaternion Ry, Rz, Q, nominalQ, midQ;
Matrix3x3 xform = {{-1.0, 0.0, 0.0},{0.0, 0.0, 1.0},{0.0, 1.0, 0.0}};
int mrk, id;
// Just set the target frame markers at their nominal fixed positions.
for ( mrk = 0; mrk < nFrameMarkers; mrk++ ) {
id = FrameMarkerID[mrk];
CopyVector( frame.marker[id].position, TargetFrameBody[mrk] );
}
// Shift the vertical bar markers to simulate being in the left position.
if ( IsDlgButtonChecked( dlg, IDC_LEFT ) ) {
frame.marker[DEX_NEGATIVE_BAR_MARKER].position[X] += 300.0;
frame.marker[DEX_POSITIVE_BAR_MARKER].position[X] += 300.0;
}
// Transform the marker positions of the target box and frame according
// to whether the system was upright or supine when it was aligned and
// according to whether the system is currently installed in the upright
// or supine configuration.
if ( ( IsDlgButtonChecked( dlg, IDC_SUPINE ) && TRACKER_ALIGNED_SUPINE != SendDlgItemMessage( dlg, IDC_ALIGNMENT, CB_GETCURSEL, 0, 0 ) ) ||
( IsDlgButtonChecked( dlg, IDC_SEATED ) && TRACKER_ALIGNED_UPRIGHT != SendDlgItemMessage( dlg, IDC_ALIGNMENT, CB_GETCURSEL, 0, 0 ) ) ) {
for ( mrk = 0; mrk < nFrameMarkers; mrk++ ) {
id = FrameMarkerID[mrk];
position[X] = - frame.marker[id].position[X];
position[Z] = frame.marker[id].position[Y];
position[Y] = frame.marker[id].position[Z];
CopyVector( frame.marker[id].position, position );
}
MatrixToQuaternion( nominalQ, xform );
}
else CopyQuaternion( nominalQ, nullQuaternion );
// Now set the visibility flag as a funciton of the GUI.
if ( IsDlgButtonChecked( dlg, IDC_BAR_OCCLUDED ) ) {
frame.marker[DEX_NEGATIVE_BAR_MARKER].visibility = false;
frame.marker[DEX_POSITIVE_BAR_MARKER].visibility = false;
}
else {
frame.marker[DEX_NEGATIVE_BAR_MARKER].visibility = true;
frame.marker[DEX_POSITIVE_BAR_MARKER].visibility = true;
}
if ( IsDlgButtonChecked( dlg, IDC_BOX_OCCLUDED ) ) {
frame.marker[DEX_NEGATIVE_BOX_MARKER].visibility = false;
frame.marker[DEX_POSITIVE_BOX_MARKER].visibility = false;
}
else {
frame.marker[DEX_NEGATIVE_BOX_MARKER].visibility = true;
frame.marker[DEX_POSITIVE_BOX_MARKER].visibility = true;
}
// Map mouse coordinates to world coordinates. The factors used here are empirical.
y = (double) ( mouse_position.y - rect.top ) / (double) ( rect.bottom - rect.top );
z = (double) (mouse_position.x - rect.right) / (double) ( rect.left - rect.right );
x = 0.0;
// By default, the orientation of the manipulandum is the nominal orientation.
CopyQuaternion( Q, nominalQ );
// Simulate wobbly movements of the manipulandum. This has not really been tested.
if ( IsDlgButtonChecked( dlg, IDC_CODA_WOBBLY ) ) {
// We will make the manipulandum rotate in a strange way as a function of the distance from 0.
// This is just so that we can test the routines that compute the manipulandum position and orientation.
double theta = y * 45.0;
double gamma = - z * 45.0;
SetQuaterniond( Ry, theta, iVector );
SetQuaterniond( Rz, gamma, jVector );
MultiplyQuaternions( midQ, Rz, nominalQ );
MultiplyQuaternions( Q, Ry, midQ );
// Make the movement a little bit in X as well so that we test the routines in 3D.
x = 0.0 + 5.0 * sin( y / 80.0);
}
// Map screen position of the mouse pointer to 3D position of the wrist and manipulandum.
// Top of the screen corresponds to the bottom of the bar and vice versa. It's inverted to protect the right hand rule.
// Right of the screen correponds to the nearest horizontal target and left corresponds to the farthest.
// The X position is set to be just to the right of the box.
SubtractVectors( y_span, frame.marker[DEX_POSITIVE_BAR_MARKER].position, frame.marker[DEX_NEGATIVE_BAR_MARKER].position );
SubtractVectors( x_dir, frame.marker[DEX_POSITIVE_BOX_MARKER].position, frame.marker[DEX_NEGATIVE_BOX_MARKER].position );
NormalizeVector( x_dir );
ComputeCrossProduct( z_span, x_dir, y_span );
ScaleVector( y_displacement, y_span, y );
ScaleVector( z_displacement, z_span, z );
ScaleVector( x_displacement, x_dir, x );
// Reference position is the bottom target on the vertical target bar.
CopyVector( position, frame.marker[DEX_NEGATIVE_BAR_MARKER].position );
// Place the manipulandum to the right of the box, even if the target bar is in the left position.
position[X] = frame.marker[DEX_NEGATIVE_BOX_MARKER].position[X];
// Shift the position in X if the is any wobble to it.
AddVectors( position, position, x_displacement );
// Shift the position in Y and Z according to the displacements computed from the mouse position.
AddVectors( position, position, y_displacement );
AddVectors( position, position, z_displacement );
frame.time = DexTimerElapsedTime( acquisitionTimer );
// Displace the manipulandum with the mouse and make it rotate.
for ( mrk = 0; mrk < nManipulandumMarkers; mrk++ ) {
id = ManipulandumMarkerID[mrk];
RotateVector( rotated, Q, ManipulandumBody[mrk] );
AddVectors( frame.marker[id].position, position, rotated );
frame.marker[id].visibility = true;
}
// Displace the wrist with the mouse, but don't rotate it.
for ( mrk = 0; mrk < nWristMarkers; mrk++ ) {
id = WristMarkerID[mrk];
AddVectors( frame.marker[id].position, position, WristBody[mrk] );
frame.marker[id].visibility = true;
}
// Output the position and orientation used to compute the simulated
// marker positions. This is for testing only.
fprintf( fp, "%f\t%f\t%f\t%f\t%f\t%f\t%f\t%f\n",
frame.time,
position[X], position[Y], position[Z],
Q[X], Q[Y], Q[Z], Q[M] );
return( true );
}
void drawGLScene(void)
{
int i, j;
float TmpShade;
MATRIX TmpMatrix;
VECTOR TmpVector, TmpNormal;
glClear (GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
glLoadIdentity ();
if (True == outlineSmooth)
{
glHint (GL_LINE_SMOOTH_HINT, GL_NICEST);
glEnable (GL_LINE_SMOOTH);
}
else
glDisable (GL_LINE_SMOOTH);
glTranslatef (0.0f, 0.0f, -2.0f);
glRotatef (modelAngle, 0.0f, 1.0f, 0.0f);
glGetFloatv (GL_MODELVIEW_MATRIX, TmpMatrix.Data);
glEnable (GL_TEXTURE_1D);
glBindTexture (GL_TEXTURE_1D, shaderTexture[0]);
glColor3f (1.0f, 1.0f, 1.0f);
glBegin (GL_TRIANGLES);
for (i = 0; i < polyNum; i++)
{
for (j = 0; j < 3; j++)
{
TmpNormal.X = polyData[i].Verts[j].Nor.X;
TmpNormal.Y = polyData[i].Verts[j].Nor.Y;
TmpNormal.Z = polyData[i].Verts[j].Nor.Z;
RotateVector (&TmpMatrix, &TmpNormal, &TmpVector);
Normalize (&TmpVector);
TmpShade = DotProduct (&TmpVector,&lightAngle);
if (TmpShade < 0.0f)
TmpShade = 0.0f;
glTexCoord1f (TmpShade);
glVertex3fv (&polyData[i].Verts[j].Pos.X);
}
}
glEnd ();
glDisable (GL_TEXTURE_1D);
if (True == outlineDraw)
{
glEnable (GL_BLEND);
glBlendFunc(GL_SRC_ALPHA,GL_ONE_MINUS_SRC_ALPHA);
glPolygonMode (GL_BACK, GL_LINE);
glLineWidth (outlineWidth);
glCullFace (GL_FRONT);
glDepthFunc (GL_LEQUAL);
glColor3fv (&outlineColor[0]);
glBegin (GL_TRIANGLES);
for (i = 0; i < polyNum; i++)
{
for (j = 0; j < 3; j++)
{
glVertex3fv (&polyData[i].Verts[j].Pos.X);
}
}
glEnd ();
glDepthFunc (GL_LESS);
glCullFace (GL_BACK);
glPolygonMode (GL_BACK, GL_FILL);
glDisable (GL_BLEND);
}
}
dVector dMatrix::TransformPlane (const dVector & localPlane) const
{
dVector tmp (RotateVector (localPlane));
tmp.m_w = localPlane.m_w - (localPlane % UnrotateVector (m_posit));
return tmp;
}
HRESULT CRotate2DTool::RotateSelectedObjects( float flDeltaX )
{
HRESULT hr = S_OK;
CRotateObject * pCTrans = NULL;
BOOL bHandled = FALSE;
static DWORD dwTime = - 1;
DWORD dwTimeNow;
CComBSTR bstr1, bstr2, bstr3;
CString tmpStr;
D3DVECTOR vec;
int i;
if (IsPressed('S'))
{
flDeltaX *= SLOWKEY_SLOWFACTOR;
}
m_fDeltaTotal += flDeltaX;
for( POSITION pos = m_TransformList.GetHeadPosition(); pos != NULL; )
{
bHandled = TRUE;
pCTrans = m_TransformList.GetNext( pos );
if(NULL != pCTrans)
{
for (i = 0; i < pCTrans->m_nPoints; i++)
{
vec.x = pCTrans->m_pPoints[i].x;
vec.y = 0.0f;
vec.z = pCTrans->m_pPoints[i].y;
RotateVector(m_fDeltaTotal, &vec);
vec.x += pCTrans->m_fCenter.x;
vec.z += pCTrans->m_fCenter.y;
hr = pCTrans->m_pVWFrame->InverseTransform(AXIS_Y, &vec.x, &vec.y, &vec.z, vec.x, vec.y, vec.z);
if(FAILED( hr )) goto EXIT_FAIL;
hr = pCTrans->m_pBoundary->SetVertexXY(i, vec.x, vec.z);
if(FAILED( hr )) goto EXIT_FAIL;
}
InvokeToolEvent(TOOLEVENT_BOUNDARYUPDATE, pCTrans->m_pBoundary, bstrNULL, bstrNULL, bstrNULL, VARIANT_FALSE);
dwTimeNow = GetTickCount();
if (dwTimeNow - dwTime > 200)
{
tmpStr.Format("%0.3f", m_fDeltaTotal / PI * 180.0f);
bstr1 = tmpStr;
tmpStr = "";
bstr2 = tmpStr;
bstr3 = tmpStr;
InvokeToolEvent(TOOLEVENT_2DOBJECTROTATED, pCTrans->m_pPickData, bstr1, bstr2, bstr3, VARIANT_TRUE);
dwTime = dwTimeNow;
}
}
}
EXIT_FAIL:
return hr;
}
bool NtlGetDestination(float fCurrentHeadingVectorX, float fCurrentHeadingVectorZ, float fSpeedInSecs,
float fCurrentPositionX, float fCurrentPositionY, float fCurrentPositionZ,
float fDestinationX, float fDestinationY, float fDestinationZ,
BYTE byMoveDirection, DWORD dwDeltaTimeInMillisecs,
float fAttackDistance,
float* pfNewHeadingVectorX, float* pfNewHeadingVectorZ,
float* pfDestinationX, float* pfDestinationY, float* pfDestinationZ,
float fTurningSpeedRatio)
{
if (0 == fCurrentHeadingVectorX && 0 == fCurrentHeadingVectorZ)
return false;
*pfNewHeadingVectorX = fCurrentHeadingVectorX;
*pfNewHeadingVectorZ = fCurrentHeadingVectorZ;
*pfDestinationX = fCurrentPositionX;
*pfDestinationY = fCurrentPositionY;
*pfDestinationZ = fCurrentPositionZ;
float fDistanceInTick = fSpeedInSecs * (float)dwDeltaTimeInMillisecs / 1000.0f;
switch (byMoveDirection)
{
case NTL_MOVE_NONE :
break;
case NTL_MOVE_F :
case NTL_MOVE_B :
// DON'T delete these lines permanently!
// 완전히 삭제하지 마시오!
// by YOSHIKI(2006-09-22)
// case NTL_MOVE_L :
// case NTL_MOVE_R :
// case NTL_MOVE_F_L :
// case NTL_MOVE_F_R :
// case NTL_MOVE_B_L :
// case NTL_MOVE_B_R :
{
float fMovementVectorX = 0.0f;
float fMovementVectorZ = 0.0f;
if (NTL_MOVE_F == byMoveDirection)
{
fMovementVectorX = fCurrentHeadingVectorX;
fMovementVectorZ = fCurrentHeadingVectorZ;
}
else if (NTL_MOVE_B == byMoveDirection)
{
RotateVector180Degree(fCurrentHeadingVectorX, fCurrentHeadingVectorZ, &fMovementVectorX, &fMovementVectorZ);
}
// DON'T delete these lines permanently!
// 완전히 삭제하지 마시오!
// by YOSHIKI(2006-09-22)
/* else if (NTL_MOVE_L == byMoveDirection)
{
RotateVector90DegreeToLeft(fCurrentHeadingVectorX, fCurrentHeadingVectorZ, &fMovementVectorX, &fMovementVectorZ);
}
else if (NTL_MOVE_R == byMoveDirection)
{
RotateVector90DegreeToRight(fCurrentHeadingVectorX, fCurrentHeadingVectorZ, &fMovementVectorX, &fMovementVectorZ);
}
else if (NTL_MOVE_F_L == byMoveDirection)
{
RotateVector45DegreeToLeft(fCurrentHeadingVectorX, fCurrentHeadingVectorZ, &fMovementVectorX, &fMovementVectorZ);
}
else if (NTL_MOVE_F_R == byMoveDirection)
{
RotateVector45DegreeToRight(fCurrentHeadingVectorX, fCurrentHeadingVectorZ, &fMovementVectorX, &fMovementVectorZ);
}
else if (NTL_MOVE_B_L == byMoveDirection)
{
RotateVector135DegreeToLeft(fCurrentHeadingVectorX, fCurrentHeadingVectorZ, &fMovementVectorX, &fMovementVectorZ);
}
else if (NTL_MOVE_B_R == byMoveDirection)
{
RotateVector135DegreeToRight(fCurrentHeadingVectorX, fCurrentHeadingVectorZ, &fMovementVectorX, &fMovementVectorZ);
}*/
float fSin = 0.0f;
float fCos = 0.0f;
if (false == NtlSin(fMovementVectorX, fMovementVectorZ, &fSin))
return true;
if (false == NtlCos(fMovementVectorX, fMovementVectorZ, &fCos))
return true;
float fDeltaX = fDistanceInTick * fCos;
float fDeltaZ = fDistanceInTick * fSin;
*pfDestinationX = fCurrentPositionX + fDeltaX;
*pfDestinationZ = fCurrentPositionZ + fDeltaZ;
}
break;
case NTL_MOVE_TURN_L :
case NTL_MOVE_TURN_R :
case NTL_MOVE_F_TURN_L :
case NTL_MOVE_F_TURN_R :
case NTL_MOVE_B_TURN_L :
case NTL_MOVE_B_TURN_R :
{
float fRadian = 2 * NTL_PI * ((float)dwDeltaTimeInMillisecs / (float)NTL_REQUIRED_TIME_FOR_COMPLETE_CIRCULAR_MOVEMENT_IN_MILLISECS);
fRadian *= fTurningSpeedRatio;
if (NTL_MOVE_TURN_L == byMoveDirection ||
NTL_MOVE_F_TURN_L == byMoveDirection ||
NTL_MOVE_B_TURN_L == byMoveDirection)
{
RotateVector(fCurrentHeadingVectorX, fCurrentHeadingVectorZ, fRadian, pfNewHeadingVectorX, pfNewHeadingVectorZ);
}
else if (NTL_MOVE_TURN_R == byMoveDirection ||
NTL_MOVE_F_TURN_R == byMoveDirection ||
NTL_MOVE_B_TURN_R == byMoveDirection)
{
RotateVector(fCurrentHeadingVectorX, fCurrentHeadingVectorZ, -fRadian, pfNewHeadingVectorX, pfNewHeadingVectorZ);
}
if (NTL_MOVE_TURN_L == byMoveDirection || NTL_MOVE_TURN_R == byMoveDirection)
{
// The position doesn't change.
}
else if (NTL_MOVE_F_TURN_L == byMoveDirection || NTL_MOVE_F_TURN_R == byMoveDirection ||
NTL_MOVE_B_TURN_L == byMoveDirection || NTL_MOVE_B_TURN_R == byMoveDirection)
{
float fRadius = 0.0f;
fRadius = fSpeedInSecs * ((float)NTL_REQUIRED_TIME_FOR_COMPLETE_CIRCULAR_MOVEMENT_IN_MILLISECS / (float)1000) / (2 * NTL_PI);
float fTempX = fCurrentHeadingVectorX * fRadius / sqrt(fCurrentHeadingVectorX * fCurrentHeadingVectorX + fCurrentHeadingVectorZ * fCurrentHeadingVectorZ);
float fTempZ = fCurrentHeadingVectorZ * fRadius / sqrt(fCurrentHeadingVectorX * fCurrentHeadingVectorX + fCurrentHeadingVectorZ * fCurrentHeadingVectorZ);
if (NTL_MOVE_F_TURN_L == byMoveDirection)
{
*pfDestinationX = fCurrentPositionX + fTempX * sin(fRadian) + fTempZ * (1 - cos(fRadian));
*pfDestinationZ = fCurrentPositionZ + fTempZ * sin(fRadian) - fTempX * (1 - cos(fRadian));
}
else if (NTL_MOVE_F_TURN_R == byMoveDirection)
{
*pfDestinationX = fCurrentPositionX + fTempX * sin(fRadian) - fTempZ * (1 - cos(fRadian));
*pfDestinationZ = fCurrentPositionZ + fTempZ * sin(fRadian) - fTempX * (1 - cos(fRadian));
}
else if (NTL_MOVE_B_TURN_L == byMoveDirection)
{
*pfDestinationX = fCurrentPositionX - fTempX * sin(fRadian) - fTempZ * (1 - cos(fRadian));
*pfDestinationZ = fCurrentPositionZ - fTempZ * sin(fRadian) - fTempX * (1 - cos(fRadian));
}
else if (NTL_MOVE_B_TURN_R == byMoveDirection)
{
*pfDestinationX = fCurrentPositionX - fTempX * sin(fRadian) + fTempZ * (1 - cos(fRadian));
*pfDestinationZ = fCurrentPositionZ - fTempZ * sin(fRadian) - fTempX * (1 - cos(fRadian));
}
}
}
break;
case NTL_MOVE_MOUSE_MOVEMENT :
{
float fDeltaX = fDestinationX - fCurrentPositionX;
float fDeltaZ = fDestinationZ - fCurrentPositionZ;
// [6/21/2006 zeroera] : 수정 : float 비교 오차 범위
if ( ( fabs( fDeltaX ) < 0.001f ) && ( fabs( fDeltaZ ) < 0.001f ) )
{
*pfNewHeadingVectorX = fCurrentHeadingVectorX;
*pfNewHeadingVectorZ = fCurrentHeadingVectorZ;
*pfDestinationX = fDestinationX;
*pfDestinationY = fDestinationY;
*pfDestinationZ = fDestinationZ;
return true;
}
CNtlVector vDelta(fDeltaX, 0, fDeltaZ);
float fDeltaLength = vDelta.Length();
vDelta.Normalize(fDeltaLength);
*pfNewHeadingVectorX = vDelta.x;
*pfNewHeadingVectorZ = vDelta.z;
if (fDeltaLength <= fDistanceInTick)
{
*pfDestinationX = fDestinationX;
*pfDestinationY = fDestinationY;
*pfDestinationZ = fDestinationZ;
}
else
{
vDelta *= fDistanceInTick;
*pfDestinationX = fCurrentPositionX + vDelta.x;
*pfDestinationY = fCurrentPositionY + (fDestinationY - fCurrentPositionY) * fDistanceInTick / fDeltaLength;
*pfDestinationZ = fCurrentPositionZ + vDelta.z;
}
}
break;
case NTL_MOVE_FOLLOW_MOVEMENT :
{
float fDeltaX = fDestinationX - fCurrentPositionX;
float fDeltaZ = fDestinationZ - fCurrentPositionZ;
// [6/21/2006 zeroera] : 수정 : float 비교 오차 범위
if ( ( fabs( fDeltaX ) < 0.001f ) && ( fabs( fDeltaZ ) < 0.001f ) )
{
*pfNewHeadingVectorX = fCurrentHeadingVectorX;
*pfNewHeadingVectorZ = fCurrentHeadingVectorZ;
*pfDestinationX = fCurrentPositionX;
*pfDestinationY = fCurrentPositionY;
*pfDestinationZ = fCurrentPositionZ;
return true;
}
CNtlVector vDelta(fDeltaX, 0, fDeltaZ);
float fDeltaLength = vDelta.Length();
vDelta.Normalize(fDeltaLength);
*pfNewHeadingVectorX = vDelta.x;
*pfNewHeadingVectorZ = vDelta.z;
if ( fDeltaLength <= fAttackDistance )
{
*pfDestinationX = fCurrentPositionX;
*pfDestinationY = fCurrentPositionY;
*pfDestinationZ = fCurrentPositionZ;
}
else if ( fDeltaLength > fAttackDistance && fDeltaLength < fAttackDistance + fDistanceInTick)
{
vDelta *= ( fDeltaLength - fAttackDistance * 0.99f );
*pfDestinationX = fCurrentPositionX + vDelta.x;
*pfDestinationY = fCurrentPositionY + (fDestinationY - fCurrentPositionY) * (fDeltaLength - fAttackDistance * 0.99f) / fDeltaLength;
*pfDestinationY = fDestinationY;
*pfDestinationZ = fCurrentPositionZ + vDelta.z;
}
else
{
vDelta *= fDistanceInTick;
*pfDestinationX = fCurrentPositionX + vDelta.x;
*pfDestinationY = fCurrentPositionY + (fDestinationY - fCurrentPositionY) * fDistanceInTick / fDeltaLength;
*pfDestinationZ = fCurrentPositionZ + vDelta.z;
}
}
break;
default :
return false;
break;
}
return true;
}
void Renderer::ProtoRender(int flags)
{
///
// std::vector<unsigned int> tmp_Indices;
// for (unsigned int i = 0; i < m_Indices.size(); i += 6)
// {
// tmp_Indices.push_back( m_Indices[ i + 0 ] );
// tmp_Indices.push_back( m_Indices[ i + 1 ] );
// tmp_Indices.push_back( m_Indices[ i + 2 ] );
// }
// m_Indices = tmp_Indices;
///
if ( flags & eCellShading_texture1D || flags & eCellShading_color )
{
sf::Vector3f lightAngle(0,0,1);
// Normalize( lightAngle );
float tmp_matrix[16];
glGetFloatv( GL_MODELVIEW_MATRIX, tmp_matrix );
m_sec_Vertices.clear();
m_sec_Normales.clear();
m_sec_TexCoords.clear();
m_sec_Colors.clear();
m_sec_TexCoords1D.clear();
for (unsigned int i = 0; i < m_Indices.size(); ++i)
// for (unsigned int i = 0; i < m_Indices2.size(); ++i)
{
#define D_IDX m_Indices[i]
// #define D_IDX m_Indices2[i]
m_sec_Vertices.push_back( m_Vertices[ D_IDX ] );
if ( flags & eNormal )
m_sec_Normales.push_back( m_Normales[ D_IDX ] );
if ( flags & eTexture )
m_sec_TexCoords.push_back( m_TexCoords[ D_IDX ] );
{
sf::Vector3f tmp_vector;
RotateVector( tmp_matrix, m_Normales[ D_IDX ], tmp_vector );
Normalize( tmp_vector );
float tmp_shade = DotProduct( tmp_vector, lightAngle );
if (tmp_shade < 0.0f)
tmp_shade = 0.0f;
if ( flags & eCellShading_texture1D )
m_sec_TexCoords1D.push_back( tmp_shade );
if ( flags & eCellShading_color )
m_sec_Colors.push_back( sf::Vector3f(tmp_shade, tmp_shade, tmp_shade) );
}
#undef D_IDX
} // for (unsigned int i = 0; i < m_Indices.size(); ++i)
}
{
{
glEnableClientState( GL_VERTEX_ARRAY );
if ( flags & eCellShading_texture1D || flags & eCellShading_color )
glVertexPointer( 3, GL_FLOAT, 0, &(m_sec_Vertices[0].x) );
else
glVertexPointer( 3, GL_FLOAT, 0, &(m_Vertices[0].x) );
}
if ( flags & eNormal )
{
glEnableClientState( GL_NORMAL_ARRAY );
glEnable(GL_LIGHTING);
if ( flags & eCellShading_texture1D || flags & eCellShading_color )
glNormalPointer( GL_FLOAT, 0, &(m_sec_Normales[0].x) );
else
glNormalPointer( GL_FLOAT, 0, &(m_Normales[0].x) );
}
else
glDisable(GL_LIGHTING);
if ( flags & eCellShading_color )
{
glEnableClientState( GL_COLOR_ARRAY );
glColorPointer( 3, GL_FLOAT, 0, &(m_sec_Colors[0].x) );
}
if ( flags & eCellShading_texture1D )
{
glClientActiveTexture(GL_TEXTURE1);
glActiveTextureARB(GL_TEXTURE1_ARB);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glEnable(GL_TEXTURE_1D);
m_Tex1D.Bind();
glTexCoordPointer( 1, GL_FLOAT, 0, &(m_sec_TexCoords1D[0]) );
}
if ( flags & eTexture )
{
glClientActiveTexture(GL_TEXTURE0);
glActiveTextureARB(GL_TEXTURE0_ARB);
glEnableClientState(GL_TEXTURE_COORD_ARRAY);
glEnable(GL_TEXTURE_2D);
sf::Texture::bind( m_pTexture );
m_pTexture->setSmooth(false);
if ( flags & eCellShading_texture1D || flags & eCellShading_color )
glTexCoordPointer( 2, GL_FLOAT, 0, &(m_sec_TexCoords[0].x) );
else
glTexCoordPointer( 2, GL_FLOAT, 0, &(m_TexCoords[0].x) );
}
if ( flags & eCellShading_texture1D || flags & eCellShading_color )
glDrawArrays( GL_TRIANGLES, 0, m_sec_Vertices.size() );
else
glDrawElements( GL_TRIANGLES, m_Indices.size(), GL_UNSIGNED_INT, &(m_Indices[0]) );
// glDrawElements( GL_TRIANGLES, m_Indices2.size(), GL_UNSIGNED_INT, &(m_Indices2[0]) );
{
glDisableClientState( GL_VERTEX_ARRAY );
if ( flags & eNormal )
glDisableClientState( GL_NORMAL_ARRAY );
if ( flags & eCellShading_color )
glDisableClientState( GL_COLOR_ARRAY );
if ( flags & eCellShading_texture1D )
{
glClientActiveTexture(GL_TEXTURE1);
glActiveTexture(GL_TEXTURE1);
glDisable(GL_TEXTURE_1D);
glDisableClientState( GL_TEXTURE_COORD_ARRAY );
}
glClientActiveTexture( GL_TEXTURE0 );
glActiveTexture(GL_TEXTURE0);
if ( flags & eTexture )
{
glDisable(GL_TEXTURE_2D);
glDisableClientState( GL_TEXTURE_COORD_ARRAY );
}
}
}
if ( flags & eCellShading_bound )
{
{
glDisable(GL_LIGHTING);
glEnable(GL_CULL_FACE);
glColor3ub(0,0,0);
{
glPolygonMode(GL_FRONT_AND_BACK, GL_LINE);
// glCullFace(GL_BACK);
glCullFace(GL_FRONT);
}
glDepthFunc (GL_LEQUAL);
glLineWidth(3.0f);
}
glEnableClientState( GL_VERTEX_ARRAY );
glVertexPointer( 3, GL_FLOAT, 0, &(m_Vertices[0].x) );
glDrawElements( GL_TRIANGLES, m_Indices.size(),
GL_UNSIGNED_INT, &(m_Indices[0]) );
// glDrawElements( GL_TRIANGLES, m_Indices2.size(),
// GL_UNSIGNED_INT, &(m_Indices2[0]) );
glDisableClientState( GL_VERTEX_ARRAY );
{
glLineWidth(1.0f);
glDepthFunc(GL_LESS);
glCullFace(GL_BACK);
{
glPolygonMode(GL_FRONT_AND_BACK, GL_FILL);
}
glDisable(GL_CULL_FACE);
}
} // if ( flags & eCellShading_bound )
/**
{
glColor3f(1,0,1);
glPointSize(10);
glEnableClientState( GL_VERTEX_ARRAY );
glVertexPointer( 3, GL_FLOAT, 0, &(m_Vertices[0].x) );
glDrawArrays( GL_POINTS, 0, m_Vertices.size() );
glDisableClientState( GL_VERTEX_ARRAY );
}
//*/
/**
{
m_sec_Vertices.clear();
for (unsigned int i = 0; i < m_Vertices.size(); ++i)
{
m_sec_Vertices.push_back( m_Vertices[ i ] );
m_sec_Vertices.push_back( m_Vertices[ i ] + m_Normales[ i ] );
}
glColor3f(1,0,1);
// glPointSize(10);
glEnableClientState( GL_VERTEX_ARRAY );
glVertexPointer( 3, GL_FLOAT, 0, &(m_sec_Vertices[0].x) );
glDrawArrays( GL_LINES, 0, m_sec_Vertices.size() );
glDisableClientState( GL_VERTEX_ARRAY );
}
//*/
}
void AddDecalToHModel(VECTORCH *normalPtr, VECTORCH *positionPtr, SECTION_DATA *sectionDataPtr)
{
enum DECAL_ID decalID;
OBJECT_DECAL *decalPtr;
MATRIXCH orientation;
VECTORCH v;
int decalSize;
int theta,sin,cos;
if (!LocalDetailLevels.DrawHierarchicalDecals) return;
theta = FastRandom()&4095;
sin = GetSin(theta);
cos = GetCos(theta);
LOCALASSERT(sectionDataPtr->NumberOfDecals <= MAX_NO_OF_DECALS_PER_HIERARCHICAL_SECTION);
{
MATRIXCH mat = sectionDataPtr->SecMat;
VECTORCH n = *normalPtr;
TransposeMatrixCH(&mat);
RotateVector(&n,&mat);
MakeMatrixFromDirection(&n,&orientation);
v = *positionPtr;
v.vx -= sectionDataPtr->World_Offset.vx;
v.vy -= sectionDataPtr->World_Offset.vy;
v.vz -= sectionDataPtr->World_Offset.vz;
RotateVector(&v,&mat);
}
{
SECTION *sectionPtr = sectionDataPtr->sempai;
if(sectionPtr->flags§ion_sprays_blood)
{
decalID = DECAL_HUMAN_BLOOD;
}
else if(sectionPtr->flags§ion_sprays_predoblood)
{
decalID = DECAL_PREDATOR_BLOOD;
}
else if(sectionPtr->flags§ion_sprays_acid)
{
decalID = DECAL_ALIEN_BLOOD;
}
else
{
decalID = DECAL_BULLETHOLE;
}
}
decalPtr = §ionDataPtr->Decals[sectionDataPtr->NextDecalToUse];
if (sectionDataPtr->NextDecalToUse >= MAX_NO_OF_DECALS_PER_HIERARCHICAL_SECTION-1)
{
sectionDataPtr->NextDecalToUse = 0;
}
else
{
sectionDataPtr->NextDecalToUse++;
}
if (sectionDataPtr->NumberOfDecals < MAX_NO_OF_DECALS_PER_HIERARCHICAL_SECTION)
{
sectionDataPtr->NumberOfDecals++;
}
decalPtr->DecalID = decalID;
decalSize = 40;//DecalDescription[decalID].MaxSize;
decalPtr->Centre = v;
decalPtr->Vertices[0].vx = MUL_FIXED(-decalSize,cos) - MUL_FIXED(-decalSize,sin);
decalPtr->Vertices[0].vy = MUL_FIXED(-decalSize,sin) + MUL_FIXED(-decalSize,cos);
decalPtr->Vertices[0].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Vertices[0]),&orientation);
decalPtr->Vertices[0].vx += v.vx;
decalPtr->Vertices[0].vy += v.vy;
decalPtr->Vertices[0].vz += v.vz;
decalPtr->Vertices[1].vx = MUL_FIXED(decalSize,cos) - MUL_FIXED(-decalSize,sin);
decalPtr->Vertices[1].vy = MUL_FIXED(decalSize,sin) + MUL_FIXED(-decalSize,cos);
decalPtr->Vertices[1].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Vertices[1]),&orientation);
decalPtr->Vertices[1].vx += v.vx;
decalPtr->Vertices[1].vy += v.vy;
decalPtr->Vertices[1].vz += v.vz;
decalPtr->Vertices[2].vx = MUL_FIXED(decalSize,cos) - MUL_FIXED(decalSize,sin);
decalPtr->Vertices[2].vy = MUL_FIXED(decalSize,sin) + MUL_FIXED(decalSize,cos);
decalPtr->Vertices[2].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Vertices[2]),&orientation);
decalPtr->Vertices[2].vx += v.vx;
decalPtr->Vertices[2].vy += v.vy;
decalPtr->Vertices[2].vz += v.vz;
decalPtr->Vertices[3].vx = MUL_FIXED(-decalSize,cos) - MUL_FIXED(decalSize,sin);
decalPtr->Vertices[3].vy = MUL_FIXED(-decalSize,sin) + MUL_FIXED(decalSize,cos);
decalPtr->Vertices[3].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Vertices[3]),&orientation);
decalPtr->Vertices[3].vx += v.vx;
decalPtr->Vertices[3].vy += v.vy;
decalPtr->Vertices[3].vz += v.vz;
}
void AddDecal(enum DECAL_ID decalID, VECTORCH *normalPtr, VECTORCH *positionPtr, int moduleIndex)
{
DECAL *decalPtr;
MATRIXCH orientation;
int decalSize;
int theta = FastRandom()&4095;
int sin = GetSin(theta);
int cos = GetCos(theta);
MakeMatrixFromDirection(normalPtr,&orientation);
if (decalID == DECAL_BULLETHOLE)
{
MakeImpactSmoke(&orientation,positionPtr);
}
decalPtr = AllocateDecal();
decalPtr->DecalID = decalID;
decalPtr->Centre = *positionPtr;
if(DecalDescription[decalID].GrowthRate)
{
decalSize = ONE_FIXED;
decalPtr->Direction[0].vx = MUL_FIXED(-decalSize,cos) - MUL_FIXED(-decalSize,sin);
decalPtr->Direction[0].vy = MUL_FIXED(-decalSize,sin) + MUL_FIXED(-decalSize,cos);
decalPtr->Direction[0].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Direction[0]),&orientation);
Normalise(&(decalPtr->Direction[0]));
decalPtr->Direction[1].vx = MUL_FIXED(decalSize,cos) - MUL_FIXED(-decalSize,sin);
decalPtr->Direction[1].vy = MUL_FIXED(decalSize,sin) + MUL_FIXED(-decalSize,cos);
decalPtr->Direction[1].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Direction[1]),&orientation);
Normalise(&(decalPtr->Direction[1]));
decalPtr->Direction[2].vx = MUL_FIXED(decalSize,cos) - MUL_FIXED(decalSize,sin);
decalPtr->Direction[2].vy = MUL_FIXED(decalSize,sin) + MUL_FIXED(decalSize,cos);
decalPtr->Direction[2].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Direction[2]),&orientation);
Normalise(&(decalPtr->Direction[2]));
decalPtr->Direction[3].vx = MUL_FIXED(-decalSize,cos) - MUL_FIXED(decalSize,sin);
decalPtr->Direction[3].vy = MUL_FIXED(-decalSize,sin) + MUL_FIXED(decalSize,cos);
decalPtr->Direction[3].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Direction[3]),&orientation);
Normalise(&(decalPtr->Direction[3]));
decalPtr->CurrentSize = DecalDescription[decalID].MinSize;
decalPtr->TargetSize = DecalDescription[decalID].MaxSize;
if (DecalDescription[decalID].CanCombine) decalPtr->TargetSize/=4;
}
else
{
decalSize = DecalDescription[decalID].MinSize;
decalPtr->Vertices[0].vx = MUL_FIXED(-decalSize,cos) - MUL_FIXED(-decalSize,sin);
decalPtr->Vertices[0].vy = MUL_FIXED(-decalSize,sin) + MUL_FIXED(-decalSize,cos);
decalPtr->Vertices[0].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Vertices[0]),&orientation);
decalPtr->Vertices[0].vx += positionPtr->vx;
decalPtr->Vertices[0].vy += positionPtr->vy;
decalPtr->Vertices[0].vz += positionPtr->vz;
decalPtr->Vertices[1].vx = MUL_FIXED(decalSize,cos) - MUL_FIXED(-decalSize,sin);
decalPtr->Vertices[1].vy = MUL_FIXED(decalSize,sin) + MUL_FIXED(-decalSize,cos);
decalPtr->Vertices[1].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Vertices[1]),&orientation);
decalPtr->Vertices[1].vx += positionPtr->vx;
decalPtr->Vertices[1].vy += positionPtr->vy;
decalPtr->Vertices[1].vz += positionPtr->vz;
decalPtr->Vertices[2].vx = MUL_FIXED(decalSize,cos) - MUL_FIXED(decalSize,sin);
decalPtr->Vertices[2].vy = MUL_FIXED(decalSize,sin) + MUL_FIXED(decalSize,cos);
decalPtr->Vertices[2].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Vertices[2]),&orientation);
decalPtr->Vertices[2].vx += positionPtr->vx;
decalPtr->Vertices[2].vy += positionPtr->vy;
decalPtr->Vertices[2].vz += positionPtr->vz;
decalPtr->Vertices[3].vx = MUL_FIXED(-decalSize,cos) - MUL_FIXED(decalSize,sin);
decalPtr->Vertices[3].vy = MUL_FIXED(-decalSize,sin) + MUL_FIXED(decalSize,cos);
decalPtr->Vertices[3].vz = DECAL_Z_OFFSET;
RotateVector(&(decalPtr->Vertices[3]),&orientation);
decalPtr->Vertices[3].vx += positionPtr->vx;
decalPtr->Vertices[3].vy += positionPtr->vy;
decalPtr->Vertices[3].vz += positionPtr->vz;
}
decalPtr->ModuleIndex = moduleIndex;
switch (decalID)
{
case DECAL_HUMAN_BLOOD:
case DECAL_PREDATOR_BLOOD:
case DECAL_ANDROID_BLOOD:
{
decalPtr->UOffset = (FastRandom()&1)*(32<<16);
if (normalPtr->vy<-32768)
{
decalPtr->UOffset+=64<<16;
}
else
{
decalPtr->TargetSize = DecalDescription[decalID].MaxSize;
decalPtr->CurrentSize = decalPtr->TargetSize-1;
}
break;
}
default:
{
decalPtr->UOffset = 0;
break;
}
}
}
//Baking
//using all rotations scales positions etc, generates the list of triangles that
//is represented by the rendered shapes.
//similar to instance baking.
//remember that this function needed to always reflect what render() does but inverted.
void B9SupportStructure::BakeToInstanceGeometry()
{
unsigned int t;
unsigned short int v;
Triangle3D* pNewTri;
QVector3D topScale;
QVector3D topPos;
QVector3D midScale;
QVector3D midPos;
QVector3D bottomScale;
QVector3D bottomPos;
//first bake the top
topScale = QVector3D(topRadius*2.0,topRadius*2.0,topLength + topPenetration);
topPos = QVector3D((topPenetrationPoint.x() + topPivot.x())*0.5
,(topPenetrationPoint.y() + topPivot.y())*0.5
,(topPenetrationPoint.z() + topPivot.z())*0.5);
if(topAttachShape != NULL)
for(t = 0; t < topAttachShape->GetTriangles()->size(); t++)
{
pNewTri = new Triangle3D(topAttachShape->GetTriangles()->at(t));
for(v=0;v<3;v++)
{
//scale triangle vertices 1st
pNewTri->vertex[v] *= topScale;
//Rotate 2nd
//dont deal with y - not needed in rendering or baking
RotateVector(pNewTri->vertex[v], topThetaX, QVector3D(1,0,0));//x
RotateVector(pNewTri->vertex[v], topThetaZ, QVector3D(0,0,1));//z
//Translate 3rd into global space
pNewTri->vertex[v] += topPos;
pNewTri->vertex[v] += instanceParent->GetPos();
}
//Update the triangle bounds and normal
pNewTri->UpdateBounds();
pNewTri->UpdateNormalFromGeom();
//Add To List
instanceParent->triList.push_back(pNewTri);
}
//second bake the middle
midScale = QVector3D(midRadius*2.0,midRadius*2.0,midLength);
midPos = QVector3D((topMidExtensionPoint.x() + bottomMidExtensionPoint.x())*0.5
,(topMidExtensionPoint.y() + bottomMidExtensionPoint.y())*0.5
,(topMidExtensionPoint.z() + bottomMidExtensionPoint.z())*0.5);
if(midAttachShape != NULL)
for(t = 0; t < midAttachShape->GetTriangles()->size(); t++)
{
pNewTri = new Triangle3D(midAttachShape->GetTriangles()->at(t));
for(v=0;v<3;v++)
{
//scale triangle vertices 1st
pNewTri->vertex[v] *= midScale;
//Rotate 2nd
//dont deal with y - not needed in rendering or baking
RotateVector(pNewTri->vertex[v], midThetaX, QVector3D(1,0,0));//x
RotateVector(pNewTri->vertex[v], midThetaZ, QVector3D(0,0,1));//z
//Translate 3rd into global space
pNewTri->vertex[v] += midPos;
pNewTri->vertex[v] += instanceParent->GetPos();
}
//Update the triangle bounds and normal
pNewTri->UpdateBounds();
pNewTri->UpdateNormalFromGeom();
//Add To List
instanceParent->triList.push_back(pNewTri);
}
//third bake the bottom
bottomScale = QVector3D(bottomRadius*2.0,bottomRadius*2.0,bottomLength + bottomPenetration);
bottomPos = QVector3D((bottomPenetrationPoint.x() + bottomPivot.x())*0.5
,(bottomPenetrationPoint.y() + bottomPivot.y())*0.5
,(bottomPenetrationPoint.z() + bottomPivot.z())*0.5);
if(bottomAttachShape != NULL)
for(t = 0; t < bottomAttachShape->GetTriangles()->size(); t++)
{
pNewTri = new Triangle3D(bottomAttachShape->GetTriangles()->at(t));
for(v=0;v<3;v++)
{
//scale triangle vertices 1st
pNewTri->vertex[v] *= bottomScale;
//Rotate 2nd
//dont deal with y - not needed in rendering or baking
RotateVector(pNewTri->vertex[v], bottomThetaX+180, QVector3D(1,0,0));//x
RotateVector(pNewTri->vertex[v], bottomThetaZ, QVector3D(0,0,1));//z
//Translate 3rd into global space
pNewTri->vertex[v] += bottomPos;
pNewTri->vertex[v] += instanceParent->GetPos();
}
//Update the triangle bounds and normal
pNewTri->UpdateBounds();
pNewTri->UpdateNormalFromGeom();
//Add To List
instanceParent->triList.push_back(pNewTri);
}
}
VOID CDrawingObject::Translate(FLOAT fdx, FLOAT fdy, BOOL bInertia)
{
m_fdX = fdx;
m_fdY = fdy;
FLOAT fOffset[2];
fOffset[0] = m_fOX - m_fdX;
fOffset[1] = m_fOY - m_fdY;
// Translate based on the offset caused by rotating
// and scaling in order to vary rotational behavior depending
// on where the manipulation started
if(m_fAngleApplied != 0.0f)
{
FLOAT v1[2];
v1[0] = GetCenterX() - fOffset[0];
v1[1] = GetCenterY() - fOffset[1];
FLOAT v2[2];
RotateVector(v1, v2, m_fAngleApplied);
m_fdX += v2[0] - v1[0];
m_fdY += v2[1] - v1[1];
}
if(m_fFactor != 1.0f)
{
FLOAT v1[2];
v1[0] = GetCenterX() - fOffset[0];
v1[1] = GetCenterY() - fOffset[1];
FLOAT v2[2];
v2[0] = v1[0] * m_fFactor;
v2[1] = v1[1] * m_fFactor;
m_fdX += v2[0] - v1[0];
m_fdY += v2[1] - v1[1];
}
m_fXI += m_fdX;
m_fYI += m_fdY;
// The following code handles the effect for
// bouncing off the edge of the screen. It takes
// the x,y coordinates computed by the inertia processor
// and calculates the appropriate render coordinates
// in order to achieve the effect.
if (bInertia)
{
ComputeElasticPoint(m_fXI, &m_fXR, m_iBorderX);
ComputeElasticPoint(m_fYI, &m_fYR, m_iBorderY);
}
else
{
m_fXR = m_fXI;
m_fYR = m_fYI;
// Make sure it stays on screen
EnsureVisible();
}
}
BOOL CShockWaveEffect::Process(FLOAT time)
{
FLOAT fDeltaTime, fProcessedTime;
BOOL bRet, bRender;
if(!PreProcess(time, bRet, bRender, fDeltaTime, fProcessedTime))
{
if(!bRender) SetNotRenderAtThisFrame();
return bRet;
}
//color 정보
FLOAT fadeVal = this->GetFadeValue(fProcessedTime);
if(fadeVal == 1.0f && m_bColorWhite)
{
//nothing
}
else
{
m_vectorGFXColor.clear();
m_vectorGFXColor.reserve(m_iSplitCount*2);
UBYTE ubColElement = UBYTE(255.0f * fadeVal);
GFXColor col;
if( m_eBlendType == PBT_BLEND || m_eBlendType == PBT_ADDALPHA )
{
col = 0xFFFFFF00 | ubColElement; //fade by alpha
}
else if( m_eBlendType == PBT_ADD )
{
col = (ubColElement << 24) | (ubColElement << 16) | (ubColElement << 8) | 0x000000FF; //fade by color
}
else col = 0xFFFFFFFF; //fade 의미 없음.
for(INDEX i=0; i<m_iSplitCount; ++i)
{
m_vectorGFXColor.push_back(col);
m_vectorGFXColor.push_back(col);
}
}
//wave 정보
m_ssHeight.Prepare();
FLOAT3D height(0, m_ssHeight.Value(fProcessedTime), 0);
FLOAT radiusInner = 0, radiusOuter = 0;
m_ssRadius.Prepare();
m_ssWidth.Prepare();
if(m_bInnerBasis)
{
radiusInner = m_ssRadius.Value(fProcessedTime);
radiusOuter = radiusInner + m_ssWidth.Value(fProcessedTime);
}
else
{
radiusOuter = m_ssRadius.Value(fProcessedTime);
radiusInner = radiusOuter - m_ssWidth.Value(fProcessedTime);
}
//tag의 정보
if(m_ePosition == EOTT_ALWAYS) m_vTagPos = m_ptrAttachTag->CurrentTagInfo().m_vPos;
if(m_eRotation == EOTT_ALWAYS) m_qTagRot = m_ptrAttachTag->CurrentTagInfo().m_qRot;
//gfx vertex fill, every frame
GFXVertex vtx;
FLOAT3D pos;
const FLOAT angleUnit = 2 * PI / m_iSplitCount;
FLOAT angle = 0;
INDEX index = 0;
m_vectorGFXVertex.clear();
m_vectorGFXColor.reserve(m_iSplitCount*2);
for(INDEX i=0; i<m_iSplitCount; ++i)
{
index = 2*i+0;
pos = m_vectorMoveVector[index] * radiusOuter + height;
RotateVector(pos, m_qTagRot);
pos += m_vTagPos;
vtx.x = pos(1); vtx.y = pos(2); vtx.z = pos(3);
m_vectorGFXVertex.push_back(vtx);
++index;
pos = m_vectorMoveVector[index] * radiusInner;
RotateVector(pos, m_qTagRot);
pos += m_vTagPos;
vtx.x = pos(1); vtx.y = pos(2); vtx.z = pos(3);
m_vectorGFXVertex.push_back(vtx);
angle += angleUnit;
}
PostProcess();
return TRUE;
}
/* The main drawing function. */
void DrawGLScene()
{
int i, j; // Looping Variables
float TmpShade; // Temporary Shader Value
MATRIX TmpMatrix; // Temporary MATRIX Structure
VECTOR TmpVector, TmpNormal; // Temporary VECTOR Structures
glClear (GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT); // Clear The Buffers
glLoadIdentity (); // Reset The Matrix
// Check To See If We Want Anti-Aliased Lines
if (outlineSmooth) {
glHint (GL_LINE_SMOOTH_HINT, GL_NICEST); // Use The Good Calculations
glEnable (GL_LINE_SMOOTH); // Enable Anti-Aliasing
} else {
// We Don't Want Smooth Lines
// Disable Anti-Aliasing
glDisable (GL_LINE_SMOOTH);
}
// Move 2 Units Away From The Screen
glTranslatef (0.0f, 0.0f, -2.0f);
// Rotate The Model On It's Y-Axis
glRotatef (modelAngle, 0.0f, 1.0f, 0.0f);
InitGL(800, 600);
// Get The Generated Matrix
glGetFloatv(GL_MODELVIEW_MATRIX, TmpMatrix.Data);
// Cel-Shading Code //
// Enable 1D Texturing
glDisable (GL_TEXTURE_3D);
glDisable (GL_TEXTURE_2D);
glEnable (GL_TEXTURE_1D);
// Bind to current texture
glBindTexture (GL_TEXTURE_1D, shaderTexture[0]);
// Set colour of model
glColor3f (0.0, 0.0, 0.0);
glBegin (GL_TRIANGLES);
for (i = 0; i < polyNum; i++) {
for (j = 0; j < 3; j++) {
TmpNormal.X = polyData[i].Verts[j].Nor.X; // Fill Up The TmpNormal Structure With
TmpNormal.Y = polyData[i].Verts[j].Nor.Y; // The Current Vertices' Normal Values
TmpNormal.Z = polyData[i].Verts[j].Nor.Z;
RotateVector (TmpMatrix, TmpNormal, TmpVector); // Rotate This By The Matrix
Normalize (TmpVector); // Normalize The New Normal
TmpShade = DotProduct (TmpVector, lightAngle); // Calculate The Shade Value
if (TmpShade < 0.0f)
TmpShade = 0.0f; // Clamp The Value to 0 If Negative
glTexCoord1f (TmpShade); // Set The Texture Co-ordinate As The Shade Value
glVertex3fv(&polyData[i].Verts[j].Pos.X); // Send The Vertex Position
}
}
glEnd();
glDisable (GL_TEXTURE_1D); // Disable 1D Textures
// Outline Code //
// Check To See If We Want To Draw The Outline
if (outlineDraw) {
glEnable (GL_BLEND);
glBlendFunc(GL_SRC_ALPHA, GL_ONE_MINUS_SRC_ALPHA);
glPolygonMode (GL_BACK, GL_LINE); // Draw Backfacing Polygons As Wireframes
glLineWidth (outlineWidth); // Set The Line Width
glCullFace (GL_FRONT); // Don't Draw Any Front-Facing Polygons
glDepthFunc (GL_LEQUAL); // Change The Depth Mode
glColor3fv (&outlineColor[0]); // Set The Outline Color
glBegin (GL_TRIANGLES);
for (i = 0; i < polyNum; i++) {
for (j = 0; j < 3; j++) {
glVertex3fv (&polyData[i].Verts[j].Pos.X); // Send The Vertex Position
}
}
glEnd();
glDepthFunc (GL_LESS); // Reset The Depth-Testing Mode
glCullFace (GL_BACK); // Reset The Face To Be Culled
glPolygonMode (GL_BACK, GL_FILL); // Reset Back-Facing Polygon Drawing Mode
glDisable (GL_BLEND); // Disable Blending
}
// since this is double buffered, swap the buffers to display what just got drawn.
//glutSwapBuffers();
// Check To See If Rotation Is Enabled
if (modelRotate) {
modelAngle += 2.0f;
}
}
void CBody::AdjustPitch(float radianAngle)
{
D3DXVECTOR3 right = RotateVector(D3DXVECTOR3(1.0f, 0.0f, 0.0f));
AdjustAxisAngle(right, radianAngle);
}
dVector dMatrix::TransformVector (const dVector & v) const
{
return m_posit + RotateVector (v);
}
GLvoid NEHE37::DrawGLScene(){
float TmpShade;
MATRIX37 TmpMatrix;
VECTOR37 TmpVector, TmpNormal;
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
glLoadIdentity();
// Check To See If We Want Anti-Aliased Lines
if(outlineSmooth){
glHint (GL_LINE_SMOOTH_HINT, GL_NICEST);
glEnable (GL_LINE_SMOOTH);
}
else{
glDisable (GL_LINE_SMOOTH);
}
glTranslatef (0.0f, 0.0f, -2.0f);
glRotatef (modelAngle, 0.0f, 1.0f, 0.0f);
glGetFloatv (GL_MODELVIEW_MATRIX, TmpMatrix.Data);
// Cel-Shading Code
glEnable (GL_TEXTURE_1D);
glBindTexture (GL_TEXTURE_1D, shaderTexture[0]);
glColor3f (1.0f, 1.0f, 1.0f);
glBegin (GL_TRIANGLES);
for (int i = 0; i < polyNum; i++){
for (int j = 0; j < 3; j++){
TmpNormal.X = polyData[i].Verts[j].Nor.X;
TmpNormal.Y = polyData[i].Verts[j].Nor.Y;
TmpNormal.Z = polyData[i].Verts[j].Nor.Z;
RotateVector (TmpMatrix, TmpNormal, TmpVector);
Normalize (TmpVector);
TmpShade = DotProduct (TmpVector, lightAngle);
if (TmpShade < 0.0f)
TmpShade = 0.0f;
glTexCoord1f (TmpShade);
glVertex3fv (&polyData[i].Verts[j].Pos.X);
}
}
glEnd ();
glDisable (GL_TEXTURE_1D);
// Outline Code
if (outlineDraw){
glEnable (GL_BLEND);
glBlendFunc (GL_SRC_ALPHA ,GL_ONE_MINUS_SRC_ALPHA);
glPolygonMode (GL_BACK, GL_LINE);
glLineWidth (outlineWidth);
glCullFace (GL_FRONT);
glDepthFunc (GL_LEQUAL);
glColor3fv (&outlineColor[0]);
glBegin (GL_TRIANGLES);
for (int i = 0; i < polyNum; i++){
for (int j = 0; j < 3; j++){
glVertex3fv (&polyData[i].Verts[j].Pos.X);
}
}
glEnd ();
glDepthFunc (GL_LESS);
glCullFace (GL_BACK);
glPolygonMode (GL_BACK, GL_FILL);
glDisable (GL_BLEND);
}
/*
//draw FPS text
glDisable(GL_TEXTURE_2D);
glLoadIdentity ();
glTranslatef(0.0f,0.0f,-1.0f);
glColor3f(0.8f,0.8f,0.8f);//set text color
computeFPS();
Utils::drawText(-0.54f,-0.4f, GLUT_BITMAP_HELVETICA_12, FPSstr);
glEnable(GL_TEXTURE_2D);
*/
glutSwapBuffers();
//handle key input
if(specialKeys[GLUT_KEY_DOWN]){
outlineWidth--;
specialKeys[GLUT_KEY_DOWN] = FALSE;
}
if(specialKeys[GLUT_KEY_UP]){
outlineWidth++;
specialKeys[GLUT_KEY_UP] = FALSE;
}
if(keys[' ']){
modelRotate = !modelRotate; // Toggle Model Rotation On/Off
keys[' '] = false;
}
if(keys['1']){
outlineDraw = !outlineDraw; // Toggle Outline Drawing On/Off
keys['1'] = false;
}
if(keys['2']){
outlineSmooth = !outlineSmooth; // Toggle Anti-Aliasing On/Off
keys['2'] = false;
}
if (modelRotate)
modelAngle += 1.0f;
}
/* cambia angolo di ROLL (rollio) */
void Camera::roll(GLfloat angle)
{
up = Normalize(RotateVector(angle,view,up));
}
void RubiksCube::Grab(VECTOR touchVector)
{
tvf32[0]+=floattof32(touchVector.X);
tvf32[1]+=floattof32(touchVector.Y);
tvf32[2]=0;
if(f32toint(sqrtf32(mulf32(tvf32[0],tvf32[0])+mulf32(tvf32[1],tvf32[1])+mulf32(tvf32[2],tvf32[2])))>5)
{
VECTOR upv, rightv, rotduv, rotdrv;
int32 uvf32[3];//up vector as f32
int32 rvf32[3];//right vector
int32 magup, magright;
m4x4 grabMatrix;//container for the Position Matrix
vectorFromSide(upv, rightv, clicked[0]);
//printf ("Initial Vector:\n %f, ", tmpv.X);
//printf("%f, ", tmpv.Y);
//printf("%f\n", tmpv.Z);
glGetFixed(GL_GET_MATRIX_POSITION, (int32*)&grabMatrix);
glMatrixMode(GL_MODELVIEW);
//rotate the up vector thru the projection matrix
//and cast it to f32
RotateVector(grabMatrix, upv, rotduv);
uvf32[0]=floattof32(rotduv.X);
uvf32[1]=floattof32(rotduv.Y);
uvf32[2]=floattof32(rotduv.Z);
//rinse and repeat with the right vector
RotateVector(grabMatrix, rightv, rotdrv);
rvf32[0]=floattof32(rotdrv.X);
rvf32[1]=floattof32(rotdrv.Y);
rvf32[2]=floattof32(rotdrv.Z);
if(controlStyle)
{
int32 suvf32[3];
int32 srvf32[3];
suvf32[0]=0;
suvf32[1]=inttof32(1);
suvf32[2]=0;
srvf32[0]=inttof32(1);
srvf32[1]=0;
srvf32[2]=0;
magup=dotf32(uvf32, suvf32);
magright=dotf32(uvf32, srvf32);
if(abs(magup)>abs(magright))
{
for(int i=0; i<3; i++)
{
if(magup>0)
{
rvf32[i]=srvf32[i];
uvf32[i]=suvf32[i];
}
else
{
rvf32[i]=-srvf32[i];
uvf32[i]=-suvf32[i];
}
}
} else {
for(int i=0; i<3; i++)
{
if(magright>0)
{
uvf32[i]=srvf32[i];
rvf32[i]=-suvf32[i];
}
else
{
uvf32[i]=-srvf32[i];
rvf32[i]=suvf32[i];
}
}
}
}
magup=dotf32(uvf32, tvf32);
magright=dotf32(rvf32, tvf32);
if(magup || magright)
{
int32 tmp[2];
if(abs(magup)>abs(magright))
{
tmp[0]=uvf32[0];
tmp[1]=uvf32[1];
unitVector((int32*)tmp);
InitTwist(true, tmp);
}else{
tmp[0]=rvf32[0];
tmp[1]=rvf32[1];
unitVector((int32*)tmp);
InitTwist(false, tmp);
}
Twisting=true;
Grabbing=false;
tvf32[0]=0;
tvf32[1]=0;
}
}
}
double * IntegratorMulti1D::Getqaccel()
{
RotateVector(Q, zaccel, qaccel);
return qaccel;
}