/*
* Test if a ray hits sphere.
*/
inline static BOOL RayHitsSphere(
const FLOAT3D &vStart,
const FLOAT3D &vEnd,
const FLOAT3D &vSphereCenter,
const FLOAT fSphereRadius,
FLOAT &fDistance)
{
const FLOAT3D vSphereCenterToStart = vStart - vSphereCenter;
const FLOAT3D vStartToEnd = vEnd - vStart;
// calculate discriminant for intersection parameters
const FLOAT fP = ((vStartToEnd%vSphereCenterToStart)/(vStartToEnd%vStartToEnd));
const FLOAT fQ = (((vSphereCenterToStart%vSphereCenterToStart)
- (fSphereRadius*fSphereRadius))/(vStartToEnd%vStartToEnd));
const FLOAT fD = fP*fP-fQ;
// if it is less than zero
if (fD<0) {
// no collision will occur
return FALSE;
}
// calculate intersection parameters
const FLOAT fSqrtD = sqrt(fD);
const FLOAT fLambda1 = -fP+fSqrtD;
const FLOAT fLambda2 = -fP-fSqrtD;
// use lower one
const FLOAT fMinLambda = Min(fLambda1, fLambda2);
// calculate distance from parameter
fDistance = fMinLambda*vStartToEnd.Length();
return TRUE;
}
// transform model to view space
static void PrepareView( CRenderModel &rm)
{
// prepare projections
const FLOATmatrix3D &mViewer = _aprProjection->pr_ViewerRotationMatrix;
const FLOAT3D &vViewer = _aprProjection->pr_vViewerPosition;
FLOATmatrix3D &m = rm.rm_mObjectToView;
// if half face forward
if( rm.rm_pmdModelData->md_Flags&MF_HALF_FACE_FORWARD) {
// get the y-axis vector of object rotation
FLOAT3D vY(rm.rm_mObjectRotation(1,2), rm.rm_mObjectRotation(2,2), rm.rm_mObjectRotation(3,2));
// find z axis of viewer
FLOAT3D vViewerZ( mViewer(3,1), mViewer(3,2), mViewer(3,3));
// calculate x and z axis vectors to make object head towards viewer
FLOAT3D vX = (-vViewerZ)*vY;
vX.Normalize();
FLOAT3D vZ = vY*vX;
// compose the rotation matrix back from those angles
m(1,1) = vX(1); m(1,2) = vY(1); m(1,3) = vZ(1);
m(2,1) = vX(2); m(2,2) = vY(2); m(2,3) = vZ(2);
m(3,1) = vX(3); m(3,2) = vY(3); m(3,3) = vZ(3);
// add viewer rotation to that
m = mViewer * m;
} // if full face forward
else if( rm.rm_pmdModelData->md_Flags&MF_FACE_FORWARD) {
// use just object banking for rotation
FLOAT fSinP = -rm.rm_mObjectRotation(2,3);
FLOAT fCosP = Sqrt(1-fSinP*fSinP);
FLOAT fSinB, fCosB;
if( fCosP>0.001f) {
const FLOAT f1oCosP = 1.0f/fCosP;
fSinB = rm.rm_mObjectRotation(2,1)*f1oCosP;
fCosB = rm.rm_mObjectRotation(2,2)*f1oCosP;
} else {
fSinB = 0.0f;
fCosB = 1.0f;
}
m(1,1) = +fCosB; m(1,2) = -fSinB; m(1,3) = 0;
m(2,1) = +fSinB; m(2,2) = +fCosB; m(2,3) = 0;
m(3,1) = 0; m(3,2) = 0; m(3,3) = 1;
} // if normal model
else {
// use viewer and object orientation
m = mViewer * rm.rm_mObjectRotation;
}
// find translation vector
rm.rm_vObjectToView = rm.rm_vObjectPosition - vViewer;
rm.rm_vObjectToView *= mViewer;
}
/* Create angles in 3D from up vector (ignoring objects relative heading).
(up vector must be normalized!)*/
void UpVectorToAngles(const FLOAT3D &vY, ANGLE3D &a3dAngles)
{
// create any front vector
FLOAT3D vZ;
if (Abs(vY(2))>0.5f) {
vZ = FLOAT3D(1,0,0)*vY;
} else {
vZ = FLOAT3D(0,1,0)*vY;
}
vZ.Normalize();
// side vector is cross product
FLOAT3D vX = vY*vZ;
vX.Normalize();
// create the rotation matrix
FLOATmatrix3D m;
m(1,1) = vX(1); m(1,2) = vY(1); m(1,3) = vZ(1);
m(2,1) = vX(2); m(2,2) = vY(2); m(2,3) = vZ(2);
m(3,1) = vX(3); m(3,2) = vY(3); m(3,3) = vZ(3);
// decompose the matrix without snapping
DecomposeRotationMatrixNoSnap(a3dAngles, m);
}
// Create render model structure for rendering an attached model
BOOL CModelObject::CreateAttachment( CRenderModel &rmMain, CAttachmentModelObject &amo)
{
_pfModelProfile.StartTimer( CModelProfile::PTI_CREATEATTACHMENT);
_pfModelProfile.IncrementTimerAveragingCounter( CModelProfile::PTI_CREATEATTACHMENT);
CRenderModel &rmAttached = *amo.amo_prm;
rmAttached.rm_ulFlags = rmMain.rm_ulFlags&(RMF_FOG|RMF_HAZE|RMF_WEAPON) | RMF_ATTACHMENT;
// get the position
rmMain.rm_pmdModelData->md_aampAttachedPosition.Lock();
const CAttachedModelPosition & = rmMain.rm_pmdModelData->md_aampAttachedPosition[amo.amo_iAttachedPosition];
rmMain.rm_pmdModelData->md_aampAttachedPosition.Unlock();
// copy common values
rmAttached.rm_vLightDirection = rmMain.rm_vLightDirection;
rmAttached.rm_fDistanceFactor = rmMain.rm_fDistanceFactor;
rmAttached.rm_colLight = rmMain.rm_colLight;
rmAttached.rm_colAmbient = rmMain.rm_colAmbient;
rmAttached.rm_colBlend = rmMain.rm_colBlend;
// unpack the reference vertices
FLOAT3D vCenter, vFront, vUp;
const INDEX iCenter = amp.amp_iCenterVertex;
const INDEX iFront = amp.amp_iFrontVertex;
const INDEX iUp = amp.amp_iUpVertex;
UnpackVertex( rmMain, iCenter, vCenter);
UnpackVertex( rmMain, iFront, vFront);
UnpackVertex( rmMain, iUp, vUp);
// create front and up direction vectors
FLOAT3D vY = vUp - vCenter;
FLOAT3D vZ = vCenter - vFront;
// project center and directions from object to absolute space
const FLOATmatrix3D &mO2A = rmMain.rm_mObjectRotation;
const FLOAT3D &vO2A = rmMain.rm_vObjectPosition;
vCenter = vCenter*mO2A +vO2A;
vY = vY *mO2A;
vZ = vZ *mO2A;
// make a rotation matrix from the direction vectors
FLOAT3D vX = vY*vZ;
vY = vZ*vX;
vX.Normalize();
vY.Normalize();
vZ.Normalize();
FLOATmatrix3D mOrientation;
mOrientation(1,1) = vX(1); mOrientation(1,2) = vY(1); mOrientation(1,3) = vZ(1);
mOrientation(2,1) = vX(2); mOrientation(2,2) = vY(2); mOrientation(2,3) = vZ(2);
mOrientation(3,1) = vX(3); mOrientation(3,2) = vY(3); mOrientation(3,3) = vZ(3);
// adjust for relative placement of the attachment
FLOAT3D vOffset;
FLOATmatrix3D mRelative;
MakeRotationMatrixFast( mRelative, amo.amo_plRelative.pl_OrientationAngle);
vOffset(1) = amo.amo_plRelative.pl_PositionVector(1) * mo_Stretch(1);
vOffset(2) = amo.amo_plRelative.pl_PositionVector(2) * mo_Stretch(2);
vOffset(3) = amo.amo_plRelative.pl_PositionVector(3) * mo_Stretch(3);
FLOAT3D vO = vCenter + vOffset * mOrientation;
mOrientation *= mRelative; // convert absolute to relative orientation
rmAttached.SetObjectPlacement( vO, mOrientation);
// done here if clipping optimizations are not allowed
extern INDEX gap_iOptimizeClipping;
if( gap_iOptimizeClipping<1) {
gap_iOptimizeClipping = 0;
_pfModelProfile.StopTimer( CModelProfile::PTI_CREATEATTACHMENT);
return TRUE;
}
// test attachment to frustum and/or mirror
FLOAT3D vHandle;
_aprProjection->PreClip( vO, vHandle);
CalculateBoundingBox( &amo.amo_moModelObject, rmAttached);
// compose view-space bounding box and sphere of an attacment
const FLOAT fR = Max( rmAttached.rm_vObjectMinBB.Length(), rmAttached.rm_vObjectMaxBB.Length());
const FLOATobbox3D boxEntity( FLOATaabbox3D(rmAttached.rm_vObjectMinBB, rmAttached.rm_vObjectMaxBB),
vHandle, _aprProjection->pr_ViewerRotationMatrix*mOrientation);
// frustum test?
if( gap_iOptimizeClipping>1) {
// test sphere against frustrum
INDEX iFrustumTest = _aprProjection->TestSphereToFrustum(vHandle,fR);
if( iFrustumTest==0) {
// test box if sphere cut one of frustum planes
iFrustumTest = _aprProjection->TestBoxToFrustum(boxEntity);
}
// mark if attachment is fully inside frustum
if( iFrustumTest>0) rmAttached.rm_ulFlags |= RMF_INSIDE;
else if( iFrustumTest<0) { // if completely outside of frustum
// signal skip rendering only if doesn't have any attachments
_pfModelProfile.StopTimer( CModelProfile::PTI_CREATEATTACHMENT);
return !amo.amo_moModelObject.mo_lhAttachments.IsEmpty();
}
}
// test sphere against mirror/warp plane (if any)
if( _aprProjection->pr_bMirror || _aprProjection->pr_bWarp) {
INDEX iMirrorPlaneTest;
const FLOAT fPlaneDistance = _aprProjection->pr_plMirrorView.PointDistance(vHandle);
if( fPlaneDistance < -fR) iMirrorPlaneTest = -1;
else if( fPlaneDistance > +fR) iMirrorPlaneTest = +1;
else { // test box if sphere cut mirror plane
iMirrorPlaneTest = boxEntity.TestAgainstPlane(_aprProjection->pr_plMirrorView);
}
// mark if attachment is fully inside mirror
if( iMirrorPlaneTest>0) rmAttached.rm_ulFlags |= RMF_INMIRROR;
else if( iMirrorPlaneTest<0) { // if completely outside mirror
// signal skip rendering only if doesn't have any attachments
_pfModelProfile.StopTimer( CModelProfile::PTI_CREATEATTACHMENT);
return !amo.amo_moModelObject.mo_lhAttachments.IsEmpty();
}
}
// all done
_pfModelProfile.StopTimer( CModelProfile::PTI_CREATEATTACHMENT);
return TRUE;
}
CTString GetItemValue(CEntity *pen, INDEX iColumn, INDEX &iFormat)
{
ASSERT(pen!=NULL);
if(pen==NULL) return CTString("");
CEntityClass *pecEntityClass = pen->GetClass();
CDLLEntityClass *pdllecDllEntityClass = pecEntityClass->ec_pdecDLLClass;
FLOAT3D vOrigin = pen->GetPlacement().pl_PositionVector;
ANGLE3D vAngles = pen->GetPlacement().pl_OrientationAngle;
CTString strResult="";
iFormat=PDF_STRING;
switch( iColumn)
{
case COLUMN_ID:
{
strResult.PrintF("%d", pen->en_ulID);
iFormat=PDF_INDEX;
break;
}
case COLUMN_CLASS:
{
strResult=pdllecDllEntityClass->dec_strName;
break;
}
case COLUMN_NAME:
{
strResult=pen->GetName();
break;
}
case COLUMN_DESCRIPTION:
{
strResult=pen->GetDescription();
break;
}
case COLUMN_SECTOR_NAME:
{
CBrushSector *pbsc = pen->GetFirstSectorWithName();
if( pbsc!=NULL)
{
strResult=pbsc->bsc_strName;
}
break;
}
case COLUMN_X:
{
strResult.PrintF("%g", vOrigin(1));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_Y:
{
strResult.PrintF("%g", vOrigin(2));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_Z:
{
strResult.PrintF("%g", vOrigin(3));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_H:
{
strResult.PrintF("%g", vAngles(1));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_P:
{
strResult.PrintF("%g", vAngles(2));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_B:
{
strResult.PrintF("%g", vAngles(3));
iFormat=PDF_FLOAT;
break;
}
// 강동민 수정 시작
case COLUMN_MOBINDEX:
{
if(pen->IsEnemy())
{
CEntityProperty &epPropertyMobType = *(pen->PropertyForTypeAndID(CEntityProperty::EPT_INDEX, 91)); // Zone Flag
INDEX iEnemyType = ENTITYPROPERTY( &*pen, epPropertyMobType.ep_slOffset, INDEX);
strResult.PrintF("%d", iEnemyType);
iFormat=PDF_INDEX;
}
break;
}
case COLUMN_REGEN:
{
if(pen->IsEnemy())
{
CEntityProperty &epPropertyRegenTime = *(pen->PropertyForTypeAndID(CEntityProperty::EPT_INDEX, 21)); // Zone Flag
INDEX iRegenSec = ENTITYPROPERTY( &*pen, epPropertyRegenTime.ep_slOffset, INDEX);
strResult.PrintF("%d", iRegenSec);
iFormat=PDF_INDEX;
}
break;
}
// 강동민 수정 끝
case COLUMN_RAIDOBJ:
{
if (pen->GetRaidObject())
{
strResult = CTString("RaidObject");
}
break;
}
case COLUMN_DISTANCE:
{
if( _penForDistanceSort != NULL)
{
FLOAT3D vSelectedOrigin = _penForDistanceSort->GetPlacement().pl_PositionVector;
FLOAT3D fDistance = vOrigin-vSelectedOrigin;
strResult.PrintF("%g", fDistance.Length());
iFormat=PDF_FLOAT;
}
break;
}
case COLUMN_SPAWN_FLAGS:
{
strResult.PrintF("0x%08X", pen->GetSpawnFlags());
break;
}
// entity properties
default:
{
CDLLEntityClass *pdecDLLClass = pen->GetClass()->ec_pdecDLLClass;
// for all classes in hierarchy of this entity
INDEX iPropertyOrder=0;
for(;pdecDLLClass!=NULL; pdecDLLClass = pdecDLLClass->dec_pdecBase)
{
// for all properties
for(INDEX iProperty=0; iProperty<pdecDLLClass->dec_ctProperties; iProperty++)
{
CEntityProperty *pepProperty = &pdecDLLClass->dec_aepProperties[iProperty];
if( pepProperty->ep_strName!=CTString(""))
{
if( iPropertyOrder==iColumn-COLUMN_PROPERTY_START)
{
strResult=GetPropertyValue(pen, pepProperty, iFormat);
return strResult;
}
iPropertyOrder++;
}
}
}
}
}
return strResult;
}
/*
* Prepare for projecting.
*/
void CPerspectiveProjection3D::Prepare(void)
{
FLOATmatrix3D t3dObjectStretch; // matrix for object stretch
FLOATmatrix3D t3dObjectRotation; // matrix for object angles
// calc. matrices for viewer and object angles and stretch
MakeRotationMatrixFast(
t3dObjectRotation, pr_ObjectPlacement.pl_OrientationAngle);
MakeInverseRotationMatrixFast(
pr_ViewerRotationMatrix, pr_ViewerPlacement.pl_OrientationAngle);
t3dObjectStretch.Diagonal(pr_ObjectStretch);
pr_vViewerPosition = pr_ViewerPlacement.pl_PositionVector;
BOOL bXInverted = pr_ObjectStretch(1)<0;
BOOL bYInverted = pr_ObjectStretch(2)<0;
BOOL bZInverted = pr_ObjectStretch(3)<0;
pr_bInverted = (bXInverted != bYInverted) != bZInverted;
// if the projection is mirrored
if (pr_bMirror) {
// reflect viewer
ReflectPositionVectorByPlane(pr_plMirror, pr_vViewerPosition);
ReflectRotationMatrixByPlane_rows(pr_plMirror, pr_ViewerRotationMatrix);
// get mirror plane in view space
pr_plMirrorView = pr_plMirror;
pr_plMirrorView -= pr_vViewerPosition;
pr_plMirrorView *= pr_ViewerRotationMatrix;
// invert inversion
pr_bInverted = !pr_bInverted;
} else if (pr_bWarp) {
// get mirror plane in view space
pr_plMirrorView = pr_plMirror;
}
// if the object is face-forward
if (pr_bFaceForward) {
// if it turns only heading
if (pr_bHalfFaceForward) {
// get the y-axis vector of object rotation
FLOAT3D vY(t3dObjectRotation(1,2), t3dObjectRotation(2,2), t3dObjectRotation(3,2));
// find z axis of viewer
FLOAT3D vViewerZ(
pr_ViewerRotationMatrix(3,1),
pr_ViewerRotationMatrix(3,2),
pr_ViewerRotationMatrix(3,3));
// calculate x and z axis vectors to make object head towards viewer
FLOAT3D vX = (-vViewerZ)*vY;
vX.Normalize();
FLOAT3D vZ = vY*vX;
// compose the rotation matrix back from those angles
t3dObjectRotation(1,1) = vX(1); t3dObjectRotation(1,2) = vY(1); t3dObjectRotation(1,3) = vZ(1);
t3dObjectRotation(2,1) = vX(2); t3dObjectRotation(2,2) = vY(2); t3dObjectRotation(2,3) = vZ(2);
t3dObjectRotation(3,1) = vX(3); t3dObjectRotation(3,2) = vY(3); t3dObjectRotation(3,3) = vZ(3);
// first apply object stretch then object rotation and then viewer rotation
pr_mDirectionRotation = pr_ViewerRotationMatrix*t3dObjectRotation;
pr_RotationMatrix = pr_mDirectionRotation*t3dObjectStretch;
// if it is fully face forward
} else {
// apply object stretch and banking only
FLOATmatrix3D mBanking;
MakeRotationMatrixFast(
mBanking, ANGLE3D(0,0, pr_ObjectPlacement.pl_OrientationAngle(3)));
pr_mDirectionRotation = mBanking;
pr_RotationMatrix = mBanking*t3dObjectStretch;
}
} else {
// first apply object stretch then object rotation and then viewer rotation
pr_mDirectionRotation = pr_ViewerRotationMatrix*t3dObjectRotation;
pr_RotationMatrix = pr_mDirectionRotation*t3dObjectStretch;
}
// calc. offset of object from viewer
pr_TranslationVector = pr_ObjectPlacement.pl_PositionVector - pr_vViewerPosition;
// rotate offset only by viewer angles
pr_TranslationVector = pr_TranslationVector*pr_ViewerRotationMatrix;
// transform handle from object space to viewer space and add it to the offset
pr_TranslationVector -= pr_vObjectHandle*pr_RotationMatrix;
FLOAT2D vMin, vMax;
// if using a shadow projection
if (ppr_fMetersPerPixel>0) {
// caclulate factors
FLOAT fFactor = ppr_fViewerDistance/ppr_fMetersPerPixel;
ppr_PerspectiveRatios(1) = -fFactor;
ppr_PerspectiveRatios(2) = -fFactor;
pr_ScreenCenter = -pr_ScreenBBox.Min();
vMin = pr_ScreenBBox.Min();
vMax = pr_ScreenBBox.Max();
// if using normal projection
} else if (ppr_boxSubScreen.IsEmpty()) {
// calculate perspective constants
FLOAT2D v2dScreenSize = pr_ScreenBBox.Size();
pr_ScreenCenter = pr_ScreenBBox.Center();
/* calculate FOVHeight from FOVWidth by formula:
halfanglej = atan( tan(halfanglei)*jsize*aspect/isize ) */
ANGLE aHalfI = ppr_FOVWidth/2;
ANGLE aHalfJ = ATan(TanFast(aHalfI)*v2dScreenSize(2)*pr_AspectRatio/v2dScreenSize(1));
/* calc. perspective ratios by formulae:
xratio = isize/(2*tan(anglei/2))
yratio = jsize/(2*tan(anglej/2))
sign is negative since viewer is looking down the -z axis
*/
ppr_PerspectiveRatios(1) = -v2dScreenSize(1)/(2.0f*TanFast(aHalfI))*pr_fViewStretch;
ppr_PerspectiveRatios(2) = -v2dScreenSize(2)/(2.0f*TanFast(aHalfJ))*pr_fViewStretch;
vMin = pr_ScreenBBox.Min()-pr_ScreenCenter;
vMax = pr_ScreenBBox.Max()-pr_ScreenCenter;
// if using sub-drawport projection
} else {
// calculate perspective constants
FLOAT2D v2dScreenSize = pr_ScreenBBox.Size();
pr_ScreenCenter = pr_ScreenBBox.Center();
/* calculate FOVHeight from FOVWidth by formula:
halfanglej = atan( tan(halfanglei)*jsize*aspect/isize ) */
ANGLE aHalfI = ppr_FOVWidth/2;
ANGLE aHalfJ = ATan(TanFast(aHalfI)*v2dScreenSize(2)*pr_AspectRatio/v2dScreenSize(1));
/* calc. perspective ratios by formulae:
xratio = isize/(2*tan(anglei/2))
yratio = jsize/(2*tan(anglej/2))
sign is negative since viewer is looking down the -z axis
*/
ppr_PerspectiveRatios(1) = -v2dScreenSize(1)/(2.0f*TanFast(aHalfI))*pr_fViewStretch;
ppr_PerspectiveRatios(2) = -v2dScreenSize(2)/(2.0f*TanFast(aHalfJ))*pr_fViewStretch;
vMin = ppr_boxSubScreen.Min()-pr_ScreenCenter;
vMax = ppr_boxSubScreen.Max()-pr_ScreenCenter;
pr_ScreenCenter -= ppr_boxSubScreen.Min();
}
// find factors for left, right, up and down clipping
FLOAT fMinI = vMin(1); FLOAT fMinJ = vMin(2);
FLOAT fMaxI = vMax(1); FLOAT fMaxJ = vMax(2);
FLOAT fRatioX = ppr_PerspectiveRatios(1);
FLOAT fRatioY = ppr_PerspectiveRatios(2);
#define MySgn(x) ((x)>=0?1:-1)
FLOAT fDZ = -1.0f;
FLOAT fDXL = fDZ*fMinI/fRatioX;
FLOAT fDXR = fDZ*fMaxI/fRatioX;
FLOAT fDYU = -fDZ*fMinJ/fRatioY;
FLOAT fDYD = -fDZ*fMaxJ/fRatioY;
FLOAT fNLX = -fDZ;
FLOAT fNLZ = +fDXL;
FLOAT fOoNL = 1.0f/(FLOAT)sqrt(fNLX*fNLX+fNLZ*fNLZ);
fNLX*=fOoNL; fNLZ*=fOoNL;
FLOAT fNRX = +fDZ;
FLOAT fNRZ = -fDXR;
FLOAT fOoNR = 1.0f/(FLOAT)sqrt(fNRX*fNRX+fNRZ*fNRZ);
fNRX*=fOoNR; fNRZ*=fOoNR;
FLOAT fNDY = -fDZ;
FLOAT fNDZ = +fDYD;
FLOAT fOoND = 1.0f/(FLOAT)sqrt(fNDY*fNDY+fNDZ*fNDZ);
fNDY*=fOoND; fNDZ*=fOoND;
FLOAT fNUY = +fDZ;
FLOAT fNUZ = -fDYU;
FLOAT fOoNU = 1.0f/(FLOAT)sqrt(fNUY*fNUY+fNUZ*fNUZ);
fNUY*=fOoNU; fNUZ*=fOoNU;
// make clip planes
pr_plClipU = FLOATplane3D(FLOAT3D( 0,fNUY,fNUZ), 0.0f);
pr_plClipD = FLOATplane3D(FLOAT3D( 0,fNDY,fNDZ), 0.0f);
pr_plClipL = FLOATplane3D(FLOAT3D(fNLX, 0,fNLZ), 0.0f);
pr_plClipR = FLOATplane3D(FLOAT3D(fNRX, 0,fNRZ), 0.0f);
// mark as prepared
pr_Prepared = TRUE;
// calculate constant value used for calculating z-buffer k-value from vertex's z coordinate
pr_fDepthBufferFactor = -pr_NearClipDistance;
pr_fDepthBufferMul = pr_fDepthBufferFar-pr_fDepthBufferNear;
pr_fDepthBufferAdd = pr_fDepthBufferNear;
// calculate ratio for mip factor calculation
ppr_fMipRatio = pr_ScreenBBox.Size()(1)/(ppr_PerspectiveRatios(1)*640.0f);
}
CTString GetItemValue(CEntity *pen, INDEX iColumn, INDEX &iFormat)
{
ASSERT(pen!=NULL);
if(pen==NULL) return CTString("");
CEntityClass *pecEntityClass = pen->GetClass();
CDLLEntityClass *pdllecDllEntityClass = pecEntityClass->ec_pdecDLLClass;
FLOAT3D vOrigin = pen->GetPlacement().pl_PositionVector;
ANGLE3D vAngles = pen->GetPlacement().pl_OrientationAngle;
CTString strResult="";
iFormat=PDF_STRING;
switch( iColumn)
{
case COLUMN_INDEX:
{
INDEX iIndex=dcEntities.GetIndex(pen);
strResult.PrintF("%d", FLOAT(iIndex));
iFormat=PDF_INDEX;
break;
}
case COLUMN_CLASS:
{
strResult=pdllecDllEntityClass->dec_strName;
break;
}
case COLUMN_NAME:
{
strResult=pen->GetName();
break;
}
case COLUMN_DESCRIPTION:
{
strResult=pen->GetDescription();
break;
}
case COLUMN_SECTOR_NAME:
{
CBrushSector *pbsc = pen->GetFirstSectorWithName();
if( pbsc!=NULL)
{
strResult=pbsc->bsc_strName;
}
break;
}
case COLUMN_X:
{
strResult.PrintF("%g", vOrigin(1));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_Y:
{
strResult.PrintF("%g", vOrigin(2));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_Z:
{
strResult.PrintF("%g", vOrigin(3));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_H:
{
strResult.PrintF("%g", vAngles(1));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_P:
{
strResult.PrintF("%g", vAngles(2));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_B:
{
strResult.PrintF("%g", vAngles(3));
iFormat=PDF_FLOAT;
break;
}
case COLUMN_DISTANCE:
{
if( _penForDistanceSort != NULL)
{
FLOAT3D vSelectedOrigin = _penForDistanceSort->GetPlacement().pl_PositionVector;
FLOAT3D fDistance = vOrigin-vSelectedOrigin;
strResult.PrintF("%g", fDistance.Length());
iFormat=PDF_FLOAT;
}
break;
}
case COLUMN_SPAWN_FLAGS:
{
strResult.PrintF("0x%08X", pen->GetSpawnFlags());
break;
}
// entity properties
default:
{
CDLLEntityClass *pdecDLLClass = pen->GetClass()->ec_pdecDLLClass;
// for all classes in hierarchy of this entity
INDEX iPropertyOrder=0;
for(;pdecDLLClass!=NULL; pdecDLLClass = pdecDLLClass->dec_pdecBase)
{
// for all properties
for(INDEX iProperty=0; iProperty<pdecDLLClass->dec_ctProperties; iProperty++)
{
CEntityProperty *pepProperty = &pdecDLLClass->dec_aepProperties[iProperty];
if( pepProperty->ep_strName!=CTString(""))
{
if( iPropertyOrder==iColumn-COLUMN_PROPERTY_START)
{
strResult=GetPropertyValue(pen, pepProperty, iFormat);
return strResult;
}
iPropertyOrder++;
}
}
}
}
}
return strResult;
}
