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Modified source engine (2017) developed by valve and leaked in 2020. Not for commercial purporses
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source-engine/game/shared/portal/portal_util_shared.cpp

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add hl1,portal,dod source code
3 years ago
//========= Copyright Valve Corporation, All rights reserved. ============//
//
// Purpose:
//
// $NoKeywords: $
//=============================================================================//
#include "cbase.h"
#include "portal_util_shared.h"
#include "prop_portal_shared.h"
#include "portal_shareddefs.h"
#include "portal_collideable_enumerator.h"
#include "beam_shared.h"
#include "collisionutils.h"
#include "util_shared.h"
#ifndef CLIENT_DLL
#include "util.h"
#include "ndebugoverlay.h"
#include "env_debughistory.h"
#else
#include "c_portal_player.h"
#endif
#include "PortalSimulation.h"
bool g_bAllowForcePortalTrace = false;
bool g_bForcePortalTrace = false;
bool g_bBulletPortalTrace = false;
ConVar sv_portal_trace_vs_world ("sv_portal_trace_vs_world", "1", FCVAR_REPLICATED | FCVAR_CHEAT, "Use traces against portal environment world geometry" );
ConVar sv_portal_trace_vs_displacements ("sv_portal_trace_vs_displacements", "1", FCVAR_REPLICATED | FCVAR_CHEAT, "Use traces against portal environment displacement geometry" );
ConVar sv_portal_trace_vs_holywall ("sv_portal_trace_vs_holywall", "1", FCVAR_REPLICATED | FCVAR_CHEAT, "Use traces against portal environment carved wall" );
ConVar sv_portal_trace_vs_staticprops ("sv_portal_trace_vs_staticprops", "1", FCVAR_REPLICATED | FCVAR_CHEAT, "Use traces against portal environment static prop geometry" );
ConVar sv_use_find_closest_passable_space ("sv_use_find_closest_passable_space", "1", FCVAR_REPLICATED | FCVAR_CHEAT, "Enables heavy-handed player teleporting stuck fix code." );
ConVar sv_use_transformed_collideables("sv_use_transformed_collideables", "1", FCVAR_REPLICATED | FCVAR_CHEAT, "Disables traces against remote portal moving entities using transforms to bring them into local space." );
class CTransformedCollideable : public ICollideable //wraps an existing collideable, but transforms everything that pertains to world space by another transform
{
public:
VMatrix m_matTransform; //the transformation we apply to the wrapped collideable
VMatrix m_matInvTransform; //cached inverse of m_matTransform
ICollideable *m_pWrappedCollideable; //the collideable we're transforming without it knowing
struct CTC_ReferenceVars_t
{
Vector m_vCollisionOrigin;
QAngle m_qCollisionAngles;
matrix3x4_t m_matCollisionToWorldTransform;
matrix3x4_t m_matRootParentToWorldTransform;
};
mutable CTC_ReferenceVars_t m_ReferencedVars; //when returning a const reference, it needs to point to something, so here we go
//abstract functions which require no transforms, just pass them along to the wrapped collideable
virtual IHandleEntity *GetEntityHandle() { return m_pWrappedCollideable->GetEntityHandle(); }
virtual const Vector& OBBMinsPreScaled() const { return m_pWrappedCollideable->OBBMinsPreScaled(); }
virtual const Vector& OBBMaxsPreScaled() const { return m_pWrappedCollideable->OBBMaxsPreScaled(); }
virtual const Vector& OBBMins() const { return m_pWrappedCollideable->OBBMins(); }
virtual const Vector& OBBMaxs() const { return m_pWrappedCollideable->OBBMaxs(); }
virtual int GetCollisionModelIndex() { return m_pWrappedCollideable->GetCollisionModelIndex(); }
virtual const model_t* GetCollisionModel() { return m_pWrappedCollideable->GetCollisionModel(); }
virtual SolidType_t GetSolid() const { return m_pWrappedCollideable->GetSolid(); }
virtual int GetSolidFlags() const { return m_pWrappedCollideable->GetSolidFlags(); }
virtual IClientUnknown* GetIClientUnknown() { return m_pWrappedCollideable->GetIClientUnknown(); }
virtual int GetCollisionGroup() const { return m_pWrappedCollideable->GetCollisionGroup(); }
virtual bool ShouldTouchTrigger( int triggerSolidFlags ) const { return m_pWrappedCollideable->ShouldTouchTrigger(triggerSolidFlags); }
//slightly trickier functions
virtual void WorldSpaceTriggerBounds( Vector *pVecWorldMins, Vector *pVecWorldMaxs ) const;
virtual bool TestCollision( const Ray_t &ray, unsigned int fContentsMask, trace_t& tr );
virtual bool TestHitboxes( const Ray_t &ray, unsigned int fContentsMask, trace_t& tr );
virtual const Vector& GetCollisionOrigin() const;
virtual const QAngle& GetCollisionAngles() const;
virtual const matrix3x4_t& CollisionToWorldTransform() const;
virtual void WorldSpaceSurroundingBounds( Vector *pVecMins, Vector *pVecMaxs );
virtual const matrix3x4_t *GetRootParentToWorldTransform() const;
};
void CTransformedCollideable::WorldSpaceTriggerBounds( Vector *pVecWorldMins, Vector *pVecWorldMaxs ) const
{
m_pWrappedCollideable->WorldSpaceTriggerBounds( pVecWorldMins, pVecWorldMaxs );
if( pVecWorldMins )
*pVecWorldMins = m_matTransform * (*pVecWorldMins);
if( pVecWorldMaxs )
*pVecWorldMaxs = m_matTransform * (*pVecWorldMaxs);
}
bool CTransformedCollideable::TestCollision( const Ray_t &ray, unsigned int fContentsMask, trace_t& tr )
{
//TODO: Transform the ray by inverse matTransform and transform the trace results by matTransform? AABB Errors arise by transforming the ray.
return m_pWrappedCollideable->TestCollision( ray, fContentsMask, tr );
}
bool CTransformedCollideable::TestHitboxes( const Ray_t &ray, unsigned int fContentsMask, trace_t& tr )
{
//TODO: Transform the ray by inverse matTransform and transform the trace results by matTransform? AABB Errors arise by transforming the ray.
return m_pWrappedCollideable->TestHitboxes( ray, fContentsMask, tr );
}
const Vector& CTransformedCollideable::GetCollisionOrigin() const
{
m_ReferencedVars.m_vCollisionOrigin = m_matTransform * m_pWrappedCollideable->GetCollisionOrigin();
return m_ReferencedVars.m_vCollisionOrigin;
}
const QAngle& CTransformedCollideable::GetCollisionAngles() const
{
m_ReferencedVars.m_qCollisionAngles = TransformAnglesToWorldSpace( m_pWrappedCollideable->GetCollisionAngles(), m_matTransform.As3x4() );
return m_ReferencedVars.m_qCollisionAngles;
}
const matrix3x4_t& CTransformedCollideable::CollisionToWorldTransform() const
{
//1-2 order correct?
ConcatTransforms( m_matTransform.As3x4(), m_pWrappedCollideable->CollisionToWorldTransform(), m_ReferencedVars.m_matCollisionToWorldTransform );
return m_ReferencedVars.m_matCollisionToWorldTransform;
}
void CTransformedCollideable::WorldSpaceSurroundingBounds( Vector *pVecMins, Vector *pVecMaxs )
{
if( (pVecMins == NULL) && (pVecMaxs == NULL) )
return;
Vector vMins, vMaxs;
m_pWrappedCollideable->WorldSpaceSurroundingBounds( &vMins, &vMaxs );
TransformAABB( m_matTransform.As3x4(), vMins, vMaxs, vMins, vMaxs );
if( pVecMins )
*pVecMins = vMins;
if( pVecMaxs )
*pVecMaxs = vMaxs;
}
const matrix3x4_t* CTransformedCollideable::GetRootParentToWorldTransform() const
{
const matrix3x4_t *pWrappedVersion = m_pWrappedCollideable->GetRootParentToWorldTransform();
if( pWrappedVersion == NULL )
return NULL;
ConcatTransforms( m_matTransform.As3x4(), *pWrappedVersion, m_ReferencedVars.m_matRootParentToWorldTransform );
return &m_ReferencedVars.m_matRootParentToWorldTransform;
}
Color UTIL_Portal_Color( int iPortal )
{
switch ( iPortal )
{
case 0:
// GRAVITY BEAM
return Color( 242, 202, 167, 255 );
case 1:
// PORTAL 1
return Color( 64, 160, 255, 255 );
case 2:
// PORTAL 2
return Color( 255, 160, 32, 255 );
}
return Color( 255, 255, 255, 255 );
}
void UTIL_Portal_Trace_Filter( CTraceFilterSimpleClassnameList *traceFilterPortalShot )
{
traceFilterPortalShot->AddClassnameToIgnore( "prop_physics" );
traceFilterPortalShot->AddClassnameToIgnore( "func_physbox" );
traceFilterPortalShot->AddClassnameToIgnore( "npc_portal_turret_floor" );
traceFilterPortalShot->AddClassnameToIgnore( "prop_energy_ball" );
traceFilterPortalShot->AddClassnameToIgnore( "npc_security_camera" );
traceFilterPortalShot->AddClassnameToIgnore( "player" );
traceFilterPortalShot->AddClassnameToIgnore( "simple_physics_prop" );
traceFilterPortalShot->AddClassnameToIgnore( "simple_physics_brush" );
traceFilterPortalShot->AddClassnameToIgnore( "prop_ragdoll" );
traceFilterPortalShot->AddClassnameToIgnore( "prop_glados_core" );
traceFilterPortalShot->AddClassnameToIgnore( "updateitem2" );
}
CProp_Portal* UTIL_Portal_FirstAlongRay( const Ray_t &ray, float &fMustBeCloserThan )
{
CProp_Portal *pIntersectedPortal = NULL;
int iPortalCount = CProp_Portal_Shared::AllPortals.Count();
if( iPortalCount != 0 )
{
CProp_Portal **pPortals = CProp_Portal_Shared::AllPortals.Base();
for( int i = 0; i != iPortalCount; ++i )
{
CProp_Portal *pTempPortal = pPortals[i];
if( pTempPortal->IsActivedAndLinked() )
{
float fIntersection = UTIL_IntersectRayWithPortal( ray, pTempPortal );
if( fIntersection >= 0.0f && fIntersection < fMustBeCloserThan )
{
//within range, now check directionality
if( pTempPortal->m_plane_Origin.normal.Dot( ray.m_Delta ) < 0.0f )
{
//qualifies for consideration, now it just has to compete for closest
pIntersectedPortal = pTempPortal;
fMustBeCloserThan = fIntersection;
}
}
}
}
}
return pIntersectedPortal;
}
bool UTIL_Portal_TraceRay_Bullets( const CProp_Portal *pPortal, const Ray_t &ray, unsigned int fMask, ITraceFilter *pTraceFilter, trace_t *pTrace, bool bTraceHolyWall )
{
if( !pPortal || !pPortal->IsActivedAndLinked() )
{
//not in a portal environment, use regular traces
enginetrace->TraceRay( ray, fMask, pTraceFilter, pTrace );
return false;
}
trace_t trReal;
enginetrace->TraceRay( ray, fMask, pTraceFilter, &trReal );
Vector vRayNormal = ray.m_Delta;
VectorNormalize( vRayNormal );
Vector vPortalForward;
pPortal->GetVectors( &vPortalForward, 0, 0 );
// If the ray isn't going into the front of the portal, just use the real trace
if ( vPortalForward.Dot( vRayNormal ) > 0.0f )
{
*pTrace = trReal;
return false;
}
// If the real trace collides before the portal plane, just use the real trace
float fPortalFraction = UTIL_IntersectRayWithPortal( ray, pPortal );
if ( fPortalFraction == -1.0f || trReal.fraction + 0.0001f < fPortalFraction )
{
// Didn't intersect or the real trace intersected closer
*pTrace = trReal;
return false;
}
Ray_t rayPostPortal;
rayPostPortal = ray;
rayPostPortal.m_Start = ray.m_Start + ray.m_Delta * fPortalFraction;
rayPostPortal.m_Delta = ray.m_Delta * ( 1.0f - fPortalFraction );
VMatrix matThisToLinked = pPortal->MatrixThisToLinked();
Ray_t rayTransformed;
UTIL_Portal_RayTransform( matThisToLinked, rayPostPortal, rayTransformed );
// After a bullet traces through a portal it can hit the player that fired it
CTraceFilterSimple *pSimpleFilter = dynamic_cast<CTraceFilterSimple*>(pTraceFilter);
const IHandleEntity *pPassEntity = NULL;
if ( pSimpleFilter )
{
pPassEntity = pSimpleFilter->GetPassEntity();
pSimpleFilter->SetPassEntity( 0 );
}
trace_t trPostPortal;
enginetrace->TraceRay( rayTransformed, fMask, pTraceFilter, &trPostPortal );
if ( pSimpleFilter )
{
pSimpleFilter->SetPassEntity( pPassEntity );
}
//trPostPortal.startpos = ray.m_Start;
UTIL_Portal_PointTransform( matThisToLinked, ray.m_Start, trPostPortal.startpos );
trPostPortal.fraction = trPostPortal.fraction * ( 1.0f - fPortalFraction ) + fPortalFraction;
*pTrace = trPostPortal;
return true;
}
CProp_Portal* UTIL_Portal_TraceRay_Beam( const Ray_t &ray, unsigned int fMask, ITraceFilter *pTraceFilter, float *pfFraction )
{
// Do a regular trace
trace_t tr;
UTIL_TraceLine( ray.m_Start, ray.m_Start + ray.m_Delta, fMask, pTraceFilter, &tr );
float fMustBeCloserThan = tr.fraction + 0.0001f;
CProp_Portal *pIntersectedPortal = UTIL_Portal_FirstAlongRay( ray, fMustBeCloserThan );
*pfFraction = fMustBeCloserThan; //will be real trace distance if it didn't hit a portal
return pIntersectedPortal;
}
bool UTIL_Portal_Trace_Beam( const CBeam *pBeam, Vector &vecStart, Vector &vecEnd, Vector &vecIntersectionStart, Vector &vecIntersectionEnd, ITraceFilter *pTraceFilter )
{
vecStart = pBeam->GetAbsStartPos();
vecEnd = pBeam->GetAbsEndPos();
// Trace to see if we've intersected a portal
float fEndFraction;
Ray_t rayBeam;
bool bIsReversed = ( pBeam->GetBeamFlags() & FBEAM_REVERSED ) != 0x0;
if ( !bIsReversed )
rayBeam.Init( vecStart, vecEnd );
else
rayBeam.Init( vecEnd, vecStart );
CProp_Portal *pPortal = UTIL_Portal_TraceRay_Beam( rayBeam, MASK_SHOT, pTraceFilter, &fEndFraction );
// If we intersected a portal we need to modify the start and end points to match the actual trace through portal drawing extents
if ( !pPortal )
return false;
// Modify the start and end points to match the actual trace through portal drawing extents
vecStart = rayBeam.m_Start;
Vector vecIntersection = rayBeam.m_Start + rayBeam.m_Delta * fEndFraction;
int iNumLoops = 0;
// Loop through the portals (at most 16 times)
while ( pPortal && iNumLoops < 16 )
{
// Get the point that we hit a portal or wall
vecIntersectionStart = vecIntersection;
VMatrix matThisToLinked = pPortal->MatrixThisToLinked();
// Get the transformed positions of the sub beam in the other portal's space
UTIL_Portal_PointTransform( matThisToLinked, vecIntersectionStart, vecIntersectionEnd );
UTIL_Portal_PointTransform( matThisToLinked, rayBeam.m_Start + rayBeam.m_Delta, vecEnd );
CTraceFilterSkipClassname traceFilter( pPortal->m_hLinkedPortal, "prop_energy_ball", COLLISION_GROUP_NONE );
rayBeam.Init( vecIntersectionEnd, vecEnd );
pPortal = UTIL_Portal_TraceRay_Beam( rayBeam, MASK_SHOT, &traceFilter, &fEndFraction );
vecIntersection = rayBeam.m_Start + rayBeam.m_Delta * fEndFraction;
++iNumLoops;
}
vecEnd = vecIntersection;
return true;
}
void UTIL_Portal_TraceRay_With( const CProp_Portal *pPortal, const Ray_t &ray, unsigned int fMask, ITraceFilter *pTraceFilter, trace_t *pTrace, bool bTraceHolyWall )
{
//check to see if the player is theoretically in a portal environment
if( !pPortal || !pPortal->m_PortalSimulator.IsReadyToSimulate() )
{
//not in a portal environment, use regular traces
enginetrace->TraceRay( ray, fMask, pTraceFilter, pTrace );
}
else
{
trace_t RealTrace;
enginetrace->TraceRay( ray, fMask, pTraceFilter, &RealTrace );
trace_t PortalTrace;
UTIL_Portal_TraceRay( pPortal, ray, fMask, pTraceFilter, &PortalTrace, bTraceHolyWall );
if( !g_bForcePortalTrace && !RealTrace.startsolid && PortalTrace.fraction <= RealTrace.fraction )
{
*pTrace = RealTrace;
return;
}
if ( g_bAllowForcePortalTrace )
{
g_bForcePortalTrace = true;
}
*pTrace = PortalTrace;
// If this ray has a delta, make sure its towards the portal before we try to trace across portals
Vector vDirection = ray.m_Delta;
VectorNormalize( vDirection );
Vector vPortalForward;
pPortal->GetVectors( &vPortalForward, 0, 0 );
float flDot = -1.0f;
if ( ray.m_IsSwept )
{
flDot = vDirection.Dot( vPortalForward );
}
// TODO: Translate extents of rays properly, tracing extruded box rays across portals causes collision bugs
// Until this is fixed, we'll only test true rays across portals
if ( flDot < 0.0f && /*PortalTrace.fraction == 1.0f &&*/ ray.m_IsRay)
{
// Check if we're hitting stuff on the other side of the portal
trace_t PortalLinkedTrace;
UTIL_PortalLinked_TraceRay( pPortal, ray, fMask, pTraceFilter, &PortalLinkedTrace, bTraceHolyWall );
if ( PortalLinkedTrace.fraction < pTrace->fraction )
{
// Only collide with the cross-portal objects if this trace crossed a portal
if ( UTIL_DidTraceTouchPortals( ray, PortalLinkedTrace ) )
{
*pTrace = PortalLinkedTrace;
}
}
}
if( pTrace->fraction < 1.0f )
{
pTrace->contents = RealTrace.contents;
pTrace->surface = RealTrace.surface;
}
}
}
//-----------------------------------------------------------------------------
// Purpose: Tests if a ray touches the surface of any portals
// Input : ray - the ray to be tested against portal surfaces
// trace - a filled-in trace corresponding to the parameter ray
// Output : bool - false if the 'ray' parameter failed to hit any portal surface
// pOutLocal - the portal touched (if any)
// pOutRemote - the portal linked to the portal touched
//-----------------------------------------------------------------------------
bool UTIL_DidTraceTouchPortals( const Ray_t& ray, const trace_t& trace, CProp_Portal** pOutLocal, CProp_Portal** pOutRemote )
{
int iPortalCount = CProp_Portal_Shared::AllPortals.Count();
if( iPortalCount == 0 )
{
if( pOutLocal )
*pOutLocal = NULL;
if( pOutRemote )
*pOutRemote = NULL;
return false;
}
CProp_Portal **pPortals = CProp_Portal_Shared::AllPortals.Base();
CProp_Portal *pIntersectedPortal = NULL;
if( ray.m_IsSwept )
{
float fMustBeCloserThan = trace.fraction + 0.0001f;
pIntersectedPortal = UTIL_Portal_FirstAlongRay( ray, fMustBeCloserThan );
}
if( (pIntersectedPortal == NULL) && !ray.m_IsRay )
{
//haven't hit anything yet, try again with box tests
Vector ptRayEndPoint = trace.endpos - ray.m_StartOffset; // The trace added the start offset to the end position, so remove it for the box test
CProp_Portal **pBoxIntersectsPortals = (CProp_Portal **)stackalloc( sizeof(CProp_Portal *) * iPortalCount );
int iBoxIntersectsPortalsCount = 0;
for( int i = 0; i != iPortalCount; ++i )
{
CProp_Portal *pTempPortal = pPortals[i];
if( (pTempPortal->m_bActivated) &&
(pTempPortal->m_hLinkedPortal.Get() != NULL) )
{
if( UTIL_IsBoxIntersectingPortal( ptRayEndPoint, ray.m_Extents, pTempPortal, 0.00f ) )
{
pBoxIntersectsPortals[iBoxIntersectsPortalsCount] = pTempPortal;
++iBoxIntersectsPortalsCount;
}
}
}
if( iBoxIntersectsPortalsCount > 0 )
{
pIntersectedPortal = pBoxIntersectsPortals[0];
if( iBoxIntersectsPortalsCount > 1 )
{
//hit more than one, use the closest
float fDistToBeat = (ptRayEndPoint - pIntersectedPortal->GetAbsOrigin()).LengthSqr();
for( int i = 1; i != iBoxIntersectsPortalsCount; ++i )
{
float fDist = (ptRayEndPoint - pBoxIntersectsPortals[i]->GetAbsOrigin()).LengthSqr();
if( fDist < fDistToBeat )
{
pIntersectedPortal = pBoxIntersectsPortals[i];
fDistToBeat = fDist;
}
}
}
}
}
if( pIntersectedPortal == NULL )
{
if( pOutLocal )
*pOutLocal = NULL;
if( pOutRemote )
*pOutRemote = NULL;
return false;
}
else
{
// Record the touched portals and return
if( pOutLocal )
*pOutLocal = pIntersectedPortal;
if( pOutRemote )
*pOutRemote = pIntersectedPortal->m_hLinkedPortal.Get();
return true;
}
}
//-----------------------------------------------------------------------------
// Purpose: Redirects the trace to either a trace that uses portal environments, or if a
// global boolean is set, trace with a special bullets trace.
// NOTE: UTIL_Portal_TraceRay_With will use the default world trace if it gets a NULL portal pointer
// Input : &ray - the ray to use to trace
// fMask - collision mask
// *pTraceFilter - customizable filter on the trace
// *pTrace - trace struct to fill with output info
//-----------------------------------------------------------------------------
CProp_Portal* UTIL_Portal_TraceRay( const Ray_t &ray, unsigned int fMask, ITraceFilter *pTraceFilter, trace_t *pTrace, bool bTraceHolyWall )
{
float fMustBeCloserThan = 2.0f;
CProp_Portal *pIntersectedPortal = UTIL_Portal_FirstAlongRay( ray, fMustBeCloserThan );
if ( g_bBulletPortalTrace )
{
if ( UTIL_Portal_TraceRay_Bullets( pIntersectedPortal, ray, fMask, pTraceFilter, pTrace, bTraceHolyWall ) )
return pIntersectedPortal;
// Bullet didn't actually go through portal
return NULL;
}
else
{
UTIL_Portal_TraceRay_With( pIntersectedPortal, ray, fMask, pTraceFilter, pTrace, bTraceHolyWall );
return pIntersectedPortal;
}
}
CProp_Portal* UTIL_Portal_TraceRay( const Ray_t &ray, unsigned int fMask, const IHandleEntity *ignore, int collisionGroup, trace_t *pTrace, bool bTraceHolyWall )
{
CTraceFilterSimple traceFilter( ignore, collisionGroup );
return UTIL_Portal_TraceRay( ray, fMask, &traceFilter, pTrace, bTraceHolyWall );
}
//-----------------------------------------------------------------------------
// Purpose: This version of traceray only traces against the portal environment of the specified portal.
// Input : *pPortal - the portal whose physics we will trace against
// &ray - the ray to trace with
// fMask - collision mask
// *pTraceFilter - customizable filter to determine what it hits
// *pTrace - the trace struct to fill in with results
// bTraceHolyWall - if this trace is to test against the 'holy wall' geometry
//-----------------------------------------------------------------------------
void UTIL_Portal_TraceRay( const CProp_Portal *pPortal, const Ray_t &ray, unsigned int fMask, ITraceFilter *pTraceFilter, trace_t *pTrace, bool bTraceHolyWall )
{
#ifdef CLIENT_DLL
Assert( (GameRules() == NULL) || GameRules()->IsMultiplayer() );
#endif
Assert( pPortal->m_PortalSimulator.IsReadyToSimulate() ); //a trace shouldn't make it down this far if the portal is incapable of changing the results of the trace
CTraceFilterHitAll traceFilterHitAll;
if ( !pTraceFilter )
{
pTraceFilter = &traceFilterHitAll;
}
pTrace->fraction = 2.0f;
pTrace->startsolid = true;
pTrace->allsolid = true;
trace_t TempTrace;
int counter;
const CPortalSimulator &portalSimulator = pPortal->m_PortalSimulator;
CPortalSimulator *pLinkedPortalSimulator = portalSimulator.GetLinkedPortalSimulator();
//bool bTraceDisplacements = sv_portal_trace_vs_displacements.GetBool();
bool bTraceStaticProps = sv_portal_trace_vs_staticprops.GetBool();
if( sv_portal_trace_vs_holywall.GetBool() == false )
bTraceHolyWall = false;
bool bTraceTransformedGeometry = ( (pLinkedPortalSimulator != NULL) && bTraceHolyWall && portalSimulator.RayIsInPortalHole( ray ) );
bool bCopyBackBrushTraceData = false;
// Traces vs world
if( pTraceFilter->GetTraceType() != TRACE_ENTITIES_ONLY )
{
//trace_t RealTrace;
//enginetrace->TraceRay( ray, fMask, pTraceFilter, &RealTrace );
if( portalSimulator.m_DataAccess.Simulation.Static.World.Brushes.pCollideable && sv_portal_trace_vs_world.GetBool() )
{
physcollision->TraceBox( ray, portalSimulator.m_DataAccess.Simulation.Static.World.Brushes.pCollideable, vec3_origin, vec3_angle, pTrace );
bCopyBackBrushTraceData = true;
}
if( bTraceHolyWall )
{
if( portalSimulator.m_DataAccess.Simulation.Static.Wall.Local.Tube.pCollideable )
{
physcollision->TraceBox( ray, portalSimulator.m_DataAccess.Simulation.Static.Wall.Local.Tube.pCollideable, vec3_origin, vec3_angle, &TempTrace );
if( (TempTrace.startsolid == false) && (TempTrace.fraction < pTrace->fraction) ) //never allow something to be stuck in the tube, it's more of a last-resort guide than a real collideable
{
*pTrace = TempTrace;
bCopyBackBrushTraceData = true;
}
}
if( portalSimulator.m_DataAccess.Simulation.Static.Wall.Local.Brushes.pCollideable )
{
physcollision->TraceBox( ray, portalSimulator.m_DataAccess.Simulation.Static.Wall.Local.Brushes.pCollideable, vec3_origin, vec3_angle, &TempTrace );
if( (TempTrace.fraction < pTrace->fraction) )
{
*pTrace = TempTrace;
bCopyBackBrushTraceData = true;
}
}
//if( portalSimulator.m_DataAccess.Simulation.Static.Wall.RemoteTransformedToLocal.Brushes.pCollideable && sv_portal_trace_vs_world.GetBool() )
if( bTraceTransformedGeometry && pLinkedPortalSimulator->m_DataAccess.Simulation.Static.World.Brushes.pCollideable )
{
physcollision->TraceBox( ray, pLinkedPortalSimulator->m_DataAccess.Simulation.Static.World.Brushes.pCollideable, portalSimulator.m_DataAccess.Placement.ptaap_LinkedToThis.ptOriginTransform, portalSimulator.m_DataAccess.Placement.ptaap_LinkedToThis.qAngleTransform, &TempTrace );
if( (TempTrace.fraction < pTrace->fraction) )
{
*pTrace = TempTrace;
bCopyBackBrushTraceData = true;
}
}
}
if( bCopyBackBrushTraceData )
{
pTrace->surface = portalSimulator.m_DataAccess.Simulation.Static.SurfaceProperties.surface;
pTrace->contents = portalSimulator.m_DataAccess.Simulation.Static.SurfaceProperties.contents;
pTrace->m_pEnt = portalSimulator.m_DataAccess.Simulation.Static.SurfaceProperties.pEntity;
bCopyBackBrushTraceData = false;
}
}
// Traces vs entities
if( pTraceFilter->GetTraceType() != TRACE_WORLD_ONLY )
{
bool bFilterStaticProps = (pTraceFilter->GetTraceType() == TRACE_EVERYTHING_FILTER_PROPS);
//solid entities
CPortalCollideableEnumerator enumerator( pPortal );
partition->EnumerateElementsAlongRay( PARTITION_ENGINE_SOLID_EDICTS | PARTITION_ENGINE_STATIC_PROPS, ray, false, &enumerator );
for( counter = 0; counter != enumerator.m_iHandleCount; ++counter )
{
if( staticpropmgr->IsStaticProp( enumerator.m_pHandles[counter] ) )
{
//if( bFilterStaticProps && !pTraceFilter->ShouldHitEntity( enumerator.m_pHandles[counter], fMask ) )
continue; //static props are handled separately, with clipped versions
}
else if ( !pTraceFilter->ShouldHitEntity( enumerator.m_pHandles[counter], fMask ) )
{
continue;
}
enginetrace->ClipRayToEntity( ray, fMask, enumerator.m_pHandles[counter], &TempTrace );
if( (TempTrace.fraction < pTrace->fraction) )
*pTrace = TempTrace;
}
if( bTraceStaticProps )
{
//local clipped static props
{
int iLocalStaticCount = portalSimulator.m_DataAccess.Simulation.Static.World.StaticProps.ClippedRepresentations.Count();
if( iLocalStaticCount != 0 && portalSimulator.m_DataAccess.Simulation.Static.World.StaticProps.bCollisionExists )
{
const PS_SD_Static_World_StaticProps_ClippedProp_t *pCurrentProp = portalSimulator.m_DataAccess.Simulation.Static.World.StaticProps.ClippedRepresentations.Base();
const PS_SD_Static_World_StaticProps_ClippedProp_t *pStop = pCurrentProp + iLocalStaticCount;
Vector vTransform = vec3_origin;
QAngle qTransform = vec3_angle;
do
{
if( (!bFilterStaticProps) || pTraceFilter->ShouldHitEntity( pCurrentProp->pSourceProp, fMask ) )
{
physcollision->TraceBox( ray, pCurrentProp->pCollide, vTransform, qTransform, &TempTrace );
if( (TempTrace.fraction < pTrace->fraction) )
{
*pTrace = TempTrace;
pTrace->surface.flags = pCurrentProp->iTraceSurfaceFlags;
pTrace->surface.surfaceProps = pCurrentProp->iTraceSurfaceProps;
pTrace->surface.name = pCurrentProp->szTraceSurfaceName;
pTrace->contents = pCurrentProp->iTraceContents;
pTrace->m_pEnt = pCurrentProp->pTraceEntity;
}
}
++pCurrentProp;
}
while( pCurrentProp != pStop );
}
}
if( bTraceHolyWall )
{
//remote clipped static props transformed into our wall space
if( bTraceTransformedGeometry && (pTraceFilter->GetTraceType() != TRACE_WORLD_ONLY) && sv_portal_trace_vs_staticprops.GetBool() )
{
int iLocalStaticCount = pLinkedPortalSimulator->m_DataAccess.Simulation.Static.World.StaticProps.ClippedRepresentations.Count();
if( iLocalStaticCount != 0 )
{
const PS_SD_Static_World_StaticProps_ClippedProp_t *pCurrentProp = pLinkedPortalSimulator->m_DataAccess.Simulation.Static.World.StaticProps.ClippedRepresentations.Base();
const PS_SD_Static_World_StaticProps_ClippedProp_t *pStop = pCurrentProp + iLocalStaticCount;
Vector vTransform = portalSimulator.m_DataAccess.Placement.ptaap_LinkedToThis.ptOriginTransform;
QAngle qTransform = portalSimulator.m_DataAccess.Placement.ptaap_LinkedToThis.qAngleTransform;
do
{
if( (!bFilterStaticProps) || pTraceFilter->ShouldHitEntity( pCurrentProp->pSourceProp, fMask ) )
{
physcollision->TraceBox( ray, pCurrentProp->pCollide, vTransform, qTransform, &TempTrace );
if( (TempTrace.fraction < pTrace->fraction) )
{
*pTrace = TempTrace;
pTrace->surface.flags = pCurrentProp->iTraceSurfaceFlags;
pTrace->surface.surfaceProps = pCurrentProp->iTraceSurfaceProps;
pTrace->surface.name = pCurrentProp->szTraceSurfaceName;
pTrace->contents = pCurrentProp->iTraceContents;
pTrace->m_pEnt = pCurrentProp->pTraceEntity;
}
}
++pCurrentProp;
}
while( pCurrentProp != pStop );
}
}
}
}
}
if( pTrace->fraction > 1.0f ) //this should only happen if there was absolutely nothing to trace against
{
//AssertMsg( 0, "Nothing to trace against" );
memset( pTrace, 0, sizeof( trace_t ) );
pTrace->fraction = 1.0f;
pTrace->startpos = ray.m_Start - ray.m_StartOffset;
pTrace->endpos = pTrace->startpos + ray.m_Delta;
}
else if ( pTrace->fraction < 0 )
{
// For all brush traces, use the 'portal backbrush' surface surface contents
// BUGBUG: Doing this is a great solution because brushes near a portal
// will have their contents and surface properties homogenized to the brush the portal ray hit.
pTrace->contents = portalSimulator.m_DataAccess.Simulation.Static.SurfaceProperties.contents;
pTrace->surface = portalSimulator.m_DataAccess.Simulation.Static.SurfaceProperties.surface;
pTrace->m_pEnt = portalSimulator.m_DataAccess.Simulation.Static.SurfaceProperties.pEntity;
}
}
void UTIL_Portal_TraceRay( const CProp_Portal *pPortal, const Ray_t &ray, unsigned int fMask, const IHandleEntity *ignore, int collisionGroup, trace_t *pTrace, bool bTraceHolyWall )
{
CTraceFilterSimple traceFilter( ignore, collisionGroup );
UTIL_Portal_TraceRay( pPortal, ray, fMask, &traceFilter, pTrace, bTraceHolyWall );
}
//-----------------------------------------------------------------------------
// Purpose: Trace a ray 'past' a portal's surface, hitting objects in the linked portal's collision environment
// Input : *pPortal - The portal being traced 'through'
// &ray - The ray being traced
// fMask - trace mask to cull results
// *pTraceFilter - trace filter to cull results
// *pTrace - Empty trace to return the result (value will be overwritten)
//-----------------------------------------------------------------------------
void UTIL_PortalLinked_TraceRay( const CProp_Portal *pPortal, const Ray_t &ray, unsigned int fMask, ITraceFilter *pTraceFilter, trace_t *pTrace, bool bTraceHolyWall )
{
#ifdef CLIENT_DLL
Assert( (GameRules() == NULL) || GameRules()->IsMultiplayer() );
#endif
// Transform the specified ray to the remote portal's space
Ray_t rayTransformed;
UTIL_Portal_RayTransform( pPortal->MatrixThisToLinked(), ray, rayTransformed );
AssertMsg ( ray.m_IsRay, "Ray with extents across portal tracing not implemented!" );
const CPortalSimulator &portalSimulator = pPortal->m_PortalSimulator;
CProp_Portal *pLinkedPortal = (CProp_Portal*)(pPortal->m_hLinkedPortal.Get());
if( (pLinkedPortal == NULL) || (portalSimulator.RayIsInPortalHole( ray ) == false) )
{
memset( pTrace, 0, sizeof(trace_t));
pTrace->fraction = 1.0f;
pTrace->fractionleftsolid = 0;
pTrace->contents = pPortal->m_PortalSimulator.m_DataAccess.Simulation.Static.SurfaceProperties.contents;
pTrace->surface = pPortal->m_PortalSimulator.m_DataAccess.Simulation.Static.SurfaceProperties.surface;
pTrace->m_pEnt = pPortal->m_PortalSimulator.m_DataAccess.Simulation.Static.SurfaceProperties.pEntity;
return;
}
UTIL_Portal_TraceRay( pLinkedPortal, rayTransformed, fMask, pTraceFilter, pTrace, bTraceHolyWall );
// Transform the ray's start, end and plane back into this portal's space,
// because we react to the collision as it is displayed, and the image is displayed with this local portal's orientation.
VMatrix matLinkedToThis = pLinkedPortal->MatrixThisToLinked();
UTIL_Portal_PointTransform( matLinkedToThis, pTrace->startpos, pTrace->startpos );
UTIL_Portal_PointTransform( matLinkedToThis, pTrace->endpos, pTrace->endpos );
UTIL_Portal_PlaneTransform( matLinkedToThis, pTrace->plane, pTrace->plane );
}
void UTIL_PortalLinked_TraceRay( const CProp_Portal *pPortal, const Ray_t &ray, unsigned int fMask, const IHandleEntity *ignore, int collisionGroup, trace_t *pTrace, bool bTraceHolyWall )
{
CTraceFilterSimple traceFilter( ignore, collisionGroup );
UTIL_PortalLinked_TraceRay( pPortal, ray, fMask, &traceFilter, pTrace, bTraceHolyWall );
}
//-----------------------------------------------------------------------------
// Purpose: A version of trace entity which detects portals and translates the trace through portals
//-----------------------------------------------------------------------------
void UTIL_Portal_TraceEntity( CBaseEntity *pEntity, const Vector &vecAbsStart, const Vector &vecAbsEnd,
unsigned int mask, ITraceFilter *pFilter, trace_t *pTrace )
{
#ifdef CLIENT_DLL
Assert( (GameRules() == NULL) || GameRules()->IsMultiplayer() );
Assert( pEntity->IsPlayer() );
CPortalSimulator *pPortalSimulator = NULL;
if( pEntity->IsPlayer() )
{
C_Prop_Portal *pPortal = ((C_Portal_Player *)pEntity)->m_hPortalEnvironment.Get();
if( pPortal )
pPortalSimulator = &pPortal->m_PortalSimulator;
}
#else
CPortalSimulator *pPortalSimulator = CPortalSimulator::GetSimulatorThatOwnsEntity( pEntity );
#endif
memset( pTrace, 0, sizeof(trace_t));
pTrace->fraction = 1.0f;
pTrace->fractionleftsolid = 0;
ICollideable* pCollision = enginetrace->GetCollideable( pEntity );
// If main is simulating this object, trace as UTIL_TraceEntity would
trace_t realTrace;
QAngle qCollisionAngles = pCollision->GetCollisionAngles();
enginetrace->SweepCollideable( pCollision, vecAbsStart, vecAbsEnd, qCollisionAngles, mask, pFilter, &realTrace );
// For the below box test, we need to add the tolerance onto the extents, because the underlying
// box on plane side test doesn't use the parameter tolerance.
float flTolerance = 0.1f;
Vector vEntExtents = pEntity->WorldAlignSize() * 0.5 + Vector ( flTolerance, flTolerance, flTolerance );
Vector vColCenter = realTrace.endpos + ( pEntity->WorldAlignMaxs() + pEntity->WorldAlignMins() ) * 0.5f;
// If this entity is not simulated in a portal environment, trace as normal
if( pPortalSimulator == NULL )
{
// If main is simulating this object, trace as UTIL_TraceEntity would
*pTrace = realTrace;
}
else
{
CPortalSimulator *pLinkedPortalSimulator = pPortalSimulator->GetLinkedPortalSimulator();
Ray_t entRay;
entRay.Init( vecAbsStart, vecAbsEnd, pCollision->OBBMins(), pCollision->OBBMaxs() );
#if 0 // this trace for brush ents made sense at one time, but it's 'overcolliding' during portal transitions (bugzilla#25)
if( realTrace.m_pEnt && (realTrace.m_pEnt->GetMoveType() != MOVETYPE_NONE) ) //started by hitting something moving which wouldn't be detected in the following traces
{
float fFirstPortalFraction = 2.0f;
CProp_Portal *pFirstPortal = UTIL_Portal_FirstAlongRay( entRay, fFirstPortalFraction );
if ( !pFirstPortal )
*pTrace = realTrace;
else
{
Vector vFirstPortalForward;
pFirstPortal->GetVectors( &vFirstPortalForward, NULL, NULL );
if ( vFirstPortalForward.Dot( realTrace.endpos - pFirstPortal->GetAbsOrigin() ) > 0.0f )
*pTrace = realTrace;
}
}
#endif
// We require both environments to be active in order to trace against them
Assert ( pCollision );
if ( !pCollision )
{
return;
}
// World, displacements and holy wall are stored in separate collideables
// Traces against each and keep the closest intersection (if any)
trace_t tempTrace;
// Hit the world
if ( pFilter->GetTraceType() != TRACE_ENTITIES_ONLY )
{
if( pPortalSimulator->m_DataAccess.Simulation.Static.World.Brushes.pCollideable &&
sv_portal_trace_vs_world.GetBool() )
{
//physcollision->TraceCollide( vecAbsStart, vecAbsEnd, pCollision, qCollisionAngles,
// pPortalSimulator->m_DataAccess.Simulation.Static.World.Brushes.pCollideable, vec3_origin, vec3_angle, &tempTrace );
physcollision->TraceBox( entRay, MASK_ALL, NULL, pPortalSimulator->m_DataAccess.Simulation.Static.World.Brushes.pCollideable, vec3_origin, vec3_angle, &tempTrace );
if ( tempTrace.startsolid || (tempTrace.fraction < pTrace->fraction) )
{
*pTrace = tempTrace;
}
}
//if( pPortalSimulator->m_DataAccess.Simulation.Static.Wall.RemoteTransformedToLocal.Brushes.pCollideable &&
if( pLinkedPortalSimulator &&
pLinkedPortalSimulator->m_DataAccess.Simulation.Static.World.Brushes.pCollideable &&
sv_portal_trace_vs_world.GetBool() &&
sv_portal_trace_vs_holywall.GetBool() )
{
//physcollision->TraceCollide( vecAbsStart, vecAbsEnd, pCollision, qCollisionAngles,
// pLinkedPortalSimulator->m_DataAccess.Simulation.Static.World.Brushes.pCollideable, pPortalSimulator->m_DataAccess.Placement.ptaap_LinkedToThis.ptOriginTransform, pPortalSimulator->m_DataAccess.Placement.ptaap_LinkedToThis.qAngleTransform, &tempTrace );
physcollision->TraceBox( entRay, MASK_ALL, NULL, pLinkedPortalSimulator->m_DataAccess.Simulation.Static.World.Brushes.pCollideable, pPortalSimulator->m_DataAccess.Placement.ptaap_LinkedToThis.ptOriginTransform, pPortalSimulator->m_DataAccess.Placement.ptaap_LinkedToThis.qAngleTransform, &tempTrace );
if ( tempTrace.startsolid || (tempTrace.fraction < pTrace->fraction) )
{
*pTrace = tempTrace;
}
}
if ( pPortalSimulator->m_DataAccess.Simulation.Static.Wall.Local.Brushes.pCollideable &&
sv_portal_trace_vs_holywall.GetBool() )
{
//physcollision->TraceCollide( vecAbsStart, vecAbsEnd, pCollision, qCollisionAngles,
// pPortalSimulator->m_DataAccess.Simulation.Static.Wall.Local.Brushes.pCollideable, vec3_origin, vec3_angle, &tempTrace );
physcollision->TraceBox( entRay, MASK_ALL, NULL, pPortalSimulator->m_DataAccess.Simulation.Static.Wall.Local.Brushes.pCollideable, vec3_origin, vec3_angle, &tempTrace );
if ( tempTrace.startsolid || (tempTrace.fraction < pTrace->fraction) )
{
if( tempTrace.fraction == 0.0f )
tempTrace.startsolid = true;
if( tempTrace.fractionleftsolid == 1.0f )
tempTrace.allsolid = true;
*pTrace = tempTrace;
}
}
if ( pPortalSimulator->m_DataAccess.Simulation.Static.Wall.Local.Tube.pCollideable &&
sv_portal_trace_vs_holywall.GetBool() )
{
//physcollision->TraceCollide( vecAbsStart, vecAbsEnd, pCollision, qCollisionAngles,
// pPortalSimulator->m_DataAccess.Simulation.Static.Wall.Local.Tube.pCollideable, vec3_origin, vec3_angle, &tempTrace );
physcollision->TraceBox( entRay, MASK_ALL, NULL, pPortalSimulator->m_DataAccess.Simulation.Static.Wall.Local.Tube.pCollideable, vec3_origin, vec3_angle, &tempTrace );
if( (tempTrace.startsolid == false) && (tempTrace.fraction < pTrace->fraction) ) //never allow something to be stuck in the tube, it's more of a last-resort guide than a real collideable
{
*pTrace = tempTrace;
}
}
// For all brush traces, use the 'portal backbrush' surface surface contents
// BUGBUG: Doing this is a great solution because brushes near a portal
// will have their contents and surface properties homogenized to the brush the portal ray hit.
if ( pTrace->startsolid || (pTrace->fraction < 1.0f) )
{
pTrace->surface = pPortalSimulator->m_DataAccess.Simulation.Static.SurfaceProperties.surface;
pTrace->contents = pPortalSimulator->m_DataAccess.Simulation.Static.SurfaceProperties.contents;
pTrace->m_pEnt = pPortalSimulator->m_DataAccess.Simulation.Static.SurfaceProperties.pEntity;
}
}
// Trace vs entities
if ( pFilter->GetTraceType() != TRACE_WORLD_ONLY )
{
if( sv_portal_trace_vs_staticprops.GetBool() && (pFilter->GetTraceType() != TRACE_ENTITIES_ONLY) )
{
bool bFilterStaticProps = (pFilter->GetTraceType() == TRACE_EVERYTHING_FILTER_PROPS);
//local clipped static props
{
int iLocalStaticCount = pPortalSimulator->m_DataAccess.Simulation.Static.World.StaticProps.ClippedRepresentations.Count();
if( iLocalStaticCount != 0 && pPortalSimulator->m_DataAccess.Simulation.Static.World.StaticProps.bCollisionExists )
{
const PS_SD_Static_World_StaticProps_ClippedProp_t *pCurrentProp = pPortalSimulator->m_DataAccess.Simulation.Static.World.StaticProps.ClippedRepresentations.Base();
const PS_SD_Static_World_StaticProps_ClippedProp_t *pStop = pCurrentProp + iLocalStaticCount;
Vector vTransform = vec3_origin;
QAngle qTransform = vec3_angle;
do
{
if( (!bFilterStaticProps) || pFilter->ShouldHitEntity( pCurrentProp->pSourceProp, mask ) )
{
//physcollision->TraceCollide( vecAbsStart, vecAbsEnd, pCollision, qCollisionAngles,
// pCurrentProp->pCollide, vTransform, qTransform, &tempTrace );
physcollision->TraceBox( entRay, MASK_ALL, NULL, pCurrentProp->pCollide, vTransform, qTransform, &tempTrace );
if( tempTrace.startsolid || (tempTrace.fraction < pTrace->fraction) )
{
*pTrace = tempTrace;
pTrace->surface.flags = pCurrentProp->iTraceSurfaceFlags;
pTrace->surface.surfaceProps = pCurrentProp->iTraceSurfaceProps;
pTrace->surface.name = pCurrentProp->szTraceSurfaceName;
pTrace->contents = pCurrentProp->iTraceContents;
pTrace->m_pEnt = pCurrentProp->pTraceEntity;
}
}
++pCurrentProp;
}
while( pCurrentProp != pStop );
}
}
if( pLinkedPortalSimulator && pPortalSimulator->EntityIsInPortalHole( pEntity ) )
{
#ifndef CLIENT_DLL
if( sv_use_transformed_collideables.GetBool() ) //if this never gets turned off, it should be removed before release
{
//moving entities near the remote portal
CBaseEntity *pEnts[1024];
int iEntCount = pLinkedPortalSimulator->GetMoveableOwnedEntities( pEnts, 1024 );
CTransformedCollideable transformedCollideable;
transformedCollideable.m_matTransform = pLinkedPortalSimulator->m_DataAccess.Placement.matThisToLinked;
transformedCollideable.m_matInvTransform = pLinkedPortalSimulator->m_DataAccess.Placement.matLinkedToThis;
for( int i = 0; i != iEntCount; ++i )
{
CBaseEntity *pRemoteEntity = pEnts[i];
if( pRemoteEntity->GetSolid() == SOLID_NONE )
continue;
transformedCollideable.m_pWrappedCollideable = pRemoteEntity->GetCollideable();
Assert( transformedCollideable.m_pWrappedCollideable != NULL );
//enginetrace->ClipRayToCollideable( entRay, mask, &transformedCollideable, pTrace );
enginetrace->ClipRayToCollideable( entRay, mask, &transformedCollideable, &tempTrace );
if( tempTrace.startsolid || (tempTrace.fraction < pTrace->fraction) )
{
*pTrace = tempTrace;
}
}
}
#endif //#ifndef CLIENT_DLL
}
}
}
if( pTrace->fraction == 1.0f )
{
memset( pTrace, 0, sizeof( trace_t ) );
pTrace->fraction = 1.0f;
pTrace->startpos = vecAbsStart;
pTrace->endpos = vecAbsEnd;
}
//#endif
}
}
void UTIL_Portal_PointTransform( const VMatrix matThisToLinked, const Vector &ptSource, Vector &ptTransformed )
{
ptTransformed = matThisToLinked * ptSource;
}
void UTIL_Portal_VectorTransform( const VMatrix matThisToLinked, const Vector &vSource, Vector &vTransformed )
{
vTransformed = matThisToLinked.ApplyRotation( vSource );
}
void UTIL_Portal_AngleTransform( const VMatrix matThisToLinked, const QAngle &qSource, QAngle &qTransformed )
{
qTransformed = TransformAnglesToWorldSpace( qSource, matThisToLinked.As3x4() );
}
void UTIL_Portal_RayTransform( const VMatrix matThisToLinked, const Ray_t &raySource, Ray_t &rayTransformed )
{
rayTransformed = raySource;
UTIL_Portal_PointTransform( matThisToLinked, raySource.m_Start, rayTransformed.m_Start );
UTIL_Portal_VectorTransform( matThisToLinked, raySource.m_StartOffset, rayTransformed.m_StartOffset );
UTIL_Portal_VectorTransform( matThisToLinked, raySource.m_Delta, rayTransformed.m_Delta );
//BUGBUG: Extents are axis aligned, so rotating it won't necessarily give us what we're expecting
UTIL_Portal_VectorTransform( matThisToLinked, raySource.m_Extents, rayTransformed.m_Extents );
//HACKHACK: Negative extents hang in traces, make each positive because we rotated it above
if ( rayTransformed.m_Extents.x < 0.0f )
{
rayTransformed.m_Extents.x = -rayTransformed.m_Extents.x;
}
if ( rayTransformed.m_Extents.y < 0.0f )
{
rayTransformed.m_Extents.y = -rayTransformed.m_Extents.y;
}
if ( rayTransformed.m_Extents.z < 0.0f )
{
rayTransformed.m_Extents.z = -rayTransformed.m_Extents.z;
}
}
void UTIL_Portal_PlaneTransform( const VMatrix matThisToLinked, const cplane_t &planeSource, cplane_t &planeTransformed )
{
planeTransformed = planeSource;
Vector vTrans;
UTIL_Portal_VectorTransform( matThisToLinked, planeSource.normal, planeTransformed.normal );
planeTransformed.dist = planeSource.dist * DotProduct( planeTransformed.normal, planeTransformed.normal );
planeTransformed.dist += DotProduct( planeTransformed.normal, matThisToLinked.GetTranslation( vTrans ) );
}
void UTIL_Portal_PlaneTransform( const VMatrix matThisToLinked, const VPlane &planeSource, VPlane &planeTransformed )
{
Vector vTranformedNormal;
float fTransformedDist;
Vector vTrans;
UTIL_Portal_VectorTransform( matThisToLinked, planeSource.m_Normal, vTranformedNormal );
fTransformedDist = planeSource.m_Dist * DotProduct( vTranformedNormal, vTranformedNormal );
fTransformedDist += DotProduct( vTranformedNormal, matThisToLinked.GetTranslation( vTrans ) );
planeTransformed.Init( vTranformedNormal, fTransformedDist );
}
void UTIL_Portal_Triangles( const Vector &ptPortalCenter, const QAngle &qPortalAngles, Vector pvTri1[ 3 ], Vector pvTri2[ 3 ] )
{
// Get points to make triangles
Vector vRight, vUp;
AngleVectors( qPortalAngles, NULL, &vRight, &vUp );
Vector vTopEdge = vUp * PORTAL_HALF_HEIGHT;
Vector vBottomEdge = -vTopEdge;
Vector vRightEdge = vRight * PORTAL_HALF_WIDTH;
Vector vLeftEdge = -vRightEdge;
Vector vTopLeft = ptPortalCenter + vTopEdge + vLeftEdge;
Vector vTopRight = ptPortalCenter + vTopEdge + vRightEdge;
Vector vBottomLeft = ptPortalCenter + vBottomEdge + vLeftEdge;
Vector vBottomRight = ptPortalCenter + vBottomEdge + vRightEdge;
// Make triangles
pvTri1[ 0 ] = vTopRight;
pvTri1[ 1 ] = vTopLeft;
pvTri1[ 2 ] = vBottomLeft;
pvTri2[ 0 ] = vTopRight;
pvTri2[ 1 ] = vBottomLeft;
pvTri2[ 2 ] = vBottomRight;
}
void UTIL_Portal_Triangles( const CProp_Portal *pPortal, Vector pvTri1[ 3 ], Vector pvTri2[ 3 ] )
{
UTIL_Portal_Triangles( pPortal->GetAbsOrigin(), pPortal->GetAbsAngles(), pvTri1, pvTri2 );
}
float UTIL_Portal_DistanceThroughPortal( const CProp_Portal *pPortal, const Vector &vPoint1, const Vector &vPoint2 )
{
return FastSqrt( UTIL_Portal_DistanceThroughPortalSqr( pPortal, vPoint1, vPoint2 ) );
}
float UTIL_Portal_DistanceThroughPortalSqr( const CProp_Portal *pPortal, const Vector &vPoint1, const Vector &vPoint2 )
{
if ( !pPortal || !pPortal->m_bActivated )
return -1.0f;
CProp_Portal *pPortalLinked = pPortal->m_hLinkedPortal;
if ( !pPortalLinked || !pPortalLinked->m_bActivated )
return -1.0f;
return vPoint1.DistToSqr( pPortal->GetAbsOrigin() ) + pPortalLinked->GetAbsOrigin().DistToSqr( vPoint2 );
}
float UTIL_Portal_ShortestDistance( const Vector &vPoint1, const Vector &vPoint2, CProp_Portal **pShortestDistPortal_Out /*= NULL*/, bool bRequireStraightLine /*= false*/ )
{
return FastSqrt( UTIL_Portal_ShortestDistanceSqr( vPoint1, vPoint2, pShortestDistPortal_Out, bRequireStraightLine ) );
}
float UTIL_Portal_ShortestDistanceSqr( const Vector &vPoint1, const Vector &vPoint2, CProp_Portal **pShortestDistPortal_Out /*= NULL*/, bool bRequireStraightLine /*= false*/ )
{
float fMinDist = vPoint1.DistToSqr( vPoint2 );
int iPortalCount = CProp_Portal_Shared::AllPortals.Count();
if( iPortalCount == 0 )
{
if( pShortestDistPortal_Out )
*pShortestDistPortal_Out = NULL;
return fMinDist;
}
CProp_Portal **pPortals = CProp_Portal_Shared::AllPortals.Base();
CProp_Portal *pShortestDistPortal = NULL;
for( int i = 0; i != iPortalCount; ++i )
{
CProp_Portal *pTempPortal = pPortals[i];
if( pTempPortal->m_bActivated )
{
CProp_Portal *pLinkedPortal = pTempPortal->m_hLinkedPortal.Get();
if( pLinkedPortal != NULL )
{
Vector vPoint1Transformed = pTempPortal->MatrixThisToLinked() * vPoint1;
float fDirectDist = vPoint1Transformed.DistToSqr( vPoint2 );
if( fDirectDist < fMinDist )
{
//worth investigating further
//find out if it's a straight line through the portal, or if we have to wrap around a corner
float fPoint1TransformedDist = pLinkedPortal->m_plane_Origin.normal.Dot( vPoint1Transformed ) - pLinkedPortal->m_plane_Origin.dist;
float fPoint2Dist = pLinkedPortal->m_plane_Origin.normal.Dot( vPoint2 ) - pLinkedPortal->m_plane_Origin.dist;
bool bStraightLine = true;
if( (fPoint1TransformedDist > 0.0f) || (fPoint2Dist < 0.0f) ) //straight line through portal impossible, part of the line has to backtrack to get to the portal surface
bStraightLine = false;
if( bStraightLine ) //if we're not already doing some crazy wrapping, find an intersection point
{
float fTotalDist = fPoint2Dist - fPoint1TransformedDist; //fPoint1TransformedDist is known to be negative
Vector ptPlaneIntersection;
if( fTotalDist != 0.0f )
{
float fInvTotalDist = 1.0f / fTotalDist;
ptPlaneIntersection = (vPoint1Transformed * (fPoint2Dist * fInvTotalDist)) + (vPoint2 * ((-fPoint1TransformedDist) * fInvTotalDist));
}
else
{
ptPlaneIntersection = vPoint1Transformed;
}
Vector vRight, vUp;
pLinkedPortal->GetVectors( NULL, &vRight, &vUp );
Vector ptLinkedCenter = pLinkedPortal->GetAbsOrigin();
Vector vCenterToIntersection = ptPlaneIntersection - ptLinkedCenter;
float fRight = vRight.Dot( vCenterToIntersection );
float fUp = vUp.Dot( vCenterToIntersection );
float fAbsRight = fabs( fRight );
float fAbsUp = fabs( fUp );
if( (fAbsRight > PORTAL_HALF_WIDTH) ||
(fAbsUp > PORTAL_HALF_HEIGHT) )
bStraightLine = false;
if( bStraightLine == false )
{
if( bRequireStraightLine )
continue;
//find the offending extent and shorten both extents to bring it into the portal quad
float fNormalizer;
if( fAbsRight > PORTAL_HALF_WIDTH )
{
fNormalizer = fAbsRight/PORTAL_HALF_WIDTH;
if( fAbsUp > PORTAL_HALF_HEIGHT )
{
float fUpNormalizer = fAbsUp/PORTAL_HALF_HEIGHT;
if( fUpNormalizer > fNormalizer )
fNormalizer = fUpNormalizer;
}
}
else
{
fNormalizer = fAbsUp/PORTAL_HALF_HEIGHT;
}
vCenterToIntersection *= (1.0f/fNormalizer);
ptPlaneIntersection = ptLinkedCenter + vCenterToIntersection;
float fWrapDist = vPoint1Transformed.DistToSqr( ptPlaneIntersection ) + vPoint2.DistToSqr( ptPlaneIntersection );
if( fWrapDist < fMinDist )
{
fMinDist = fWrapDist;
pShortestDistPortal = pTempPortal;
}
}
else
{
//it's a straight shot from point 1 to 2 through the portal
fMinDist = fDirectDist;
pShortestDistPortal = pTempPortal;
}
}
else
{
if( bRequireStraightLine )
continue;
//do some crazy wrapped line intersection algorithm
//for now, just do the cheap and easy solution
float fWrapDist = vPoint1.DistToSqr( pTempPortal->GetAbsOrigin() ) + pLinkedPortal->GetAbsOrigin().DistToSqr( vPoint2 );
if( fWrapDist < fMinDist )
{
fMinDist = fWrapDist;
pShortestDistPortal = pTempPortal;
}
}
}
}
}
}
return fMinDist;
}
void UTIL_Portal_AABB( const CProp_Portal *pPortal, Vector &vMin, Vector &vMax )
{
Vector vOrigin = pPortal->GetAbsOrigin();
QAngle qAngles = pPortal->GetAbsAngles();
Vector vOBBForward;
Vector vOBBRight;
Vector vOBBUp;
AngleVectors( qAngles, &vOBBForward, &vOBBRight, &vOBBUp );
//scale the extents to usable sizes
vOBBForward *= PORTAL_HALF_DEPTH;
vOBBRight *= PORTAL_HALF_WIDTH;
vOBBUp *= PORTAL_HALF_HEIGHT;
vOrigin -= vOBBForward + vOBBRight + vOBBUp;
vOBBForward *= 2.0f;
vOBBRight *= 2.0f;
vOBBUp *= 2.0f;
vMin = vMax = vOrigin;
for( int i = 1; i != 8; ++i )
{
Vector ptTest = vOrigin;
if( i & (1 << 0) ) ptTest += vOBBForward;
if( i & (1 << 1) ) ptTest += vOBBRight;
if( i & (1 << 2) ) ptTest += vOBBUp;
if( ptTest.x < vMin.x ) vMin.x = ptTest.x;
if( ptTest.y < vMin.y ) vMin.y = ptTest.y;
if( ptTest.z < vMin.z ) vMin.z = ptTest.z;
if( ptTest.x > vMax.x ) vMax.x = ptTest.x;
if( ptTest.y > vMax.y ) vMax.y = ptTest.y;
if( ptTest.z > vMax.z ) vMax.z = ptTest.z;
}
}
float UTIL_IntersectRayWithPortal( const Ray_t &ray, const CProp_Portal *pPortal )
{
if ( !pPortal || !pPortal->m_bActivated )
{
return -1.0f;
}
Vector vForward;
pPortal->GetVectors( &vForward, NULL, NULL );
// Discount rays not coming from the front of the portal
float fDot = DotProduct( vForward, ray.m_Delta );
if ( fDot > 0.0f )
{
return -1.0f;
}
Vector pvTri1[ 3 ], pvTri2[ 3 ];
UTIL_Portal_Triangles( pPortal, pvTri1, pvTri2 );
float fT;
// Test triangle 1
fT = IntersectRayWithTriangle( ray, pvTri1[ 0 ], pvTri1[ 1 ], pvTri1[ 2 ], false );
// If there was an intersection return the T
if ( fT >= 0.0f )
return fT;
// Return the result of collision with the other face triangle
return IntersectRayWithTriangle( ray, pvTri2[ 0 ], pvTri2[ 1 ], pvTri2[ 2 ], false );
}
bool UTIL_IntersectRayWithPortalOBB( const CProp_Portal *pPortal, const Ray_t &ray, trace_t *pTrace )
{
return IntersectRayWithOBB( ray, pPortal->GetAbsOrigin(), pPortal->GetAbsAngles(), CProp_Portal_Shared::vLocalMins, CProp_Portal_Shared::vLocalMaxs, 0.0f, pTrace );
}
bool UTIL_IntersectRayWithPortalOBBAsAABB( const CProp_Portal *pPortal, const Ray_t &ray, trace_t *pTrace )
{
Vector vAABBMins, vAABBMaxs;
UTIL_Portal_AABB( pPortal, vAABBMins, vAABBMaxs );
return IntersectRayWithBox( ray, vAABBMins, vAABBMaxs, 0.0f, pTrace );
}
bool UTIL_IsBoxIntersectingPortal( const Vector &vecBoxCenter, const Vector &vecBoxExtents, const Vector &ptPortalCenter, const QAngle &qPortalAngles, float flTolerance )
{
Vector pvTri1[ 3 ], pvTri2[ 3 ];
UTIL_Portal_Triangles( ptPortalCenter, qPortalAngles, pvTri1, pvTri2 );
cplane_t plane;
ComputeTrianglePlane( pvTri1[ 0 ], pvTri1[ 1 ], pvTri1[ 2 ], plane.normal, plane.dist );
plane.type = PLANE_ANYZ;
plane.signbits = SignbitsForPlane( &plane );
if ( IsBoxIntersectingTriangle( vecBoxCenter, vecBoxExtents, pvTri1[ 0 ], pvTri1[ 1 ], pvTri1[ 2 ], plane, flTolerance ) )
{
return true;
}
ComputeTrianglePlane( pvTri2[ 0 ], pvTri2[ 1 ], pvTri2[ 2 ], plane.normal, plane.dist );
plane.type = PLANE_ANYZ;
plane.signbits = SignbitsForPlane( &plane );
return IsBoxIntersectingTriangle( vecBoxCenter, vecBoxExtents, pvTri2[ 0 ], pvTri2[ 1 ], pvTri2[ 2 ], plane, flTolerance );
}
bool UTIL_IsBoxIntersectingPortal( const Vector &vecBoxCenter, const Vector &vecBoxExtents, const CProp_Portal *pPortal, float flTolerance )
{
if( pPortal == NULL )
return false;
return UTIL_IsBoxIntersectingPortal( vecBoxCenter, vecBoxExtents, pPortal->GetAbsOrigin(), pPortal->GetAbsAngles(), flTolerance );
}
CProp_Portal *UTIL_IntersectEntityExtentsWithPortal( const CBaseEntity *pEntity )
{
int iPortalCount = CProp_Portal_Shared::AllPortals.Count();
if( iPortalCount == 0 )
return NULL;
Vector vMin, vMax;
pEntity->CollisionProp()->WorldSpaceAABB( &vMin, &vMax );
Vector ptCenter = ( vMin + vMax ) * 0.5f;
Vector vExtents = ( vMax - vMin ) * 0.5f;
CProp_Portal **pPortals = CProp_Portal_Shared::AllPortals.Base();
for( int i = 0; i != iPortalCount; ++i )
{
CProp_Portal *pTempPortal = pPortals[i];
if( pTempPortal->m_bActivated &&
(pTempPortal->m_hLinkedPortal.Get() != NULL) &&
UTIL_IsBoxIntersectingPortal( ptCenter, vExtents, pTempPortal ) )
{
return pPortals[i];
}
}
return NULL;
}
void UTIL_Portal_NDebugOverlay( const Vector &ptPortalCenter, const QAngle &qPortalAngles, int r, int g, int b, int a, bool noDepthTest, float duration )
{
#ifndef CLIENT_DLL
Vector pvTri1[ 3 ], pvTri2[ 3 ];
UTIL_Portal_Triangles( ptPortalCenter, qPortalAngles, pvTri1, pvTri2 );
NDebugOverlay::Triangle( pvTri1[ 0 ], pvTri1[ 1 ], pvTri1[ 2 ], r, g, b, a, noDepthTest, duration );
NDebugOverlay::Triangle( pvTri2[ 0 ], pvTri2[ 1 ], pvTri2[ 2 ], r, g, b, a, noDepthTest, duration );
#endif //#ifndef CLIENT_DLL
}
void UTIL_Portal_NDebugOverlay( const CProp_Portal *pPortal, int r, int g, int b, int a, bool noDepthTest, float duration )
{
#ifndef CLIENT_DLL
UTIL_Portal_NDebugOverlay( pPortal->GetAbsOrigin(), pPortal->GetAbsAngles(), r, g, b, a, noDepthTest, duration );
#endif //#ifndef CLIENT_DLL
}
bool FindClosestPassableSpace( CBaseEntity *pEntity, const Vector &vIndecisivePush, unsigned int fMask ) //assumes the object is already in a mostly passable space
{
if ( sv_use_find_closest_passable_space.GetBool() == false )
return true;
// Don't ever do this to entities with a move parent
if ( pEntity->GetMoveParent() )
return true;
#ifndef CLIENT_DLL
ADD_DEBUG_HISTORY( HISTORY_PLAYER_DAMAGE, UTIL_VarArgs( "RUNNING FIND CLOSEST PASSABLE SPACE on %s..\n", pEntity->GetDebugName() ) );
#endif
Vector ptExtents[8]; //ordering is going to be like 3 bits, where 0 is a min on the related axis, and 1 is a max on the same axis, axis order x y z
float fExtentsValidation[8]; //some points are more valid than others, and this is our measure
Vector vEntityMaxs;// = pEntity->WorldAlignMaxs();
Vector vEntityMins;// = pEntity->WorldAlignMins();
CCollisionProperty *pEntityCollision = pEntity->CollisionProp();
pEntityCollision->WorldSpaceAABB( &vEntityMins, &vEntityMaxs );
Vector ptEntityCenter = ((vEntityMins + vEntityMaxs) / 2.0f);
vEntityMins -= ptEntityCenter;
vEntityMaxs -= ptEntityCenter;
Vector ptEntityOriginalCenter = ptEntityCenter;
ptEntityCenter.z += 0.001f; //to satisfy m_IsSwept on first pass
int iEntityCollisionGroup = pEntity->GetCollisionGroup();
trace_t traces[2];
Ray_t entRay;
//entRay.Init( ptEntityCenter, ptEntityCenter, vEntityMins, vEntityMaxs );
entRay.m_Extents = vEntityMaxs;
entRay.m_IsRay = false;
entRay.m_IsSwept = true;
entRay.m_StartOffset = vec3_origin;
Vector vOriginalExtents = vEntityMaxs;
Vector vGrowSize = vEntityMaxs / 101.0f;
vEntityMaxs -= vGrowSize;
vEntityMins += vGrowSize;
Ray_t testRay;
testRay.m_Extents = vGrowSize;
testRay.m_IsRay = false;
testRay.m_IsSwept = true;
testRay.m_StartOffset = vec3_origin;
unsigned int iFailCount;
for( iFailCount = 0; iFailCount != 100; ++iFailCount )
{
entRay.m_Start = ptEntityCenter;
entRay.m_Delta = ptEntityOriginalCenter - ptEntityCenter;
UTIL_TraceRay( entRay, fMask, pEntity, iEntityCollisionGroup, &traces[0] );
if( traces[0].startsolid == false )
{
Vector vNewPos = traces[0].endpos + (pEntity->GetAbsOrigin() - ptEntityOriginalCenter);
#ifdef CLIENT_DLL
pEntity->SetAbsOrigin( vNewPos );
#else
pEntity->Teleport( &vNewPos, NULL, NULL );
#endif
return true; //current placement worked
}
bool bExtentInvalid[8];
for( int i = 0; i != 8; ++i )
{
fExtentsValidation[i] = 0.0f;
ptExtents[i] = ptEntityCenter;
ptExtents[i].x += ((i & (1<<0)) ? vEntityMaxs.x : vEntityMins.x);
ptExtents[i].y += ((i & (1<<1)) ? vEntityMaxs.y : vEntityMins.y);
ptExtents[i].z += ((i & (1<<2)) ? vEntityMaxs.z : vEntityMins.z);
bExtentInvalid[i] = enginetrace->PointOutsideWorld( ptExtents[i] );
}
unsigned int counter, counter2;
for( counter = 0; counter != 7; ++counter )
{
for( counter2 = counter + 1; counter2 != 8; ++counter2 )
{
testRay.m_Delta = ptExtents[counter2] - ptExtents[counter];
if( bExtentInvalid[counter] )
traces[0].startsolid = true;
else
{
testRay.m_Start = ptExtents[counter];
UTIL_TraceRay( testRay, fMask, pEntity, iEntityCollisionGroup, &traces[0] );
}
if( bExtentInvalid[counter2] )
traces[1].startsolid = true;
else
{
testRay.m_Start = ptExtents[counter2];
testRay.m_Delta = -testRay.m_Delta;
UTIL_TraceRay( testRay, fMask, pEntity, iEntityCollisionGroup, &traces[1] );
}
float fDistance = testRay.m_Delta.Length();
for( int i = 0; i != 2; ++i )
{
int iExtent = (i==0)?(counter):(counter2);
if( traces[i].startsolid )
{
fExtentsValidation[iExtent] -= 100.0f;
}
else
{
fExtentsValidation[iExtent] += traces[i].fraction * fDistance;
}
}
}
}
Vector vNewOriginDirection( 0.0f, 0.0f, 0.0f );
float fTotalValidation = 0.0f;
for( counter = 0; counter != 8; ++counter )
{
if( fExtentsValidation[counter] > 0.0f )
{
vNewOriginDirection += (ptExtents[counter] - ptEntityCenter) * fExtentsValidation[counter];
fTotalValidation += fExtentsValidation[counter];
}
}
if( fTotalValidation != 0.0f )
{
ptEntityCenter += (vNewOriginDirection / fTotalValidation);
//increase sizing
testRay.m_Extents += vGrowSize;
vEntityMaxs -= vGrowSize;
vEntityMins = -vEntityMaxs;
}
else
{
//no point was valid, apply the indecisive vector
ptEntityCenter += vIndecisivePush;
//reset sizing
testRay.m_Extents = vGrowSize;
vEntityMaxs = vOriginalExtents;
vEntityMins = -vEntityMaxs;
}
}
// X360TBD: Hits in portal devtest
AssertMsg( IsX360() || iFailCount != 100, "FindClosestPassableSpace() failure." );
return false;
}
bool UTIL_Portal_EntityIsInPortalHole( const CProp_Portal *pPortal, CBaseEntity *pEntity )
{
CCollisionProperty *pCollisionProp = pEntity->CollisionProp();
Vector vMins = pCollisionProp->OBBMins();
Vector vMaxs = pCollisionProp->OBBMaxs();
Vector vForward, vUp, vRight;
AngleVectors( pCollisionProp->GetCollisionAngles(), &vForward, &vRight, &vUp );
Vector ptOrigin = pEntity->GetAbsOrigin();
Vector ptOBBCenter = pEntity->GetAbsOrigin() + (vMins + vMaxs * 0.5f);
Vector vExtents = (vMaxs - vMins) * 0.5f;
vForward *= vExtents.x;
vRight *= vExtents.y;
vUp *= vExtents.z;
Vector vPortalForward, vPortalRight, vPortalUp;
pPortal->GetVectors( &vPortalForward, &vPortalRight, &vPortalUp );
Vector ptPortalCenter = pPortal->GetAbsOrigin();
return OBBHasFullyContainedIntersectionWithQuad( vForward, vRight, vUp, ptOBBCenter,
vPortalForward, vPortalForward.Dot( ptPortalCenter ), ptPortalCenter,
vPortalRight, PORTAL_HALF_WIDTH + 1.0f, vPortalUp, PORTAL_HALF_HEIGHT + 1.0f );
}
#ifdef CLIENT_DLL
void UTIL_TransformInterpolatedAngle( CInterpolatedVar< QAngle > &qInterped, matrix3x4_t matTransform, bool bSkipNewest )
{
int iHead = qInterped.GetHead();
if( !qInterped.IsValidIndex( iHead ) )
return;
#ifdef DBGFLAG_ASSERT
float fHeadTime;
qInterped.GetHistoryValue( iHead, fHeadTime );
#endif
float fTime;
QAngle *pCurrent;
int iCurrent;
if( bSkipNewest )
iCurrent = qInterped.GetNext( iHead );
else
iCurrent = iHead;
while( (pCurrent = qInterped.GetHistoryValue( iCurrent, fTime )) != NULL )
{
Assert( (fTime <= fHeadTime) || (iCurrent == iHead) ); //asserting that head is always newest
if( fTime < gpGlobals->curtime )
*pCurrent = TransformAnglesToWorldSpace( *pCurrent, matTransform );
iCurrent = qInterped.GetNext( iCurrent );
if( iCurrent == iHead )
break;
}
qInterped.Interpolate( gpGlobals->curtime );
}
void UTIL_TransformInterpolatedPosition( CInterpolatedVar< Vector > &vInterped, VMatrix matTransform, bool bSkipNewest )
{
int iHead = vInterped.GetHead();
if( !vInterped.IsValidIndex( iHead ) )
return;
#ifdef DBGFLAG_ASSERT
float fHeadTime;
vInterped.GetHistoryValue( iHead, fHeadTime );
#endif
float fTime;
Vector *pCurrent;
int iCurrent;
if( bSkipNewest )
iCurrent = vInterped.GetNext( iHead );
else
iCurrent = iHead;
while( (pCurrent = vInterped.GetHistoryValue( iCurrent, fTime )) != NULL )
{
Assert( (fTime <= fHeadTime) || (iCurrent == iHead) );
if( fTime < gpGlobals->curtime )
*pCurrent = matTransform * (*pCurrent);
iCurrent = vInterped.GetNext( iCurrent );
if( iCurrent == iHead )
break;
}
vInterped.Interpolate( gpGlobals->curtime );
}
#endif
#ifndef CLIENT_DLL
void CC_Debug_FixMyPosition( void )
{
CBaseEntity *pPlayer = UTIL_GetCommandClient();
FindClosestPassableSpace( pPlayer, vec3_origin );
}
static ConCommand debug_fixmyposition("debug_fixmyposition", CC_Debug_FixMyPosition, "Runs FindsClosestPassableSpace() on player.", FCVAR_CHEAT );
#endif