void CGravControllerPoint::DetachEntity( void )
{
CBaseEntity *pEntity = m_attachedEntity;
if ( pEntity )
{
IPhysicsObject *pPhys = GetPhysObjFromPhysicsBone( pEntity, m_attachedPhysicsBone );
if ( pPhys )
{
// on the odd chance that it's gone to sleep while under anti-gravity
pPhys->Wake();
pPhys->SetDamping( NULL, &m_saveDamping );
pPhys->SetMass( m_saveMass );
}
}
m_attachedEntity = NULL;
m_attachedPhysicsBone = 0;
if ( physenv )
{
physenv->DestroyMotionController( m_controller );
}
m_controller = NULL;
// UNDONE: Does this help the networking?
m_targetPosition = vec3_origin;
m_worldPosition = vec3_origin;
}
bool CPushable::CreateVPhysics( void )
{
VPhysicsInitNormal( SOLID_VPHYSICS, 0, false );
IPhysicsObject *pPhysObj = VPhysicsGetObject();
if ( pPhysObj )
{
pPhysObj->SetMass( 30 );
// Vector vecInertia = Vector(800, 800, 800);
// pPhysObj->SetInertia( vecInertia );
}
return true;
}
//-----------------------------------------------------------------------------
// Purpose: Input handler for setting the breakable's mass.
//-----------------------------------------------------------------------------
void CBreakable::InputSetMass( inputdata_t &inputdata )
{
IPhysicsObject * vPhys = VPhysicsGetObject();
if ( vPhys )
{
float toMass = inputdata.value.Float();
Assert(toMass > 0);
vPhys->SetMass( toMass );
}
else
{
Warning( "Tried to call SetMass() on %s but it has no physics.\n", GetEntityName().ToCStr() );
}
}
//-----------------------------------------------------------------------------
// Purpose: Creates a dense ball with a mass equal to the aggregate mass consumed by the vortex
//-----------------------------------------------------------------------------
void CGravityVortexController::CreateDenseBall( void )
{
CBaseEntity *pBall = CreateEntityByName( "prop_physics" );
pBall->SetModel( DENSE_BALL_MODEL );
pBall->SetAbsOrigin( GetAbsOrigin() );
pBall->Spawn();
IPhysicsObject *pObj = pBall->VPhysicsGetObject();
if ( pObj != NULL )
{
pObj->SetMass( GetConsumedMass() );
}
}
void CGrabController::DetachEntity( bool bClearVelocity )
{
Assert(!PhysIsInCallback());
CBaseEntity *pEntity = GetAttached();
if ( pEntity )
{
// Restore the LS blocking state
pEntity->SetBlocksLOS( m_bCarriedEntityBlocksLOS );
IPhysicsObject *pList[VPHYSICS_MAX_OBJECT_LIST_COUNT];
int count = pEntity->VPhysicsGetObjectList( pList, ARRAYSIZE(pList) );
for ( int i = 0; i < count; i++ )
{
IPhysicsObject *pPhys = pList[i];
if ( !pPhys )
continue;
// on the odd chance that it's gone to sleep while under anti-gravity
pPhys->EnableDrag( true );
pPhys->Wake();
pPhys->SetMass( m_savedMass[i] );
pPhys->SetDamping( NULL, &m_savedRotDamping[i] );
PhysClearGameFlags( pPhys, FVPHYSICS_PLAYER_HELD );
if ( bClearVelocity )
{
PhysForceClearVelocity( pPhys );
}
else
{
ClampPhysicsVelocity( pPhys, player_walkspeed.GetFloat() * 1.5f, 2.0f * 360.0f );
}
}
}
m_attachedEntity = NULL;
physenv->DestroyMotionController( m_controller );
m_controller = NULL;
}
//Actual work code
IterationRetval_t EnumElement( IHandleEntity *pHandleEntity )
{
C_BaseEntity *pEnt = ClientEntityList().GetBaseEntityFromHandle( pHandleEntity->GetRefEHandle() );
if ( pEnt == NULL )
return ITERATION_CONTINUE;
C_BaseAnimating *pModel = static_cast< C_BaseAnimating * >( pEnt );
if ( pModel == NULL )
return ITERATION_CONTINUE;
trace_t tr;
enginetrace->ClipRayToEntity( m_rayShot, MASK_SHOT, pModel, &tr );
IPhysicsObject *pPhysicsObject = NULL;
//Find the real object we hit.
if( tr.physicsbone >= 0 )
{
if ( pModel->m_pRagdoll )
{
CRagdoll *pCRagdoll = dynamic_cast < CRagdoll * > ( pModel->m_pRagdoll );
if ( pCRagdoll )
{
ragdoll_t *pRagdollT = pCRagdoll->GetRagdoll();
if ( tr.physicsbone < pRagdollT->listCount )
{
pPhysicsObject = pRagdollT->list[tr.physicsbone].pObject;
}
}
}
}
if ( pPhysicsObject == NULL )
return ITERATION_CONTINUE;
if ( tr.fraction < 1.0 )
{
IPhysicsObject *pReference = GetWorldPhysObject();
if ( pReference == NULL || pPhysicsObject == NULL )
return ITERATION_CONTINUE;
float flMass = pPhysicsObject->GetMass();
pPhysicsObject->SetMass( flMass * 2 );
constraint_ballsocketparams_t ballsocket;
ballsocket.Defaults();
pReference->WorldToLocal( &ballsocket.constraintPosition[0], m_vWorld );
pPhysicsObject->WorldToLocal( &ballsocket.constraintPosition[1], tr.endpos );
physenv->CreateBallsocketConstraint( pReference, pPhysicsObject, NULL, ballsocket );
//Play a sound
CPASAttenuationFilter filter( pEnt );
EmitSound_t ep;
ep.m_nChannel = CHAN_VOICE;
ep.m_pSoundName = "Weapon_Crossbow.BoltSkewer";
ep.m_flVolume = 1.0f;
ep.m_SoundLevel = SNDLVL_NORM;
ep.m_pOrigin = &pEnt->GetAbsOrigin();
C_BaseEntity::EmitSound( filter, SOUND_FROM_WORLD, ep );
return ITERATION_STOP;
}
return ITERATION_CONTINUE;
}
//-----------------------------------------------------------------------------
// Purpose:
// Input : *pOther -
//-----------------------------------------------------------------------------
void CGrappleHook::HookTouch(CBaseEntity *pOther)
{
if (!pOther->IsSolid() || pOther->IsSolidFlagSet(FSOLID_VOLUME_CONTENTS))
return;
if ((pOther != m_hOwner) && (pOther->m_takedamage != DAMAGE_NO))
{
m_hOwner->NotifyHookDied();
SetTouch(NULL);
SetThink(NULL);
UTIL_Remove(this);
}
else
{
trace_t tr;
tr = BaseClass::GetTouchTrace();
// See if we struck the world
if (pOther->GetMoveType() == MOVETYPE_NONE && !(tr.surface.flags & SURF_SKY))
{
EmitSound("Weapon_AR2.Reload_Push");
// if what we hit is static architecture, can stay around for a while.
Vector vecDir = GetAbsVelocity();
//FIXME: We actually want to stick (with hierarchy) to what we've hit
SetMoveType(MOVETYPE_NONE);
Vector vForward;
AngleVectors(GetAbsAngles(), &vForward);
VectorNormalize(vForward);
CEffectData data;
data.m_vOrigin = tr.endpos;
data.m_vNormal = vForward;
data.m_nEntIndex = 0;
// DispatchEffect( "Impact", data );
// AddEffects( EF_NODRAW );
SetTouch(NULL);
VPhysicsDestroyObject();
VPhysicsInitNormal(SOLID_VPHYSICS, FSOLID_NOT_STANDABLE, false);
AddSolidFlags(FSOLID_NOT_SOLID);
// SetMoveType( MOVETYPE_NONE );
if (!m_hPlayer)
{
Assert(0);
return;
}
// Set Jay's gai flag
m_hPlayer->SetPhysicsFlag(PFLAG_VPHYSICS_MOTIONCONTROLLER, true);
//IPhysicsObject *pPhysObject = m_hPlayer->VPhysicsGetObject();
IPhysicsObject *pRootPhysObject = VPhysicsGetObject();
Assert(pRootPhysObject);
//Assert(pPhysObject);
pRootPhysObject->EnableMotion(false);
// Root has huge mass, tip has little
pRootPhysObject->SetMass(VPHYSICS_MAX_MASS);
// pPhysObject->SetMass( 100 );
// float damping = 3;
// pPhysObject->SetDamping( &damping, &damping );
Vector origin = m_hPlayer->GetAbsOrigin();
Vector rootOrigin = GetAbsOrigin();
m_fSpringLength = (origin - rootOrigin).Length();
m_bPlayerWasStanding = ((m_hPlayer->GetFlags() & FL_DUCKING) == 0);
SetThink(&CGrappleHook::HookedThink);
SetNextThink(gpGlobals->curtime + 0.1f);
}
else
{
// Put a mark unless we've hit the sky
if ((tr.surface.flags & SURF_SKY) == false)
{
UTIL_ImpactTrace(&tr, DMG_BULLET);
}
SetTouch(NULL);
SetThink(NULL);
m_hOwner->NotifyHookDied();
UTIL_Remove(this);
}
}
}
bool CStatueProp::CreateVPhysicsFromOBBs( CBaseAnimating *pInitBaseAnimating )
{
// Make enough pointers to convexes for each hitbox
CPhysConvex **ppConvex = new (CPhysConvex*[ m_pInitOBBs->Count() ]);
float flTotalVolume = 0.0f;
float flTotalSurfaceArea = 0.0f;
for ( int i = 0; i < m_pInitOBBs->Count(); i++ )
{
const outer_collision_obb_t *pOBB = &((*m_pInitOBBs)[ i ]);
// Accumulate volume and area
Vector flDimentions = pOBB->vecMaxs - pOBB->vecMins;
flTotalVolume += flDimentions.x * flDimentions.y * flDimentions.z;
flTotalSurfaceArea += 2.0f * ( flDimentions.x * flDimentions.y + flDimentions.x * flDimentions.z + flDimentions.y * flDimentions.z );
// Get angled min and max extents
Vector vecMins, vecMaxs;
VectorRotate( pOBB->vecMins, pOBB->angAngles, vecMins );
VectorRotate( pOBB->vecMaxs, pOBB->angAngles, vecMaxs );
// Get the corners in world space
Vector vecMinCorner = pOBB->vecPos + vecMins;
Vector vecMaxCorner = pOBB->vecPos + vecMaxs;
// Get the normals of the hitbox in world space
Vector vecForward, vecRight, vecUp;
AngleVectors( pOBB->angAngles, &vecForward, &vecRight, &vecUp );
vecRight = -vecRight;
// Convert corners and normals to local space
Vector vecCornerLocal[ 2 ];
Vector vecNormalLocal[ 3 ];
matrix3x4_t matToWorld = EntityToWorldTransform();
VectorITransform( vecMaxCorner, matToWorld, vecCornerLocal[ 0 ] );
VectorITransform( vecMinCorner, matToWorld, vecCornerLocal[ 1 ] );
VectorIRotate( vecForward, matToWorld, vecNormalLocal[ 0 ] );
VectorIRotate( vecRight, matToWorld, vecNormalLocal[ 1 ] );
VectorIRotate( vecUp, matToWorld, vecNormalLocal[ 2 ] );
// Create 6 planes from the local oriented hit box data
float pPlanes[ 4 * 6 ];
for ( int iPlane = 0; iPlane < 6; ++iPlane )
{
int iPlaneMod2 = iPlane % 2;
int iPlaneDiv2 = iPlane / 2;
bool bOdd = ( iPlaneMod2 == 1 );
// Plane Normal
pPlanes[ iPlane * 4 + 0 ] = vecNormalLocal[ iPlaneDiv2 ].x * ( bOdd ? -1.0f : 1.0f );
pPlanes[ iPlane * 4 + 1 ] = vecNormalLocal[ iPlaneDiv2 ].y * ( bOdd ? -1.0f : 1.0f );
pPlanes[ iPlane * 4 + 2 ] = vecNormalLocal[ iPlaneDiv2 ].z * ( bOdd ? -1.0f : 1.0f );
// Plane D
pPlanes[ iPlane * 4 + 3 ] = ( vecCornerLocal[ iPlaneMod2 ].x * vecNormalLocal[ iPlaneDiv2 ].x +
vecCornerLocal[ iPlaneMod2 ].y * vecNormalLocal[ iPlaneDiv2 ].y +
vecCornerLocal[ iPlaneMod2 ].z * vecNormalLocal[ iPlaneDiv2 ].z ) * ( bOdd ? -1.0f : 1.0f );
}
// Create convex from the intersection of these planes
ppConvex[ i ] = physcollision->ConvexFromPlanes( pPlanes, 6, 0.0f );
}
// Make a single collide out of the group of convex boxes
CPhysCollide *pPhysCollide = physcollision->ConvertConvexToCollide( ppConvex, m_pInitOBBs->Count() );
delete[] ppConvex;
// Create the physics object
objectparams_t params = g_PhysDefaultObjectParams;
params.pGameData = static_cast<void *>( this );
int nMaterialIndex = physprops->GetSurfaceIndex( "ice" ); // use ice material
IPhysicsObject* p = physenv->CreatePolyObject( pPhysCollide, nMaterialIndex, GetAbsOrigin(), GetAbsAngles(), ¶ms );
Assert( p != NULL );
// Set velocity
Vector vecInitialVelocity = pInitBaseAnimating->GetAbsVelocity();
p->SetVelocity( &vecInitialVelocity, NULL );
// Compute mass
float flMass;
float flDensity, flThickness;
physprops->GetPhysicsProperties( nMaterialIndex, &flDensity, &flThickness, NULL, NULL );
// Make it more hollow
flThickness = MIN ( 1.0f, flThickness + 0.5f );
if ( flThickness > 0.0f )
{
flMass = flTotalSurfaceArea * flThickness * CUBIC_METERS_PER_CUBIC_INCH * flDensity;
}
else
{
// density is in kg/m^3, volume is in in^3
flMass = flTotalVolume * CUBIC_METERS_PER_CUBIC_INCH * flDensity;
}
// Mass is somewhere between the original and if it was all ice
p->SetMass( flMass );
// Yes, gravity
p->EnableGravity( true );
// Use this as our vphysics
VPhysicsSetObject( p );
SetSolid( SOLID_VPHYSICS );
AddSolidFlags( FSOLID_CUSTOMRAYTEST | FSOLID_CUSTOMBOXTEST );
SetMoveType( MOVETYPE_VPHYSICS );
m_pInitOBBs = NULL;
return true;
}
bool CStatueProp::CreateVPhysicsFromHitBoxes( CBaseAnimating *pInitBaseAnimating )
{
if ( !pInitBaseAnimating )
return false;
// Use the current animation sequence and cycle
CopyAnimationDataFrom( pInitBaseAnimating );
// Copy over any render color
color24 colorRender = pInitBaseAnimating->GetRenderColor();
SetRenderColor( colorRender.r, colorRender.g, colorRender.b );
SetRenderAlpha( pInitBaseAnimating->GetRenderAlpha() );
// Get hitbox data
CStudioHdr *pStudioHdr = GetModelPtr();
if ( !pStudioHdr )
return false;
mstudiohitboxset_t *set = pStudioHdr->pHitboxSet( m_nHitboxSet );
if ( !set )
return false;
Vector position;
QAngle angles;
// Make enough pointers to convexes for each hitbox
CPhysConvex **ppConvex = new (CPhysConvex*[ set->numhitboxes ]);
float flTotalVolume = 0.0f;
float flTotalSurfaceArea = 0.0f;
for ( int i = 0; i < set->numhitboxes; i++ )
{
// Get the hitbox info
mstudiobbox_t *pbox = set->pHitbox( i );
GetBonePosition( pbox->bone, position, angles );
// Accumulate volume and area
Vector flDimentions = pbox->bbmax - pbox->bbmin;
flTotalVolume += flDimentions.x * flDimentions.y * flDimentions.z;
flTotalSurfaceArea += 2.0f * ( flDimentions.x * flDimentions.y + flDimentions.x * flDimentions.z + flDimentions.y * flDimentions.z );
// Get angled min and max extents
Vector vecMins, vecMaxs;
VectorRotate( pbox->bbmin, angles, vecMins );
VectorRotate( pbox->bbmax, angles, vecMaxs );
// Get the corners in world space
Vector vecMinCorner = position + vecMins;
Vector vecMaxCorner = position + vecMaxs;
// Get the normals of the hitbox in world space
Vector vecForward, vecRight, vecUp;
AngleVectors( angles, &vecForward, &vecRight, &vecUp );
vecRight = -vecRight;
// Convert corners and normals to local space
Vector vecCornerLocal[ 2 ];
Vector vecNormalLocal[ 3 ];
matrix3x4_t matToWorld = EntityToWorldTransform();
VectorITransform( vecMaxCorner, matToWorld, vecCornerLocal[ 0 ] );
VectorITransform( vecMinCorner, matToWorld, vecCornerLocal[ 1 ] );
VectorIRotate( vecForward, matToWorld, vecNormalLocal[ 0 ] );
VectorIRotate( vecRight, matToWorld, vecNormalLocal[ 1 ] );
VectorIRotate( vecUp, matToWorld, vecNormalLocal[ 2 ] );
// Create 6 planes from the local oriented hit box data
float pPlanes[ 4 * 6 ];
for ( int iPlane = 0; iPlane < 6; ++iPlane )
{
int iPlaneMod2 = iPlane % 2;
int iPlaneDiv2 = iPlane / 2;
bool bOdd = ( iPlaneMod2 == 1 );
// Plane Normal
pPlanes[ iPlane * 4 + 0 ] = vecNormalLocal[ iPlaneDiv2 ].x * ( bOdd ? -1.0f : 1.0f );
pPlanes[ iPlane * 4 + 1 ] = vecNormalLocal[ iPlaneDiv2 ].y * ( bOdd ? -1.0f : 1.0f );
pPlanes[ iPlane * 4 + 2 ] = vecNormalLocal[ iPlaneDiv2 ].z * ( bOdd ? -1.0f : 1.0f );
// Plane D
pPlanes[ iPlane * 4 + 3 ] = ( vecCornerLocal[ iPlaneMod2 ].x * vecNormalLocal[ iPlaneDiv2 ].x +
vecCornerLocal[ iPlaneMod2 ].y * vecNormalLocal[ iPlaneDiv2 ].y +
vecCornerLocal[ iPlaneMod2 ].z * vecNormalLocal[ iPlaneDiv2 ].z ) * ( bOdd ? -1.0f : 1.0f );
}
// Create convex from the intersection of these planes
ppConvex[ i ] = physcollision->ConvexFromPlanes( pPlanes, 6, 0.0f );
}
// Make a single collide out of the group of convex boxes
CPhysCollide *pPhysCollide = physcollision->ConvertConvexToCollide( ppConvex, set->numhitboxes );
delete[] ppConvex;
// Create the physics object
objectparams_t params = g_PhysDefaultObjectParams;
params.pGameData = static_cast<void *>( this );
int nMaterialIndex = physprops->GetSurfaceIndex( "ice" ); // use ice material
IPhysicsObject* p = physenv->CreatePolyObject( pPhysCollide, nMaterialIndex, GetAbsOrigin(), GetAbsAngles(), ¶ms );
Assert( p != NULL );
// Set velocity
Vector vecInitialVelocity = pInitBaseAnimating->GetAbsVelocity();
p->SetVelocity( &vecInitialVelocity, NULL );
// Compute mass
float flMass;
float flDensity, flThickness;
physprops->GetPhysicsProperties( nMaterialIndex, &flDensity, &flThickness, NULL, NULL );
// Make it more hollow
flThickness = MIN ( 1.0f, flThickness + 0.5f );
if ( flThickness > 0.0f )
{
flMass = flTotalSurfaceArea * flThickness * CUBIC_METERS_PER_CUBIC_INCH * flDensity;
}
else
{
// density is in kg/m^3, volume is in in^3
flMass = flTotalVolume * CUBIC_METERS_PER_CUBIC_INCH * flDensity;
}
// Mass is somewhere between the original and if it was all ice
p->SetMass( flMass );
// Yes, gravity
p->EnableGravity( true );
// Use this as our vphysics
VPhysicsSetObject( p );
SetSolid( SOLID_VPHYSICS );
AddSolidFlags( FSOLID_CUSTOMRAYTEST | FSOLID_CUSTOMBOXTEST );
SetMoveType( MOVETYPE_VPHYSICS );
if ( pInitBaseAnimating != this )
{
// Transfer children from the init base animating
TransferChildren( pInitBaseAnimating, this );
CBaseEntity *pChild = FirstMoveChild();
while ( pChild )
{
CEntityFreezing *pFreezing = dynamic_cast<CEntityFreezing*>( pChild );
if ( pFreezing )
{
pFreezing->FinishFreezing();
}
pChild = pChild->NextMovePeer();
}
}
return true;
}