void CPlayerPickupController::Init( CBasePlayer *pPlayer, CBaseEntity *pObject )
{
m_pPlayer = pPlayer;
IPhysicsObject *pPhysics = pObject->VPhysicsGetObject();
Vector position;
QAngle angles;
pPhysics->GetPosition( &position, &angles );
m_grabController.SetMaxImpulse( Vector(20*100,20*100,20*100), AngularImpulse(20*180,20*180,20*180) );
m_grabController.AttachEntity( pObject, pPhysics, position, angles );
// Holster player's weapon
if ( m_pPlayer->GetActiveWeapon() )
{
if ( !m_pPlayer->GetActiveWeapon()->Holster() )
{
Shutdown();
return;
}
}
m_pPlayer->m_Local.m_iHideHUD |= HIDEHUD_WEAPONS;
m_pPlayer->SetUseEntity( this );
matrix3x4_t tmp;
ComputePlayerMatrix( tmp );
VectorITransform( position, tmp, m_positionPlayerSpace );
// UNDONE: This algorithm needs a bit more thought. REVISIT.
// put the bottom of the object arms' length below eye level
// get bottommost point of object
Vector bottom = physcollision->CollideGetExtent( pPhysics->GetCollide(), vec3_origin, angles, Vector(0,0,-1) );
// get the real eye origin
Vector playerEye = pPlayer->EyePosition();
// move target up so that bottom of object is at PLAYER_HOLD_LEVEL z in local space
// float delta = PLAYER_HOLD_LEVEL_EYES - bottom.z - m_positionPlayerSpace.z;
float delta = 0;
// player can reach down 2ft below his feet
float maxPickup = (playerEye.z + PLAYER_HOLD_LEVEL_EYES) - (pPlayer->GetAbsMins().z - PLAYER_REACH_DOWN_DISTANCE);
delta = clamp( delta, pPlayer->WorldAlignMins().z, maxPickup );
m_positionPlayerSpace.z += delta;
m_anglesPlayerSpace = TransformAnglesToLocalSpace( angles, tmp );
m_anglesPlayerSpace = AlignAngles( m_anglesPlayerSpace, DOT_30DEGREE );
// re-transform and check
angles = TransformAnglesToWorldSpace( m_anglesPlayerSpace, tmp );
VectorTransform( m_positionPlayerSpace, tmp, position );
// hackhack: Move up to eye position for the check
float saveZ = position.z;
position.z = playerEye.z;
CheckObjectPosition( position, angles, position );
// move back to original position
position.z = saveZ;
VectorITransform( position, tmp, m_positionPlayerSpace );
}
void CDecal :: StaticDecal( void )
{
trace_t trace;
int entityIndex, modelIndex = 0;
Vector position = GetAbsOrigin();
UTIL_TraceLine( position - Vector(5,5,5), position + Vector(5,5,5), MASK_SOLID_BRUSHONLY, this, COLLISION_GROUP_NONE, &trace );
entityIndex = (short)trace.m_pEnt ? trace.m_pEnt->entindex() : 0;
if ( entityIndex )
{
CBaseEntity *ent = trace.m_pEnt;
if ( ent )
{
modelIndex = ent->GetModelIndex();
VectorITransform( GetAbsOrigin(), ent->EntityToWorldTransform(), position );
}
}
engine->StaticDecal( position, m_nTexture, entityIndex, modelIndex );
// CRecipientFilter initFilter;
// initFilter.MakeInitMessage();
// TE_BSPDecal( initFilter, GetAbsOrigin(), entityIndex, (int)pev->skin );
SUB_Remove();
}
// Converts world HL units to HL local/object units
void CPhysicsObject::WorldToLocal( Vector &localPosition, const Vector &worldPosition )
{
matrix3x4_t matrix;
GetPositionMatrix( matrix );
// copy in case the src == dest
VectorITransform( Vector(worldPosition), matrix, localPosition );
}
void CPhysicsObject::WorldToLocal(Vector *localPosition, const Vector &worldPosition) const {
if (!localPosition) return;
matrix3x4_t matrix;
GetPositionMatrix(&matrix);
VectorITransform(worldPosition, matrix, *localPosition);
}
//-----------------------------------------------------------------------------
// Purpose:
//-----------------------------------------------------------------------------
bool CFourWheelVehiclePhysics::VPhysicsUpdate( IPhysicsObject *pPhysics )
{
if ( r_vehicleDrawDebug.GetInt() )
{
DrawDebugGeometryOverlays();
}
// must be a wheel
if ( pPhysics == m_pOuter->VPhysicsGetObject() )
return true;
// This is here so we can make the pose parameters of the wheels
// reflect their current physics state
for ( int i = 0; i < m_wheelCount; i++ )
{
if ( pPhysics == m_pWheels[i] )
{
Vector tmp;
pPhysics->GetPosition( &m_wheelPosition[i], &m_wheelRotation[i] );
// transform the wheel into body space
VectorITransform( m_wheelPosition[i], m_pOuter->EntityToWorldTransform(), tmp );
SetPoseParameter( m_poseParameters[VEH_FL_WHEEL_HEIGHT + i], (m_wheelBaseHeight[i] - tmp.z) / m_wheelTotalHeight[i] );
SetPoseParameter( m_poseParameters[VEH_FL_WHEEL_SPIN + i], -m_wheelRotation[i].z );
return false;
}
}
return false;
}
//-----------------------------------------------------------------------------
// Purpose: Update the driver's gun
//-----------------------------------------------------------------------------
void CBaseTFVehicle::VehicleDriverGunThink( void )
{
if ( !m_hDriverGun )
return;
// No driver?
CBaseTFPlayer *pDriver = GetDriverPlayer();
if ( !pDriver )
return;
QAngle vecTargetAngles = m_hDriverGun->GetCurrentAngles();
// Cast a ray out of the view to see where the player is looking.
trace_t trace;
Vector vecForward;
Vector vecSrc;
QAngle angEyeAngles;
GetVehicleViewPosition( VEHICLE_DRIVER, &vecSrc, &angEyeAngles, NULL );
AngleVectors( angEyeAngles, &vecForward, NULL, NULL );
Vector vecEnd = vecSrc + (vecForward * 10000);
UTIL_TraceLine( vecSrc, vecEnd, MASK_OPAQUE, this, COLLISION_GROUP_NONE, &trace );
//NDebugOverlay::Box( vecSrc, -Vector(10,10,10), Vector(10,10,10), 255,0,0,8, 5 );
//NDebugOverlay::Box( vecEnd, -Vector(10,10,10), Vector(10,10,10), 0,255,0,8, 5 );
//NDebugOverlay::Box( trace.endpos, -Vector(10,10,10), Vector(10,10,10), 255,255,255,8, 0.1 );
if ( trace.fraction < 1 )
{
// Figure out what angles our turret needs to be at in order to hit the target.
Vector vFireOrigin = m_hDriverGun->GetFireOrigin();
//NDebugOverlay::Box( vFireOrigin, -Vector(10,10,10), Vector(10,10,10), 0,255,0,8, 0.1 );
// Get a direction vector that points at the target.
Vector vTo = trace.endpos - vFireOrigin;
// Transform it into the tank's local space.
matrix3x4_t tankToWorld;
AngleMatrix( GetAbsAngles(), tankToWorld );
Vector vLocalTo;
VectorITransform( vTo, tankToWorld, vLocalTo );
// Now figure out what the angles are in local space.
QAngle localAngles;
VectorAngles( vLocalTo, localAngles );
vecTargetAngles[YAW] = localAngles[YAW] - 90;
vecTargetAngles[PITCH] = anglemod( localAngles[PITCH] );
}
// Set the gun's angles
m_hDriverGun->SetTargetAngles( vecTargetAngles );
}
void QUA_helicopter::Activate() {
BaseClass::Activate();
m_nGunBaseAttachment = LookupAttachment("gun");
m_nMachineGunMuzzleAttachment = LookupAttachment( "muzzle" );
m_nBombAttachment=LookupAttachment("Bomb");
Vector vecWorldBarrelPos;
QAngle worldBarrelAngle;
matrix3x4_t matRefToWorld;
GetAttachment( m_nMachineGunMuzzleAttachment, vecWorldBarrelPos, worldBarrelAngle );
GetAttachment(m_nGunBaseAttachment, matRefToWorld );
VectorITransform( vecWorldBarrelPos, matRefToWorld, m_vecBarrelPos );
}
const Vector &CECollisionProperty::WorldToCollisionSpace( const Vector &in, Vector *pResult ) const
{
if ( !IsBoundsDefinedInEntitySpace() || ( GetCollisionAngles() == vec3_angle ) )
{
VectorSubtract( in, GetCollisionOrigin(), *pResult );
}
else
{
VectorITransform( in, CollisionToWorldTransform(), *pResult );
}
return *pResult;
}
void TransformVertex(MS3D *ms3d, const ms3d_vertex_t *vertex, float *out) {
int jointIndices[4], jointWeights[4];
FillJointIndicesAndWeights(vertex, jointIndices, jointWeights);
if (jointIndices[0] < 0 || jointIndices[0] >= ms3d->nNumJoints || ms3d->fCurrentTime < 0.0f) {
out[0] = vertex->vertex[0];
out[1] = vertex->vertex[1];
out[2] = vertex->vertex[2];
} else {
// count valid weights
int numWeights = 0;
int i;
for (i = 0; i < 4; i++) {
if ((jointWeights[i] > 0) && (jointIndices[i] >= 0) && (jointIndices[i] < ms3d->nNumJoints) )
++numWeights;
else
break;
}
// init
out[0] = 0.0f;
out[1] = 0.0f;
out[2] = 0.0f;
float weights[4] = { (float) jointWeights[0] / 100.0f, (float) jointWeights[1] / 100.0f, (float) jointWeights[2] / 100.0f, (float) jointWeights[3] / 100.0f };
if (numWeights == 0) {
numWeights = 1;
weights[0] = 1.0f;
}
// add weighted vertices
for (i = 0; i < numWeights; i++) {
//const ms3d_joint_t *joint = &m_joints[jointIndices[i]];
const ms3d_joint_t *joint = &ms3d->joints[jointIndices[i]];
vec3_t tmp, vert;
//VectorITransform(vertex->vertex, joint->matGlobalSkeleton, tmp);
VectorITransform(vertex->vertex, (void *) ms3d->joints[jointIndices[i]].matGlobalSkeleton, tmp);
VectorTransform(tmp, (void *) ms3d->joints[jointIndices[i]].matGlobal, vert);
out[0] += vert[0] * weights[i];
out[1] += vert[1] * weights[i];
out[2] += vert[2] * weights[i];
printf("%f, %f, %f\n", ms3d->joints[jointIndices[i]].matGlobalSkeleton[1][0], ms3d->joints[jointIndices[i]].matGlobalSkeleton[1][1], ms3d->joints[jointIndices[i]].matGlobalSkeleton[1][2] );
//printf("%f, %f, %f\n", tmp[0], tmp[1], tmp[2]);
//printf("%f, %f, %f\n", vert[0], vert[1], vert[2]);
//printf("%f\n", weights[i]);
}
}
}
void msModel::TransformVertex(const ms3d_vertex_t *vertex, vec3_t out) const
{
int jointIndices[4], jointWeights[4];
FillJointIndicesAndWeights(vertex, jointIndices, jointWeights);
if (jointIndices[0] < 0 || jointIndices[0] >= (int) m_joints.size() || m_currentTime < 0.0f)
{
out[0] = vertex->vertex[0];
out[1] = vertex->vertex[1];
out[2] = vertex->vertex[2];
}
else
{
// count valid weights
int numWeights = 0;
for (int i = 0; i < 4; i++)
{
if (jointWeights[i] > 0 && jointIndices[i] >= 0 && jointIndices[i] < (int) m_joints.size())
++numWeights;
else
break;
}
// init
out[0] = 0.0f;
out[1] = 0.0f;
out[2] = 0.0f;
float weights[4] = { (float) jointWeights[0] / 100.0f, (float) jointWeights[1] / 100.0f, (float) jointWeights[2] / 100.0f, (float) jointWeights[3] / 100.0f };
if (numWeights == 0)
{
numWeights = 1;
weights[0] = 1.0f;
}
// add weighted vertices
for (int i = 0; i < numWeights; i++)
{
const ms3d_joint_t *joint = &m_joints[jointIndices[i]];
vec3_t tmp, vert;
VectorITransform(vertex->vertex, joint->matGlobalSkeleton, tmp);
VectorTransform(tmp, joint->matGlobal, vert);
out[0] += vert[0] * weights[i];
out[1] += vert[1] * weights[i];
out[2] += vert[2] * weights[i];
}
}
}
//-----------------------------------------------------------------------------
// Purpose:
//-----------------------------------------------------------------------------
void CPropAPC::Activate()
{
BaseClass::Activate();
m_nRocketAttachment = LookupAttachment( "cannon_muzzle" );
m_nMachineGunMuzzleAttachment = LookupAttachment( "muzzle" );
m_nMachineGunBaseAttachment = LookupAttachment( "gun_base" );
// NOTE: gun_ref must have the same position as gun_base, but rotates with the gun
int nMachineGunRefAttachment = LookupAttachment( "gun_def" );
Vector vecWorldBarrelPos;
matrix3x4_t matRefToWorld;
GetAttachment( m_nMachineGunMuzzleAttachment, vecWorldBarrelPos );
GetAttachment( nMachineGunRefAttachment, matRefToWorld );
VectorITransform( vecWorldBarrelPos, matRefToWorld, m_vecBarrelPos );
}
//-----------------------------------------------------------------------------
// Purpose:
//-----------------------------------------------------------------------------
void C_NPC_Barnacle::StandardBlendingRules( Vector pos[], Quaternion q[], float currentTime, int boneMask )
{
BaseClass::StandardBlendingRules( pos, q, currentTime, boneMask );
// Don't do anything while dead
if ( !IsAlive() )
return;
studiohdr_t *hdr = GetModelPtr();
if ( !hdr )
return;
int firstBone = Studio_BoneIndexByName( hdr, "Barnacle.tongue1" );
Vector vecPrev = pos[firstBone-1];
Vector vecCurr = vec3_origin;
for ( int i = 0; i <= BARNACLE_TONGUE_POINTS; i++ )
{
// We double up the bones at the last node.
Vector vecCurr;
if ( i == BARNACLE_TONGUE_POINTS )
{
vecCurr = m_TonguePhysics.GetLastNode()->m_vPos;
}
else
{
vecCurr = m_TonguePhysics.GetNode(i)->m_vPos;
}
//debugoverlay->AddBoxOverlay( vecCurr, -Vector(2,2,2), Vector(2,2,2), vec3_angle, 0,255,0, 128, 0.1 );
// Fill out the positions in local space
VectorITransform( vecCurr, EntityToWorldTransform(), pos[firstBone+i] );
vecCurr = pos[firstBone+i];
// Fill out the angles
Vector vecForward = (vecCurr - vecPrev);
VectorNormalize( vecForward );
QAngle vecAngle;
VectorAngles( vecForward, vecAngle );
AngleQuaternion( vecAngle, q[firstBone+i] );
vecPrev = vecCurr;
}
}
void CDecal::StaticDecal( void )
{
Vector position;
CBaseEntity *pEntity = GetDecalEntityAndPosition(&position, true);
int entityIndex = 0;
int modelIndex = 0;
if ( pEntity )
{
entityIndex = pEntity->entindex();
modelIndex = pEntity->GetModelIndex();
Vector worldspace = position;
VectorITransform( worldspace, pEntity->EntityToWorldTransform(), position );
}
else
{
position = GetAbsOrigin();
}
engine->StaticDecal( position, m_nTexture, entityIndex, modelIndex, m_bLowPriority );
SUB_Remove();
}
void C_EnvProjectedTexture::UpdateLight( void )
{
VPROF("C_EnvProjectedTexture::UpdateLight");
bool bVisible = true;
Vector vLinearFloatLightColor( m_LightColor.r, m_LightColor.g, m_LightColor.b );
float flLinearFloatLightAlpha = m_LightColor.a;
if ( m_bAlwaysUpdate )
{
m_bForceUpdate = true;
}
if ( m_CurrentLinearFloatLightColor != vLinearFloatLightColor || m_flCurrentLinearFloatLightAlpha != flLinearFloatLightAlpha )
{
float flColorTransitionSpeed = gpGlobals->frametime * m_flColorTransitionTime * 255.0f;
m_CurrentLinearFloatLightColor.x = Approach( vLinearFloatLightColor.x, m_CurrentLinearFloatLightColor.x, flColorTransitionSpeed );
m_CurrentLinearFloatLightColor.y = Approach( vLinearFloatLightColor.y, m_CurrentLinearFloatLightColor.y, flColorTransitionSpeed );
m_CurrentLinearFloatLightColor.z = Approach( vLinearFloatLightColor.z, m_CurrentLinearFloatLightColor.z, flColorTransitionSpeed );
m_flCurrentLinearFloatLightAlpha = Approach( flLinearFloatLightAlpha, m_flCurrentLinearFloatLightAlpha, flColorTransitionSpeed );
m_bForceUpdate = true;
}
if ( !m_bForceUpdate )
{
bVisible = IsBBoxVisible();
}
if ( m_bState == false || !bVisible )
{
// Spotlight's extents aren't in view
ShutDownLightHandle();
return;
}
if ( m_LightHandle == CLIENTSHADOW_INVALID_HANDLE || m_hTargetEntity != NULL || m_bForceUpdate )
{
Vector vForward, vRight, vUp, vPos = GetAbsOrigin();
FlashlightState_t state;
if ( m_hTargetEntity != NULL )
{
if ( m_bCameraSpace )
{
const QAngle &angles = GetLocalAngles();
C_BasePlayer *pPlayer = C_BasePlayer::GetLocalPlayer();
if( pPlayer )
{
const QAngle playerAngles = pPlayer->GetAbsAngles();
Vector vPlayerForward, vPlayerRight, vPlayerUp;
AngleVectors( playerAngles, &vPlayerForward, &vPlayerRight, &vPlayerUp );
matrix3x4_t mRotMatrix;
AngleMatrix( angles, mRotMatrix );
VectorITransform( vPlayerForward, mRotMatrix, vForward );
VectorITransform( vPlayerRight, mRotMatrix, vRight );
VectorITransform( vPlayerUp, mRotMatrix, vUp );
float dist = (m_hTargetEntity->GetAbsOrigin() - GetAbsOrigin()).Length();
vPos = m_hTargetEntity->GetAbsOrigin() - vForward*dist;
VectorNormalize( vForward );
VectorNormalize( vRight );
VectorNormalize( vUp );
}
}
else
{
vForward = m_hTargetEntity->GetAbsOrigin() - GetAbsOrigin();
VectorNormalize( vForward );
// JasonM - unimplemented
Assert (0);
//Quaternion q = DirectionToOrientation( dir );
//
// JasonM - set up vRight, vUp
//
// VectorNormalize( vRight );
// VectorNormalize( vUp );
}
}
else
{
AngleVectors( GetAbsAngles(), &vForward, &vRight, &vUp );
}
state.m_fHorizontalFOVDegrees = m_flLightFOV;
state.m_fVerticalFOVDegrees = m_flLightFOV;
state.m_vecLightOrigin = vPos;
BasisToQuaternion( vForward, vRight, vUp, state.m_quatOrientation );
state.m_NearZ = m_flNearZ;
state.m_FarZ = m_flFarZ;
// quickly check the proposed light's bbox against the view frustum to determine whether we
// should bother to create it, if it doesn't exist, or cull it, if it does.
if ( m_bSimpleProjection == false )
{
#pragma message("OPTIMIZATION: this should be made SIMD")
// get the half-widths of the near and far planes,
// based on the FOV which is in degrees. Remember that
// on planet Valve, x is forward, y left, and z up.
const float tanHalfAngle = tan( m_flLightFOV * ( M_PI/180.0f ) * 0.5f );
const float halfWidthNear = tanHalfAngle * m_flNearZ;
const float halfWidthFar = tanHalfAngle * m_flFarZ;
// now we can build coordinates in local space: the near rectangle is eg
// (0, -halfWidthNear, -halfWidthNear), (0, halfWidthNear, -halfWidthNear),
// (0, halfWidthNear, halfWidthNear), (0, -halfWidthNear, halfWidthNear)
VectorAligned vNearRect[4] = {
VectorAligned( m_flNearZ, -halfWidthNear, -halfWidthNear), VectorAligned( m_flNearZ, halfWidthNear, -halfWidthNear),
VectorAligned( m_flNearZ, halfWidthNear, halfWidthNear), VectorAligned( m_flNearZ, -halfWidthNear, halfWidthNear)
};
VectorAligned vFarRect[4] = {
VectorAligned( m_flFarZ, -halfWidthFar, -halfWidthFar), VectorAligned( m_flFarZ, halfWidthFar, -halfWidthFar),
VectorAligned( m_flFarZ, halfWidthFar, halfWidthFar), VectorAligned( m_flFarZ, -halfWidthFar, halfWidthFar)
};
matrix3x4_t matOrientation( vForward, -vRight, vUp, vPos );
enum
{
kNEAR = 0,
kFAR = 1,
};
VectorAligned vOutRects[2][4];
for ( int i = 0 ; i < 4 ; ++i )
{
VectorTransform( vNearRect[i].Base(), matOrientation, vOutRects[0][i].Base() );
}
for ( int i = 0 ; i < 4 ; ++i )
{
VectorTransform( vFarRect[i].Base(), matOrientation, vOutRects[1][i].Base() );
}
// now take the MIN and MAX extents for the bbox, and see if it is visible.
Vector mins = **vOutRects;
Vector maxs = **vOutRects;
for ( int i = 1; i < 8 ; ++i )
{
VectorMin( mins, *(*vOutRects+i), mins );
VectorMax( maxs, *(*vOutRects+i), maxs );
}
#if 0 //for debugging the visibility frustum we just calculated
NDebugOverlay::Triangle( vOutRects[0][0], vOutRects[0][1], vOutRects[0][2], 255, 0, 0, 100, true, 0.0f ); //first tri
NDebugOverlay::Triangle( vOutRects[0][2], vOutRects[0][1], vOutRects[0][0], 255, 0, 0, 100, true, 0.0f ); //make it double sided
NDebugOverlay::Triangle( vOutRects[0][2], vOutRects[0][3], vOutRects[0][0], 255, 0, 0, 100, true, 0.0f ); //second tri
NDebugOverlay::Triangle( vOutRects[0][0], vOutRects[0][3], vOutRects[0][2], 255, 0, 0, 100, true, 0.0f ); //make it double sided
NDebugOverlay::Triangle( vOutRects[1][0], vOutRects[1][1], vOutRects[1][2], 0, 0, 255, 100, true, 0.0f ); //first tri
NDebugOverlay::Triangle( vOutRects[1][2], vOutRects[1][1], vOutRects[1][0], 0, 0, 255, 100, true, 0.0f ); //make it double sided
NDebugOverlay::Triangle( vOutRects[1][2], vOutRects[1][3], vOutRects[1][0], 0, 0, 255, 100, true, 0.0f ); //second tri
NDebugOverlay::Triangle( vOutRects[1][0], vOutRects[1][3], vOutRects[1][2], 0, 0, 255, 100, true, 0.0f ); //make it double sided
NDebugOverlay::Box( vec3_origin, mins, maxs, 0, 255, 0, 100, 0.0f );
#endif
bool bVisible = IsBBoxVisible( mins, maxs );
if (!bVisible)
{
// Spotlight's extents aren't in view
if ( m_LightHandle != CLIENTSHADOW_INVALID_HANDLE )
{
ShutDownLightHandle();
}
return;
}
}
float flAlpha = m_flCurrentLinearFloatLightAlpha * ( 1.0f / 255.0f );
state.m_fQuadraticAtten = 0.0;
state.m_fLinearAtten = 100;
state.m_fConstantAtten = 0.0f;
state.m_FarZAtten = m_flFarZ;
state.m_fBrightnessScale = m_flBrightnessScale;
state.m_Color[0] = m_CurrentLinearFloatLightColor.x * ( 1.0f / 255.0f ) * flAlpha;
state.m_Color[1] = m_CurrentLinearFloatLightColor.y * ( 1.0f / 255.0f ) * flAlpha;
state.m_Color[2] = m_CurrentLinearFloatLightColor.z * ( 1.0f / 255.0f ) * flAlpha;
state.m_Color[3] = 0.0f; // fixme: need to make ambient work m_flAmbient;
state.m_flShadowSlopeScaleDepthBias = g_pMaterialSystemHardwareConfig->GetShadowSlopeScaleDepthBias();
state.m_flShadowDepthBias = g_pMaterialSystemHardwareConfig->GetShadowDepthBias();
state.m_bEnableShadows = m_bEnableShadows;
state.m_pSpotlightTexture = m_SpotlightTexture;
state.m_pProjectedMaterial = NULL; // only complain if we're using material projection
state.m_nSpotlightTextureFrame = m_nSpotlightTextureFrame;
state.m_flProjectionSize = m_flProjectionSize;
state.m_flProjectionRotation = m_flRotation;
state.m_nShadowQuality = m_nShadowQuality; // Allow entity to affect shadow quality
if ( m_bSimpleProjection == true )
{
state.m_bSimpleProjection = true;
state.m_bOrtho = true;
state.m_fOrthoLeft = -m_flProjectionSize;
state.m_fOrthoTop = -m_flProjectionSize;
state.m_fOrthoRight = m_flProjectionSize;
state.m_fOrthoBottom = m_flProjectionSize;
}
if( m_LightHandle == CLIENTSHADOW_INVALID_HANDLE )
{
// Hack: env projected textures don't work like normal flashlights; they're not assigned to a given splitscreen slot,
// but the flashlight code requires this
HACK_GETLOCALPLAYER_GUARD( "Env projected texture" );
if ( m_bSimpleProjection == true )
{
m_LightHandle = g_pClientShadowMgr->CreateProjection( state );
}
else
{
m_LightHandle = g_pClientShadowMgr->CreateFlashlight( state );
}
if ( m_LightHandle != CLIENTSHADOW_INVALID_HANDLE )
{
m_bForceUpdate = false;
}
}
else
{
if ( m_bSimpleProjection == true )
{
g_pClientShadowMgr->UpdateProjectionState( m_LightHandle, state );
}
else
{
g_pClientShadowMgr->UpdateFlashlightState( m_LightHandle, state );
}
m_bForceUpdate = false;
}
g_pClientShadowMgr->GetFrustumExtents( m_LightHandle, m_vecExtentsMin, m_vecExtentsMax );
m_vecExtentsMin = m_vecExtentsMin - GetAbsOrigin();
m_vecExtentsMax = m_vecExtentsMax - GetAbsOrigin();
}
if( m_bLightOnlyTarget )
{
g_pClientShadowMgr->SetFlashlightTarget( m_LightHandle, m_hTargetEntity );
}
else
{
g_pClientShadowMgr->SetFlashlightTarget( m_LightHandle, NULL );
}
g_pClientShadowMgr->SetFlashlightLightWorld( m_LightHandle, m_bLightWorld );
if ( !asw_perf_wtf.GetBool() && !m_bForceUpdate )
{
g_pClientShadowMgr->UpdateProjectedTexture( m_LightHandle, true );
}
}
void IFaceposerModels::CFacePoserModel::CreateNewBitmap( char const *pchBitmapFilename, int sequence, int nSnapShotSize, bool bZoomInOnFace, CExpression *pExpression, mxbitmapdata_t *bitmap )
{
MatSysWindow *pWnd = g_pMatSysWindow;
if ( !pWnd )
return;
StudioModel *model = m_pModel;
if ( !model )
return;
CStudioHdr *hdr = model->GetStudioHdr();
if ( !hdr )
return;
if ( sequence < 0 || sequence >= hdr->GetNumSeq() )
return;
mstudioseqdesc_t &seqdesc = hdr->pSeqdesc( sequence );
Con_ColorPrintf( FILE_COLOR, "Creating bitmap %s for sequence '%s'\n", pchBitmapFilename, seqdesc.pszLabel() );
model->ClearOverlaysSequences();
int iLayer = model->GetNewAnimationLayer();
model->SetOverlaySequence( iLayer, sequence, 1.0 );
model->SetOverlayRate( iLayer, FindPoseCycle( model, sequence ), 0.0 );
for (int i = 0; i < hdr->GetNumPoseParameters(); i++)
{
model->SetPoseParameter( i, 0.0 );
}
float flexValues[ GLOBAL_STUDIO_FLEX_CONTROL_COUNT ] = { 0 };
if ( pExpression )
{
float *settings = pExpression->GetSettings();
float *weights = pExpression->GetWeights();
// Save existing settings from model
for ( LocalFlexController_t i = LocalFlexController_t(0); i < hdr->numflexcontrollers(); ++i )
{
int j = hdr->pFlexcontroller( i )->localToGlobal;
if ( j == -1 )
continue;
flexValues[ i ] = model->GetFlexController( i );
// Set Value from passed in settings
model->SetFlexController( i, settings[ j ] * weights[ j ] );
}
}
model->ClearLookTargets( );
QAngle oldrot, oldLight;
Vector oldtrans;
VectorCopy( model->m_angles, oldrot );
VectorCopy( model->m_origin, oldtrans );
VectorCopy( g_viewerSettings.lightrot, oldLight );
model->m_angles.Init();
model->m_origin.Init();
g_viewerSettings.lightrot.Init();
g_viewerSettings.lightrot.y = -180;
bool bSaveGround = g_viewerSettings.showGround;
g_viewerSettings.showGround = false;
if ( bZoomInOnFace )
{
Vector size;
VectorSubtract( hdr->hull_max(), hdr->hull_min(), size );
float eyeheight = hdr->hull_min().z + 0.9 * size.z;
// float width = ( size.x + size.y ) / 2.0f;
model->m_origin.x = size.z * .6f;
if ( hdr->GetNumAttachments() > 0 )
{
for (int i = 0; i < hdr->GetNumAttachments(); i++)
{
const mstudioattachment_t &attachment = hdr->pAttachment( i );
int iBone = hdr->GetAttachmentBone( i );
if ( Q_stricmp( attachment.pszName(), "eyes" ) )
continue;
mstudiobone_t *bone = hdr->pBone( iBone );
if ( !bone )
continue;
matrix3x4_t boneToPose;
MatrixInvert( bone->poseToBone, boneToPose );
matrix3x4_t attachmentPoseToLocal;
ConcatTransforms( boneToPose, attachment.local, attachmentPoseToLocal );
Vector localSpaceEyePosition;
VectorITransform( vec3_origin, attachmentPoseToLocal, localSpaceEyePosition );
// Not sure why this must be negative?
eyeheight = -localSpaceEyePosition.z + hdr->hull_min().z;
break;
}
}
KeyValues *seqKeyValues = new KeyValues("");
if ( seqKeyValues->LoadFromBuffer( model->GetFileName( ), model->GetKeyValueText( sequence ) ) )
{
// Do we have a build point section?
KeyValues *pkvAllFaceposer = seqKeyValues->FindKey("faceposer");
if ( pkvAllFaceposer )
{
float flEyeheight = pkvAllFaceposer->GetFloat( "eye_height", -9999.0f );
if ( flEyeheight != -9999.0f )
{
eyeheight = flEyeheight;
}
}
}
model->m_origin.z += eyeheight;
}
else
{
Vector mins, maxs;
model->ExtractBbox(mins, maxs);
Vector size;
VectorSubtract( maxs, mins, size );
float maxdim = size.x;
if ( size.y > maxdim )
maxdim = size.y;
if ( size.z > maxdim )
maxdim = size.z;
float midpoint = mins.z + 0.5 * size.z;
model->m_origin.x = 3 * maxdim;
model->m_origin.z += midpoint;
}
pWnd->SuppressResize( true );
RECT rcClient;
HWND wnd = (HWND)pWnd->getHandle();
WINDOWPLACEMENT wp;
GetWindowPlacement( wnd, &wp );
GetClientRect( wnd, &rcClient );
MoveWindow( wnd, 0, 0, nSnapShotSize + 16, nSnapShotSize + 16, TRUE );
// Snapshots are taken of the back buffer;
// we need to render to the back buffer but not move it to the front
pWnd->SuppressBufferSwap( true );
pWnd->redraw();
pWnd->SuppressBufferSwap( false );
// make it square, assumes w > h
char fullpath[ 512 ];
Q_snprintf( fullpath, sizeof( fullpath ), "%s%s", GetGameDirectory(), pchBitmapFilename );
pWnd->TakeSnapshotRect( fullpath, 0, 0, nSnapShotSize, nSnapShotSize );
// Move back to original position
SetWindowPlacement( wnd, &wp );
pWnd->SuppressResize( false );
VectorCopy( oldrot, model->m_angles );
VectorCopy( oldtrans, model->m_origin );
VectorCopy( oldLight, g_viewerSettings.lightrot );
g_viewerSettings.showGround = bSaveGround;
if ( pExpression )
{
// Save existing settings from model
for ( LocalFlexController_t i = LocalFlexController_t(0); i < hdr->numflexcontrollers(); ++i )
{
int j = hdr->pFlexcontroller( i )->localToGlobal;
if ( j == -1 )
continue;
model->SetFlexController( i, flexValues[ i ] );
}
}
model->ClearOverlaysSequences();
if ( bitmap->valid )
{
DeleteObject( bitmap->image );
bitmap->image = 0;
bitmap->valid = false;
}
LoadBitmapFromFile( pchBitmapFilename, *bitmap );
}
CTraceFilterValidForDecal traceFilter( this, COLLISION_GROUP_NONE );
int entityIndex, modelIndex = 0;
Vector position = GetAbsOrigin();
UTIL_TraceLine( position - Vector(5,5,5), position + Vector(5,5,5), MASK_SOLID, &traceFilter, &trace );
bool canDraw = true;
entityIndex = trace.m_pEnt ? (short)trace.m_pEnt->entindex() : 0;
if ( entityIndex )
{
CBaseEntity *ent = trace.m_pEnt;
if ( ent )
{
modelIndex = ent->GetModelIndex();
VectorITransform( GetAbsOrigin(), ent->EntityToWorldTransform(), position );
canDraw = ( modelIndex != 0 );
if ( !canDraw )
{
Warning( "Suppressed StaticDecal which would have hit entity %i (class:%s, name:%s) with modelindex = 0\n",
ent->entindex(),
ent->GetClassname(),
STRING( ent->GetEntityName() ) );
}
}
}
if ( canDraw )
{
engine->StaticDecal( position, m_nTexture, entityIndex, modelIndex, m_bLowPriority );
//-----------------------------------------------------------------------------
// Purpose: Aim Gun at a target
//-----------------------------------------------------------------------------
void CASW_PropJeep::AimGunAt( Vector *endPos, float flInterval )
{
Vector aimPos = *endPos;
// See if the gun should be allowed to aim
if ( IsOverturned() || m_bEngineLocked || m_bHasGun == false )
{
SetPoseParameter( JEEP_GUN_YAW, 0 );
SetPoseParameter( JEEP_GUN_PITCH, 0 );
SetPoseParameter( JEEP_GUN_SPIN, 0 );
return;
// Make the gun go limp and look "down"
Vector v_forward, v_up;
AngleVectors( GetLocalAngles(), NULL, &v_forward, &v_up );
aimPos = WorldSpaceCenter() + ( v_forward * -32.0f ) - Vector( 0, 0, 128.0f );
}
matrix3x4_t gunMatrix;
GetAttachment( LookupAttachment("gun_ref"), gunMatrix );
// transform the enemy into gun space
Vector localEnemyPosition;
VectorITransform( aimPos, gunMatrix, localEnemyPosition );
// do a look at in gun space (essentially a delta-lookat)
QAngle localEnemyAngles;
VectorAngles( localEnemyPosition, localEnemyAngles );
// convert to +/- 180 degrees
localEnemyAngles.x = UTIL_AngleDiff( localEnemyAngles.x, 0 );
localEnemyAngles.y = UTIL_AngleDiff( localEnemyAngles.y, 0 );
float targetYaw = m_aimYaw + localEnemyAngles.y;
float targetPitch = m_aimPitch + localEnemyAngles.x;
// Constrain our angles
float newTargetYaw = clamp( targetYaw, -CANNON_MAX_LEFT_YAW, CANNON_MAX_RIGHT_YAW );
float newTargetPitch = clamp( targetPitch, -CANNON_MAX_DOWN_PITCH, CANNON_MAX_UP_PITCH );
// If the angles have been clamped, we're looking outside of our valid range
if ( fabs(newTargetYaw-targetYaw) > 1e-4 || fabs(newTargetPitch-targetPitch) > 1e-4 )
{
m_bUnableToFire = true;
}
targetYaw = newTargetYaw;
targetPitch = newTargetPitch;
// Exponentially approach the target
float yawSpeed = 8;
float pitchSpeed = 8;
m_aimYaw = UTIL_Approach( targetYaw, m_aimYaw, yawSpeed );
m_aimPitch = UTIL_Approach( targetPitch, m_aimPitch, pitchSpeed );
SetPoseParameter( JEEP_GUN_YAW, -m_aimYaw);
SetPoseParameter( JEEP_GUN_PITCH, -m_aimPitch );
InvalidateBoneCache();
// read back to avoid drift when hitting limits
// as long as the velocity is less than the delta between the limit and 180, this is fine.
m_aimPitch = -GetPoseParameter( JEEP_GUN_PITCH );
m_aimYaw = -GetPoseParameter( JEEP_GUN_YAW );
// Now draw crosshair for actual aiming point
Vector vecMuzzle, vecMuzzleDir;
QAngle vecMuzzleAng;
GetAttachment( "Muzzle", vecMuzzle, vecMuzzleAng );
AngleVectors( vecMuzzleAng, &vecMuzzleDir );
trace_t tr;
UTIL_TraceLine( vecMuzzle, vecMuzzle + (vecMuzzleDir * MAX_TRACE_LENGTH), MASK_SHOT, this, COLLISION_GROUP_NONE, &tr );
// see if we hit something, if so, adjust endPos to hit location
if ( tr.fraction < 1.0 )
{
m_vecGunCrosshair = vecMuzzle + ( vecMuzzleDir * MAX_TRACE_LENGTH * tr.fraction );
}
}
void ControlPanel::CenterOnFace( void )
{
if ( !models->GetActiveStudioModel() )
return;
StudioModel *mdl = models->GetActiveStudioModel();
if ( !mdl )
return;
CStudioHdr *hdr = mdl->GetStudioHdr();
if ( !hdr )
return;
setSpeed( 1.0f );
int oldSeq = models->GetActiveStudioModel()->GetSequence();
int seq = models->GetActiveStudioModel()->LookupSequence( "idle_suble" );
if ( seq == -1 )
seq = 0;
if ( seq != oldSeq )
{
Con_Printf( "Centering changed model sequence # to %d\n", seq );
}
setSequence( seq );
initPoseParameters( );
mdl->m_angles.Init();
mdl->m_origin.Init();
Vector size;
VectorSubtract( hdr->hull_max(), hdr->hull_min(), size );
float eyeheight = hdr->hull_min().z + 0.9 * size.z;
if ( hdr->GetNumAttachments() > 0 )
{
for (int i = 0; i < hdr->GetNumAttachments(); i++)
{
const mstudioattachment_t &attachment = hdr->pAttachment( i );
int iBone = hdr->GetAttachmentBone( i );
if ( Q_stricmp( attachment.pszName(), "eyes" ) )
continue;
mstudiobone_t *bone = hdr->pBone( iBone );
if ( !bone )
continue;
matrix3x4_t boneToPose;
MatrixInvert( bone->poseToBone, boneToPose );
matrix3x4_t attachmentPoseToLocal;
ConcatTransforms( boneToPose, attachment.local, attachmentPoseToLocal );
Vector localSpaceEyePosition;
VectorITransform( vec3_origin, attachmentPoseToLocal, localSpaceEyePosition );
// Not sure why this must be negative?
eyeheight = -localSpaceEyePosition.z + hdr->hull_min().z;
break;
}
}
KeyValues *seqKeyValues = new KeyValues("");
if ( seqKeyValues->LoadFromBuffer( mdl->GetFileName( ), mdl->GetKeyValueText( seq ) ) )
{
// Do we have a build point section?
KeyValues *pkvAllFaceposer = seqKeyValues->FindKey("faceposer");
if ( pkvAllFaceposer )
{
float flEyeheight = pkvAllFaceposer->GetFloat( "eye_height", -9999.0f );
if ( flEyeheight != -9999.0f )
{
eyeheight = flEyeheight;
}
}
}
seqKeyValues->deleteThis();
mdl->m_origin.x = size.z * .65f;
mdl->m_origin.z += eyeheight;
CUtlVector< StudioModel * > modellist;
modellist.AddToTail( models->GetActiveStudioModel() );
int i;
if ( models->CountVisibleModels() > 0 )
{
modellist.RemoveAll();
for ( i = 0; i < models->Count(); i++ )
{
if ( models->IsModelShownIn3DView( i ) )
{
modellist.AddToTail( models->GetStudioModel( i ) );
}
}
}
int modelcount = modellist.Count();
int countover2 = modelcount / 2;
int ydelta = GetModelGap();
int yoffset = -countover2 * ydelta;
for ( i = 0 ; i < modelcount; i++ )
{
if ( models->GetStudioHeader( i ) == hdr )
{
mdl->m_origin.y = -yoffset;
}
yoffset += ydelta;
}
g_pMatSysWindow->redraw();
}
void C_EnvProjectedTexture::UpdateLight( bool bForceUpdate )
{
if ( m_bState == false )
{
if ( m_LightHandle != CLIENTSHADOW_INVALID_HANDLE )
{
ShutDownLightHandle();
}
return;
}
Vector vForward, vRight, vUp, vPos = GetAbsOrigin();
FlashlightState_t state;
if ( m_hTargetEntity != NULL )
{
if ( m_bCameraSpace )
{
const QAngle &angles = GetLocalAngles();
C_BasePlayer *pPlayer = C_BasePlayer::GetLocalPlayer();
if( pPlayer )
{
const QAngle playerAngles = pPlayer->GetAbsAngles();
Vector vPlayerForward, vPlayerRight, vPlayerUp;
AngleVectors( playerAngles, &vPlayerForward, &vPlayerRight, &vPlayerUp );
matrix3x4_t mRotMatrix;
AngleMatrix( angles, mRotMatrix );
VectorITransform( vPlayerForward, mRotMatrix, vForward );
VectorITransform( vPlayerRight, mRotMatrix, vRight );
VectorITransform( vPlayerUp, mRotMatrix, vUp );
float dist = (m_hTargetEntity->GetAbsOrigin() - GetAbsOrigin()).Length();
vPos = m_hTargetEntity->GetAbsOrigin() - vForward*dist;
VectorNormalize( vForward );
VectorNormalize( vRight );
VectorNormalize( vUp );
}
}
else
{
// VXP: Fixing targeting
Vector vecToTarget;
QAngle vecAngles;
if ( m_hTargetEntity == NULL )
{
vecAngles = GetAbsAngles();
}
else
{
vecToTarget = m_hTargetEntity->GetAbsOrigin() - GetAbsOrigin();
VectorAngles( vecToTarget, vecAngles );
}
AngleVectors( vecAngles, &vForward, &vRight, &vUp );
}
}
else
{
AngleVectors( GetAbsAngles(), &vForward, &vRight, &vUp );
}
state.m_fHorizontalFOVDegrees = m_flLightFOV;
state.m_fVerticalFOVDegrees = m_flLightFOV;
state.m_vecLightOrigin = vPos;
BasisToQuaternion( vForward, vRight, vUp, state.m_quatOrientation );
state.m_fQuadraticAtten = 0.0;
state.m_fLinearAtten = 100;
state.m_fConstantAtten = 0.0f;
state.m_Color[0] = m_LinearFloatLightColor.x;
state.m_Color[1] = m_LinearFloatLightColor.y;
state.m_Color[2] = m_LinearFloatLightColor.z;
state.m_Color[3] = 0.0f; // fixme: need to make ambient work m_flAmbient;
state.m_NearZ = m_flNearZ;
state.m_FarZ = m_flFarZ;
state.m_flShadowSlopeScaleDepthBias = mat_slopescaledepthbias_shadowmap.GetFloat();
state.m_flShadowDepthBias = mat_depthbias_shadowmap.GetFloat();
state.m_bEnableShadows = m_bEnableShadows;
state.m_pSpotlightTexture = materials->FindTexture( m_SpotlightTextureName, TEXTURE_GROUP_OTHER, false );
state.m_nSpotlightTextureFrame = m_nSpotlightTextureFrame;
state.m_nShadowQuality = m_nShadowQuality; // Allow entity to affect shadow quality
if( m_LightHandle == CLIENTSHADOW_INVALID_HANDLE )
{
m_LightHandle = g_pClientShadowMgr->CreateFlashlight( state );
}
else
{
if ( m_hTargetEntity != NULL || bForceUpdate == true )
{
g_pClientShadowMgr->UpdateFlashlightState( m_LightHandle, state );
}
}
if( m_bLightOnlyTarget )
{
g_pClientShadowMgr->SetFlashlightTarget( m_LightHandle, m_hTargetEntity );
}
else
{
g_pClientShadowMgr->SetFlashlightTarget( m_LightHandle, NULL );
}
g_pClientShadowMgr->SetFlashlightLightWorld( m_LightHandle, m_bLightWorld );
//if ( bForceUpdate == false )
//{
g_pClientShadowMgr->UpdateProjectedTexture( m_LightHandle, true );
//}
}
bool CParticleSystemQuery::IsPointInControllingObjectHitBox(
CParticleCollection *pParticles,
int nControlPointNumber, Vector vecPos, bool bBBoxOnly )
{
bool bSuccess = false;
#ifndef GAME_DLL
EHANDLE *phMoveParent = reinterpret_cast<EHANDLE *> ( pParticles->m_ControlPoints[nControlPointNumber].m_pObject );
CBaseEntity *pMoveParent = NULL;
if ( phMoveParent )
{
pMoveParent = *( phMoveParent );
}
if ( pMoveParent )
{
s_BoneMutex.Lock();
C_BaseAnimating *pAnimating = pMoveParent->GetBaseAnimating();
bool bInBBox = false;
Vector vecBBoxMin;
Vector vecBBoxMax;
Vector vecOrigin;
vecBBoxMin = pMoveParent->CollisionProp()->OBBMins();
vecBBoxMax = pMoveParent->CollisionProp()->OBBMaxs();
matrix3x4_t matOrientation;
matOrientation = pMoveParent->EntityToWorldTransform();
Vector vecLocalPos;
VectorITransform( vecPos, matOrientation, vecLocalPos );
if ( IsPointInBox( vecLocalPos, vecBBoxMin, vecBBoxMax ) )
bInBBox = true;
if ( bInBBox && bBBoxOnly )
bSuccess = true;
else if ( pAnimating && bInBBox )
{
matrix3x4_t *hitboxbones[MAXSTUDIOBONES];
if ( pAnimating->HitboxToWorldTransforms( hitboxbones ) )
{
studiohdr_t *pStudioHdr = modelinfo->GetStudiomodel( pAnimating->GetModel() );
if ( pStudioHdr )
{
mstudiohitboxset_t *set = pStudioHdr->pHitboxSet( pAnimating->GetHitboxSet() );
if ( set )
{
// do a point in solid test
Ray_t ray;
trace_t tr;
ray.Init( vecPos, vecPos );
enginetrace->ClipRayToEntity( ray, MASK_ALL, pMoveParent, &tr );
if ( tr.startsolid )
bSuccess = true;
}
}
}
}
else if ( pMoveParent->IsBrushModel() && bInBBox )
{
// do a point in solid test
Ray_t ray;
trace_t tr;
ray.Init( vecPos, vecPos );
enginetrace->ClipRayToEntity( ray, MASK_ALL, pMoveParent, &tr );
if ( tr.startsolid )
bSuccess = true;
}
s_BoneMutex.Unlock();
}
#endif
return bSuccess;
}
void C_EnvProjectedTexture::UpdateLight(void)
{
VPROF_BUDGET("C_EnvProjectedTexture::UpdateLight", "Projected Textures");
if (CurrentViewID() == VIEW_SHADOW_DEPTH_TEXTURE /*|| CurrentViewID() == VIEW_SUN_SHAFTS*/)
return;
bool bVisible = true;
if (m_bAlwaysUpdate)
{
m_bForceUpdate = true;
}
float fHighFOV;
if (m_flLightFOV > m_flLightHorFOV)
fHighFOV = m_flLightFOV;
else
fHighFOV = m_flLightHorFOV;
if (m_bState == false || !IsWithinFarZ(fHighFOV) || !IsBBoxVisible())
{
// Spotlight's extents aren't in view
ShutDownLightHandle();
return;
}
else
{
bVisible = true;
}
Vector vLinearFloatLightColor(m_LightColor.r, m_LightColor.g, m_LightColor.b);
float flLinearFloatLightAlpha = m_LightColor.a;
if (m_CurrentLinearFloatLightColor != vLinearFloatLightColor || m_flCurrentLinearFloatLightAlpha != flLinearFloatLightAlpha)
{
float flColorTransitionSpeed = gpGlobals->frametime * m_flColorTransitionTime * 255.0f;
m_CurrentLinearFloatLightColor.x = Approach(vLinearFloatLightColor.x, m_CurrentLinearFloatLightColor.x, flColorTransitionSpeed);
m_CurrentLinearFloatLightColor.y = Approach(vLinearFloatLightColor.y, m_CurrentLinearFloatLightColor.y, flColorTransitionSpeed);
m_CurrentLinearFloatLightColor.z = Approach(vLinearFloatLightColor.z, m_CurrentLinearFloatLightColor.z, flColorTransitionSpeed);
m_flCurrentLinearFloatLightAlpha = Approach(flLinearFloatLightAlpha, m_flCurrentLinearFloatLightAlpha, flColorTransitionSpeed);
m_bForceUpdate = true;
}
if (m_LightHandle == CLIENTSHADOW_INVALID_HANDLE || m_hTargetEntity != NULL || GetRootMoveParent() != NULL || m_bForceUpdate)
{
Vector vForward, vRight, vUp, vPos = GetAbsOrigin();
FlashlightState_t state;
if (m_hTargetEntity != NULL)
{
if (m_bCameraSpace)
{
const QAngle &angles = GetLocalAngles();
C_BasePlayer *pPlayer = C_BasePlayer::GetLocalPlayer();
if (pPlayer)
{
const QAngle playerAngles = pPlayer->GetAbsAngles();
Vector vPlayerForward, vPlayerRight, vPlayerUp;
AngleVectors(playerAngles, &vPlayerForward, &vPlayerRight, &vPlayerUp);
matrix3x4_t mRotMatrix;
AngleMatrix(angles, mRotMatrix);
VectorITransform(vPlayerForward, mRotMatrix, vForward);
VectorITransform(vPlayerRight, mRotMatrix, vRight);
VectorITransform(vPlayerUp, mRotMatrix, vUp);
float dist = (m_hTargetEntity->GetAbsOrigin() - GetAbsOrigin()).Length();
vPos = m_hTargetEntity->GetAbsOrigin() - vForward*dist;
VectorNormalize(vForward);
VectorNormalize(vRight);
VectorNormalize(vUp);
}
}
else
{
Vector vecToTarget = m_hTargetEntity->GetAbsOrigin() - GetAbsOrigin();
QAngle vecAngles;
VectorAngles(vecToTarget, vecAngles);
AngleVectors(vecAngles, &vForward, &vRight, &vUp);
}
}
else
{
AngleVectors(GetAbsAngles(), &vForward, &vRight, &vUp);
}
state.m_fHorizontalFOVDegrees = abs(m_flLightHorFOV);
state.m_fVerticalFOVDegrees = abs(m_flLightFOV);
state.m_vecLightOrigin = vPos;
BasisToQuaternion(vForward, vRight, vUp, state.m_quatOrientation);
state.m_NearZ = m_flNearZ;
state.m_FarZ = m_flFarZ;
// quickly check the proposed light's bbox against the view frustum to determine whether we
// should bother to create it, if it doesn't exist, or cull it, if it does.
// get the half-widths of the near and far planes,
// based on the FOV which is in degrees. Remember that
// on planet Valve, x is forward, y left, and z up.
const float tanHalfAngle = tan(fHighFOV * (M_PI / 180.0f) * 0.5f);
const float halfWidthNear = tanHalfAngle * m_flNearZ;
const float halfWidthFar = tanHalfAngle * m_flFarZ;
// now we can build coordinates in local space: the near rectangle is eg
// (0, -halfWidthNear, -halfWidthNear), (0, halfWidthNear, -halfWidthNear),
// (0, halfWidthNear, halfWidthNear), (0, -halfWidthNear, halfWidthNear)
VectorAligned vNearRect[4] = {
VectorAligned(m_flNearZ, -halfWidthNear, -halfWidthNear), VectorAligned(m_flNearZ, halfWidthNear, -halfWidthNear),
VectorAligned(m_flNearZ, halfWidthNear, halfWidthNear), VectorAligned(m_flNearZ, -halfWidthNear, halfWidthNear)
};
VectorAligned vFarRect[4] = {
VectorAligned(m_flFarZ, -halfWidthFar, -halfWidthFar), VectorAligned(m_flFarZ, halfWidthFar, -halfWidthFar),
VectorAligned(m_flFarZ, halfWidthFar, halfWidthFar), VectorAligned(m_flFarZ, -halfWidthFar, halfWidthFar)
};
matrix3x4_t matOrientation(vForward, -vRight, vUp, vPos);
enum
{
kNEAR = 0,
kFAR = 1,
};
VectorAligned vOutRects[2][4];
for (int i = 0; i < 4; ++i)
{
VectorTransform(vNearRect[i].Base(), matOrientation, vOutRects[0][i].Base());
}
for (int i = 0; i < 4; ++i)
{
VectorTransform(vFarRect[i].Base(), matOrientation, vOutRects[1][i].Base());
}
// now take the min and max extents for the bbox, and see if it is visible.
Vector mins = **vOutRects;
Vector maxs = **vOutRects;
for (int i = 1; i < 8; ++i)
{
VectorMin(mins, *(*vOutRects + i), mins);
VectorMax(maxs, *(*vOutRects + i), maxs);
}
#if 0 //for debugging the visibility frustum we just calculated
NDebugOverlay::Triangle(vOutRects[0][0], vOutRects[0][1], vOutRects[0][2], 255, 0, 0, 100, true, 0.0f); //first tri
NDebugOverlay::Triangle(vOutRects[0][2], vOutRects[0][1], vOutRects[0][0], 255, 0, 0, 100, true, 0.0f); //make it double sided
NDebugOverlay::Triangle(vOutRects[0][2], vOutRects[0][3], vOutRects[0][0], 255, 0, 0, 100, true, 0.0f); //second tri
NDebugOverlay::Triangle(vOutRects[0][0], vOutRects[0][3], vOutRects[0][2], 255, 0, 0, 100, true, 0.0f); //make it double sided
NDebugOverlay::Triangle(vOutRects[1][0], vOutRects[1][1], vOutRects[1][2], 0, 0, 255, 100, true, 0.0f); //first tri
NDebugOverlay::Triangle(vOutRects[1][2], vOutRects[1][1], vOutRects[1][0], 0, 0, 255, 100, true, 0.0f); //make it double sided
NDebugOverlay::Triangle(vOutRects[1][2], vOutRects[1][3], vOutRects[1][0], 0, 0, 255, 100, true, 0.0f); //second tri
NDebugOverlay::Triangle(vOutRects[1][0], vOutRects[1][3], vOutRects[1][2], 0, 0, 255, 100, true, 0.0f); //make it double sided
NDebugOverlay::Box(vec3_origin, mins, maxs, 0, 255, 0, 100, 0.0f);
#endif
bool bVisible = IsBBoxVisible(mins, maxs);
if (!bVisible)
{
// Spotlight's extents aren't in view
if (m_LightHandle != CLIENTSHADOW_INVALID_HANDLE)
{
ShutDownLightHandle();
}
return;
}
float flAlpha = m_flCurrentLinearFloatLightAlpha * (1.0f / 255.0f);
state.m_fQuadraticAtten = m_flQuadratic;
state.m_fLinearAtten = 100;
if (m_bAtten)
{
state.m_fConstantAtten = 0.0f;
}
else
{
state.m_fConstantAtten = 1.0f;
}
state.m_Color[0] = (m_CurrentLinearFloatLightColor.x * (1.0f / 255.0f) * flAlpha) * m_fBrightness;
state.m_Color[1] = (m_CurrentLinearFloatLightColor.y * (1.0f / 255.0f) * flAlpha) * m_fBrightness;
state.m_Color[2] = (m_CurrentLinearFloatLightColor.z * (1.0f / 255.0f) * flAlpha) * m_fBrightness;
state.m_Color[3] = m_flAmbient;
state.m_flShadowSlopeScaleDepthBias = mat_slopescaledepthbias_shadowmap.GetFloat();
state.m_flShadowDepthBias = mat_depthbias_shadowmap.GetFloat();
if (m_bEnableShadows && r_flashlightdepthtexture.GetBool() && m_bClientWantsShadows)
{
state.m_bEnableShadows = true;
}
else
{
state.m_bEnableShadows = false;
}
state.m_pSpotlightTexture = m_SpotlightTexture;
state.m_nSpotlightTextureFrame = m_nSpotlightTextureFrame;
if (r_dynamicshadows_use_c17_improvements.GetBool())
{
//state.m_flShadowFilterSize = m_flBlur;
if (r_flashlightdepthres.GetInt() == 512)
{
state.m_flShadowFilterSize = 0.8f;
}
else if (r_flashlightdepthres.GetInt() == 1024)
{
state.m_flShadowFilterSize = 0.3f;
}
else if (r_flashlightdepthres.GetInt() == 2048)
{
state.m_flShadowFilterSize = 0.2f;
}
else if (r_flashlightdepthres.GetInt() == 4096)
{
state.m_flShadowFilterSize = 0.08f;
}
else
{
state.m_flShadowFilterSize = 1.0f;
}
state.m_flShadowAtten = m_flAtten;
}
else
{
state.m_flShadowFilterSize = 3.0f;
state.m_flShadowAtten = 0.35f;
}
state.m_nShadowQuality = m_nShadowQuality; // Allow entity to affect shadow quality
if (m_LightHandle == CLIENTSHADOW_INVALID_HANDLE)
{
// Hack: env projected textures don't work like normal flashlights; they're not assigned to a given splitscreen slot,
// but the flashlight code requires this
m_LightHandle = g_pClientShadowMgr->CreateFlashlight(state);
if (m_LightHandle != CLIENTSHADOW_INVALID_HANDLE)
{
m_bForceUpdate = false;
}
}
else
{
g_pClientShadowMgr->UpdateFlashlightState(m_LightHandle, state);
m_bForceUpdate = false;
}
g_pClientShadowMgr->GetFrustumExtents(m_LightHandle, m_vecExtentsMin, m_vecExtentsMax);
m_vecExtentsMin = m_vecExtentsMin - GetAbsOrigin();
m_vecExtentsMax = m_vecExtentsMax - GetAbsOrigin();
}
if (m_bLightOnlyTarget)
{
g_pClientShadowMgr->SetFlashlightTarget(m_LightHandle, m_hTargetEntity);
}
else
{
g_pClientShadowMgr->SetFlashlightTarget(m_LightHandle, NULL);
}
g_pClientShadowMgr->SetFlashlightLightWorld(m_LightHandle, m_bLightWorld);
if (!m_bForceUpdate)
{
g_pClientShadowMgr->UpdateProjectedTexture(m_LightHandle, 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;
}
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;
}
void CGrabController::AttachEntity( CBasePlayer *pPlayer, CBaseEntity *pEntity, IPhysicsObject *pPhys, bool bIsMegaPhysCannon, const Vector &vGrabPosition, bool bUseGrabPosition )
{
// play the impact sound of the object hitting the player
// used as feedback to let the player know he picked up the object
int hitMaterial = pPhys->GetMaterialIndex();
int playerMaterial = pPlayer->VPhysicsGetObject() ? pPlayer->VPhysicsGetObject()->GetMaterialIndex() : hitMaterial;
PhysicsImpactSound( pPlayer, pPhys, CHAN_STATIC, hitMaterial, playerMaterial, 1.0, 64 );
Vector position;
QAngle angles;
pPhys->GetPosition( &position, &angles );
// If it has a preferred orientation, use that instead.
Pickup_GetPreferredCarryAngles( pEntity, pPlayer, pPlayer->EntityToWorldTransform(), angles );
// ComputeMaxSpeed( pEntity, pPhys );
// If we haven't been killed by a grab, we allow the gun to grab the nearest part of a ragdoll
if ( bUseGrabPosition )
{
IPhysicsObject *pChild = GetRagdollChildAtPosition( pEntity, vGrabPosition );
if ( pChild )
{
pPhys = pChild;
}
}
// Carried entities can never block LOS
m_bCarriedEntityBlocksLOS = pEntity->BlocksLOS();
pEntity->SetBlocksLOS( false );
m_controller = physenv->CreateMotionController( this );
m_controller->AttachObject( pPhys, true );
// Don't do this, it's causing trouble with constraint solvers.
//m_controller->SetPriority( IPhysicsMotionController::HIGH_PRIORITY );
pPhys->Wake();
PhysSetGameFlags( pPhys, FVPHYSICS_PLAYER_HELD );
SetTargetPosition( position, angles );
m_attachedEntity = pEntity;
IPhysicsObject *pList[VPHYSICS_MAX_OBJECT_LIST_COUNT];
int count = pEntity->VPhysicsGetObjectList( pList, ARRAYSIZE(pList) );
m_flLoadWeight = 0;
float damping = 10;
float flFactor = count / 7.5f;
if ( flFactor < 1.0f )
{
flFactor = 1.0f;
}
for ( int i = 0; i < count; i++ )
{
float mass = pList[i]->GetMass();
pList[i]->GetDamping( NULL, &m_savedRotDamping[i] );
m_flLoadWeight += mass;
m_savedMass[i] = mass;
// reduce the mass to prevent the player from adding crazy amounts of energy to the system
pList[i]->SetMass( REDUCED_CARRY_MASS / flFactor );
pList[i]->SetDamping( NULL, &damping );
}
// Give extra mass to the phys object we're actually picking up
pPhys->SetMass( REDUCED_CARRY_MASS );
pPhys->EnableDrag( false );
m_errorTime = bIsMegaPhysCannon ? -1.5f : -1.0f; // 1 seconds until error starts accumulating
m_error = 0;
m_contactAmount = 0;
m_attachedAnglesPlayerSpace = TransformAnglesToPlayerSpace( angles, pPlayer );
if ( m_angleAlignment != 0 )
{
m_attachedAnglesPlayerSpace = AlignAngles( m_attachedAnglesPlayerSpace, m_angleAlignment );
}
// Ragdolls don't offset this way
if ( dynamic_cast<CRagdollProp*>(pEntity) )
{
m_attachedPositionObjectSpace.Init();
}
else
{
VectorITransform( pEntity->WorldSpaceCenter(), pEntity->EntityToWorldTransform(), m_attachedPositionObjectSpace );
}
// If it's a prop, see if it has desired carry angles
CPhysicsProp *pProp = dynamic_cast<CPhysicsProp *>(pEntity);
if ( pProp )
{
m_bHasPreferredCarryAngles = pProp->GetPropDataAngles( "preferred_carryangles", m_vecPreferredCarryAngles );
m_flDistanceOffset = pProp->GetCarryDistanceOffset();
}
else
{
m_bHasPreferredCarryAngles = false;
m_flDistanceOffset = 0;
}
m_bAllowObjectOverhead = IsObjectAllowedOverhead( pEntity );
}
void CFourWheelVehiclePhysics::CalcWheelData( vehicleparams_t &vehicle )
{
Vector left, right;
QAngle dummy;
SetPoseParameter( m_poseParameters[VEH_FL_WHEEL_HEIGHT], 0 );
SetPoseParameter( m_poseParameters[VEH_FR_WHEEL_HEIGHT], 0 );
SetPoseParameter( m_poseParameters[VEH_RL_WHEEL_HEIGHT], 0 );
SetPoseParameter( m_poseParameters[VEH_RR_WHEEL_HEIGHT], 0 );
m_pOuter->InvalidateBoneCache();
if ( GetAttachment( "wheel_fl", left, dummy ) && GetAttachment( "wheel_fr", right, dummy ) )
{
VectorITransform( left, m_pOuter->EntityToWorldTransform(), left );
VectorITransform( right, m_pOuter->EntityToWorldTransform(), right );
Vector center = (left + right) * 0.5;
vehicle.axles[0].offset = center;
vehicle.axles[0].wheelOffset = right - center;
// Cache the base height of the wheels in body space
m_wheelBaseHeight[0] = left.z;
m_wheelBaseHeight[1] = right.z;
}
if ( GetAttachment( "wheel_rl", left, dummy ) && GetAttachment( "wheel_rr", right, dummy ) )
{
VectorITransform( left, m_pOuter->EntityToWorldTransform(), left );
VectorITransform( right, m_pOuter->EntityToWorldTransform(), right );
Vector center = (left + right) * 0.5;
vehicle.axles[1].offset = center;
vehicle.axles[1].wheelOffset = right - center;
// Cache the base height of the wheels in body space
m_wheelBaseHeight[2] = left.z;
m_wheelBaseHeight[3] = right.z;
}
SetPoseParameter( m_poseParameters[VEH_FL_WHEEL_HEIGHT], 1 );
SetPoseParameter( m_poseParameters[VEH_FR_WHEEL_HEIGHT], 1 );
SetPoseParameter( m_poseParameters[VEH_RL_WHEEL_HEIGHT], 1 );
SetPoseParameter( m_poseParameters[VEH_RR_WHEEL_HEIGHT], 1 );
m_pOuter->InvalidateBoneCache();
if ( GetAttachment( "wheel_fl", left, dummy ) && GetAttachment( "wheel_fr", right, dummy ) )
{
VectorITransform( left, m_pOuter->EntityToWorldTransform(), left );
VectorITransform( right, m_pOuter->EntityToWorldTransform(), right );
// Cache the height range of the wheels in body space
m_wheelTotalHeight[0] = m_wheelBaseHeight[0] - left.z;
m_wheelTotalHeight[1] = m_wheelBaseHeight[1] - right.z;
vehicle.axles[0].wheels.springAdditionalLength = m_wheelTotalHeight[0];
}
if ( GetAttachment( "wheel_rl", left, dummy ) && GetAttachment( "wheel_rr", right, dummy ) )
{
VectorITransform( left, m_pOuter->EntityToWorldTransform(), left );
VectorITransform( right, m_pOuter->EntityToWorldTransform(), right );
// Cache the height range of the wheels in body space
m_wheelTotalHeight[2] = m_wheelBaseHeight[0] - left.z;
m_wheelTotalHeight[3] = m_wheelBaseHeight[1] - right.z;
vehicle.axles[1].wheels.springAdditionalLength = m_wheelTotalHeight[2];
}
SetPoseParameter( m_poseParameters[VEH_FL_WHEEL_HEIGHT], 0 );
SetPoseParameter( m_poseParameters[VEH_FR_WHEEL_HEIGHT], 0 );
SetPoseParameter( m_poseParameters[VEH_RL_WHEEL_HEIGHT], 0 );
SetPoseParameter( m_poseParameters[VEH_RR_WHEEL_HEIGHT], 0 );
m_pOuter->InvalidateBoneCache();
// Get raytrace offsets if they exist.
if ( GetAttachment( "raytrace_fl", left, dummy ) && GetAttachment( "raytrace_fr", right, dummy ) )
{
VectorITransform( left, m_pOuter->EntityToWorldTransform(), left );
VectorITransform( right, m_pOuter->EntityToWorldTransform(), right );
Vector center = ( left + right ) * 0.5;
vehicle.axles[0].raytraceCenterOffset = center;
vehicle.axles[0].raytraceOffset = right - center;
}
if ( GetAttachment( "raytrace_rl", left, dummy ) && GetAttachment( "raytrace_rr", right, dummy ) )
{
VectorITransform( left, m_pOuter->EntityToWorldTransform(), left );
VectorITransform( right, m_pOuter->EntityToWorldTransform(), right );
Vector center = ( left + right ) * 0.5;
vehicle.axles[1].raytraceCenterOffset = center;
vehicle.axles[1].raytraceOffset = right - center;
}
}
