void StudioModel::Chrome (int *pchrome, int bone, vec3_t normal)
{
float n;
if (g_chromeage[bone] != g_smodels_total)
{
// calculate vectors from the viewer to the bone. This roughly adjusts for position
vec3_t chromeupvec; // g_chrome t vector in world reference frame
vec3_t chromerightvec; // g_chrome s vector in world reference frame
vec3_t tmp; // vector pointing at bone in world reference frame
VectorScale( m_origin, -1, tmp );
tmp[0] += g_bonetransform[bone][0][3];
tmp[1] += g_bonetransform[bone][1][3];
tmp[2] += g_bonetransform[bone][2][3];
VectorNormalize( tmp );
CrossProduct( tmp, g_vright, chromeupvec );
VectorNormalize( chromeupvec );
CrossProduct( tmp, chromeupvec, chromerightvec );
VectorNormalize( chromerightvec );
VectorIRotate( chromeupvec, g_bonetransform[bone], g_chromeup[bone] );
VectorIRotate( chromerightvec, g_bonetransform[bone], g_chromeright[bone] );
g_chromeage[bone] = g_smodels_total;
}
// calc s coord
n = DotProduct( normal, g_chromeright[bone] );
pchrome[0] = (n + 1.0) * 32; // FIX: make this a float
// calc t coord
n = DotProduct( normal, g_chromeup[bone] );
pchrome[1] = (n + 1.0) * 32; // FIX: make this a float
}
void VectorITransform(const vec3_t in1, const float in2[3][4], vec3_t out) {
vec3_t tmp;
tmp[0] = in1[0] - in2[0][3];
tmp[1] = in1[1] - in2[1][3];
tmp[2] = in1[2] - in2[2][3];
VectorIRotate(tmp, in2, out);
}
void VectorITransform(Vector *vIn, Matrix *mat, Vector *vOut) {
Vector temp;
temp.x = vIn->x - mat->origin.x;
temp.y = vIn->y - mat->origin.y;
temp.z = vIn->z - mat->origin.z;
VectorIRotate(&temp,mat,vOut);
}
void CPhysicsObject::WorldToLocalVector(Vector *localVector, const Vector &worldVector) const {
if (!localVector) return;
matrix3x4_t matrix;
GetPositionMatrix(&matrix);
VectorIRotate(worldVector, matrix, *localVector);
}
//-----------------------------------------------------------------------------
// Purpose: Try and find an entity to lock onto
//-----------------------------------------------------------------------------
CBaseEntity *CWeaponCombat_ChargeablePlasma::GetLockTarget( void )
{
CBaseTFPlayer *pPlayer = (CBaseTFPlayer*)GetOwner();
if ( !pPlayer )
return NULL;
Vector vecSrc = pPlayer->Weapon_ShootPosition( );
Vector vecAiming;
pPlayer->EyeVectors( &vecAiming );
Vector vecEnd = vecSrc + vecAiming * MAX_TRACE_LENGTH;
trace_t tr;
TFGameRules()->WeaponTraceLine( vecSrc, vecEnd, MASK_SHOT, pPlayer, GetDamageType(), &tr );
if ( (tr.fraction < 1.0f) && tr.m_pEnt )
{
CBaseEntity *pTargetEntity = tr.m_pEnt;
// Don't guide on same team or on anything other than players, objects, and NPCs
if ( pTargetEntity->InSameTeam(pPlayer) || (!pTargetEntity->IsPlayer()
&& (pTargetEntity->MyNPCPointer() == NULL)) )
return NULL;
// Compute the target offset relative to the target
Vector vecWorldOffset;
VectorSubtract( tr.endpos, pTargetEntity->GetAbsOrigin(), vecWorldOffset );
VectorIRotate( vecWorldOffset, pTargetEntity->EntityToWorldTransform(), m_vecTargetOffset );
m_flLockedAt = gpGlobals->curtime + 0.2;
return pTargetEntity;
}
return NULL;
}
void CPhysicsObject::WorldToLocalVector( Vector &localVector, const Vector &worldVector )
{
matrix3x4_t matrix;
GetPositionMatrix( matrix );
// copy in case the src == dest
VectorIRotate( Vector(worldVector), matrix, localVector );
}
int CBaseTurret::MoveTurret(void)
{
bool bDidMove = false;
int iPose;
matrix3x4_t localToWorld;
GetAttachment( LookupAttachment( "eyes" ), localToWorld );
Vector vecGoalDir;
AngleVectors( m_vecGoalAngles, &vecGoalDir );
Vector vecGoalLocalDir;
VectorIRotate( vecGoalDir, localToWorld, vecGoalLocalDir );
QAngle vecGoalLocalAngles;
VectorAngles( vecGoalLocalDir, vecGoalLocalAngles );
float flDiff;
QAngle vecNewAngles;
// update pitch
flDiff = AngleNormalize( UTIL_ApproachAngle( vecGoalLocalAngles.x, 0.0, 0.1 * m_iBaseTurnRate ) );
iPose = LookupPoseParameter( TURRET_BC_PITCH );
SetPoseParameter( iPose, GetPoseParameter( iPose ) + flDiff / 1.5 );
if (fabs(flDiff) > 0.1)
{
bDidMove = true;
}
// update yaw, with acceleration
#if 0
float flDist = AngleNormalize( vecGoalLocalAngles.y );
float flNewDist;
float flNewTurnRate;
ChangeDistance( 0.1, flDist, 0.0, m_fTurnRate, m_iBaseTurnRate, m_iBaseTurnRate * 4, flNewDist, flNewTurnRate );
m_fTurnRate = flNewTurnRate;
flDiff = flDist - flNewDist;
#else
flDiff = AngleNormalize( UTIL_ApproachAngle( vecGoalLocalAngles.y, 0.0, 0.1 * m_iBaseTurnRate ) );
#endif
iPose = LookupPoseParameter( TURRET_BC_YAW );
SetPoseParameter( iPose, GetPoseParameter( iPose ) + flDiff / 1.5 );
if (fabs(flDiff) > 0.1)
{
bDidMove = true;
}
if (bDidMove)
{
// DevMsg( "(%.2f, %.2f)\n", AngleNormalize( vecGoalLocalAngles.x ), AngleNormalize( vecGoalLocalAngles.y ) );
}
return bDidMove;
}
//-----------------------------------------------------------------------------
// Purpose: Causes the turret to face its desired angles
//-----------------------------------------------------------------------------
bool CNPC_CeilingTurret::UpdateFacing( void )
{
bool bMoved = false;
matrix3x4_t localToWorld;
GetAttachment( LookupAttachment( "eyes" ), localToWorld );
Vector vecGoalDir;
AngleVectors( m_vecGoalAngles, &vecGoalDir );
Vector vecGoalLocalDir;
VectorIRotate( vecGoalDir, localToWorld, vecGoalLocalDir );
if ( g_debug_turret_ceiling.GetBool() )
{
Vector vecMuzzle, vecMuzzleDir;
QAngle vecMuzzleAng;
GetAttachment( "eyes", vecMuzzle, vecMuzzleAng );
AngleVectors( vecMuzzleAng, &vecMuzzleDir );
NDebugOverlay::Cross3D( vecMuzzle, -Vector(2,2,2), Vector(2,2,2), 255, 255, 0, false, 0.05 );
NDebugOverlay::Cross3D( vecMuzzle+(vecMuzzleDir*256), -Vector(2,2,2), Vector(2,2,2), 255, 255, 0, false, 0.05 );
NDebugOverlay::Line( vecMuzzle, vecMuzzle+(vecMuzzleDir*256), 255, 255, 0, false, 0.05 );
NDebugOverlay::Cross3D( vecMuzzle, -Vector(2,2,2), Vector(2,2,2), 255, 0, 0, false, 0.05 );
NDebugOverlay::Cross3D( vecMuzzle+(vecGoalDir*256), -Vector(2,2,2), Vector(2,2,2), 255, 0, 0, false, 0.05 );
NDebugOverlay::Line( vecMuzzle, vecMuzzle+(vecGoalDir*256), 255, 0, 0, false, 0.05 );
}
QAngle vecGoalLocalAngles;
VectorAngles( vecGoalLocalDir, vecGoalLocalAngles );
// Update pitch
float flDiff = AngleNormalize( UTIL_ApproachAngle( vecGoalLocalAngles.x, 0.0, 0.1f * MaxYawSpeed() ) );
SetPoseParameter( m_poseAim_Pitch, GetPoseParameter( m_poseAim_Pitch ) + ( flDiff / 1.5f ) );
if ( fabs( flDiff ) > 0.1f )
{
bMoved = true;
}
// Update yaw
flDiff = AngleNormalize( UTIL_ApproachAngle( vecGoalLocalAngles.y, 0.0, 0.1f * MaxYawSpeed() ) );
SetPoseParameter( m_poseAim_Yaw, GetPoseParameter( m_poseAim_Yaw ) + ( flDiff / 1.5f ) );
if ( fabs( flDiff ) > 0.1f )
{
bMoved = true;
}
InvalidateBoneCache();
return bMoved;
}
void TransformNormal (MS3D *ms3d, const ms3d_vertex_t *vertex, const vec3_t normal, vec3_t out) {
int i;
int jointIndices[4], jointWeights[4];
FillJointIndicesAndWeights(vertex, jointIndices, jointWeights);
//if (jointIndices[0] < 0 || jointIndices[0] >= (int) m_joints.size() || m_currentTime < 0.0f)
if (jointIndices[0] < 0 || jointIndices[0] >= ms3d->nNumJoints || ms3d->fCurrentTime < 0.0f)
{
out[0] = normal[0];
out[1] = normal[1];
out[2] = normal[2];
}
else
{
// count valid weights
int numWeights = 0;
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, norm;
VectorIRotate(normal, joint->matGlobalSkeleton, tmp);
VectorRotate(tmp, joint->matGlobal, norm);
out[0] += norm[0] * weights[i];
out[1] += norm[1] * weights[i];
out[2] += norm[2] * weights[i];
}
}
}
void RagdollApplyAnimationAsVelocity( ragdoll_t &ragdoll, matrix3x4_t *pPrevBones, matrix3x4_t *pCurrentBones, float dt )
{
for ( int i = 0; i < ragdoll.listCount; i++ )
{
Vector velocity;
AngularImpulse angVel;
int boneIndex = ragdoll.boneIndex[i];
CalcBoneDerivatives( velocity, angVel, pPrevBones[boneIndex], pCurrentBones[boneIndex], dt );
Vector localVelocity;
AngularImpulse localAngVelocity;
// move these derivatives into the local bone space of the "current" bone
VectorIRotate( velocity, pCurrentBones[boneIndex], localVelocity );
VectorIRotate( angVel, pCurrentBones[boneIndex], localAngVelocity );
// move those bone-local coords back to world space using the ragdoll transform
ragdoll.list[i].pObject->LocalToWorldVector( velocity, localVelocity );
ragdoll.list[i].pObject->LocalToWorldVector( angVel, localAngVelocity );
ragdoll.list[i].pObject->AddVelocity( &velocity, &angVel );
}
}
//-----------------------------------------------------------------------------
// Purpose: Causes the camera to face its desired angles
//-----------------------------------------------------------------------------
bool CNPC_CombineCamera::UpdateFacing()
{
bool bMoved = false;
matrix3x4_t localToWorld;
GetAttachment(LookupAttachment("eyes"), localToWorld);
Vector vecGoalDir;
AngleVectors(m_vecGoalAngles, &vecGoalDir );
Vector vecGoalLocalDir;
VectorIRotate(vecGoalDir, localToWorld, vecGoalLocalDir);
QAngle vecGoalLocalAngles;
VectorAngles(vecGoalLocalDir, vecGoalLocalAngles);
// Update pitch
float flDiff = AngleNormalize(UTIL_ApproachAngle( vecGoalLocalAngles.x, 0.0, 0.1f * MaxYawSpeed()));
int iPose = LookupPoseParameter(COMBINE_CAMERA_BC_PITCH);
SetPoseParameter(iPose, GetPoseParameter(iPose) + (flDiff / 1.5f));
if (fabs(flDiff) > 0.1f)
{
bMoved = true;
}
// Update yaw
flDiff = AngleNormalize(UTIL_ApproachAngle( vecGoalLocalAngles.y, 0.0, 0.1f * MaxYawSpeed()));
iPose = LookupPoseParameter(COMBINE_CAMERA_BC_YAW);
SetPoseParameter(iPose, GetPoseParameter(iPose) + (flDiff / 1.5f));
if (fabs(flDiff) > 0.1f)
{
bMoved = true;
}
if (bMoved && (m_flMoveSoundTime < gpGlobals->curtime))
{
EmitSound("NPC_CombineCamera.Move");
m_flMoveSoundTime = gpGlobals->curtime + CAMERA_MOVE_INTERVAL;
}
// You're going to make decisions based on this info. So bump the bone cache after you calculate everything
InvalidateBoneCache();
return bMoved;
}
void CPhysTorque::SetupForces( IPhysicsObject *pPhys, Vector &linear, AngularImpulse &angular )
{
// clear out force
linear.Init();
matrix3x4_t matrix;
pPhys->GetPositionMatrix( matrix );
// transform motor axis to local space
Vector axis_ls;
VectorIRotate( m_axis, matrix, axis_ls );
// Set torque to be around selected axis
angular = axis_ls * m_force;
}
SOPAngle *SOPAngle::RotateAroundAxis(SOPVector *vec, lua_Number degrees) {
matrix3x4_t m_rgflCoordinateFrame;
Vector rotationAxisLs;
Quaternion q;
matrix3x4_t xform;
matrix3x4_t localToWorldMatrix;
Vector axisvector = vec->ToVector();
QAngle rotatedAngles;
QAngle angOurAngs = ToQAngle();
AngleMatrix( angOurAngs, m_rgflCoordinateFrame );
VectorIRotate( axisvector, m_rgflCoordinateFrame, rotationAxisLs );
AxisAngleQuaternion( rotationAxisLs, degrees, q );
QuaternionMatrix( q, vec3_origin, xform );
ConcatTransforms( m_rgflCoordinateFrame, xform, localToWorldMatrix );
MatrixAngles( localToWorldMatrix, rotatedAngles );
return new SOPAngle(rotatedAngles.x, rotatedAngles.y, rotatedAngles.z);
}
/*
================
StudioModel::SetupLighting
set some global variables based on entity position
inputs:
outputs:
g_ambientlight
g_shadelight
================
*/
void StudioModel::SetupLighting ( )
{
int i;
g_ambientlight = 32;
g_shadelight = 192;
g_lightvec[0] = 0;
g_lightvec[1] = 0;
g_lightvec[2] = -1.0;
g_lightcolor[0] = 1.0;
g_lightcolor[1] = 1.0;
g_lightcolor[2] = 1.0;
// TODO: only do it for bones that actually have textures
for (i = 0; i < m_pstudiohdr->numbones; i++)
{
VectorIRotate( g_lightvec, g_bonetransform[i], g_blightvec[i] );
}
}
IMotionEvent::simresult_e CKeepUpright::Simulate( IPhysicsMotionController *pController, IPhysicsObject *pObject, float deltaTime, Vector &linear, AngularImpulse &angular )
{
if ( !m_bActive )
return SIM_NOTHING;
Vector currentAxis;
matrix3x4_t matrix;
// get the object's local to world transform
pObject->GetPositionMatrix( matrix );
// Get the object's local test axis in world space
VectorRotate( m_localTestAxis, matrix, currentAxis );
Vector rotationAxis = CrossProduct( currentAxis, m_worldGoalAxis );
// atan2() is well defined, so do a Dot & Cross instead of asin(Cross)
float cosine = DotProduct( currentAxis, m_worldGoalAxis );
float sine = VectorNormalize( rotationAxis );
float angle = atan2( sine, cosine );
angle = RAD2DEG(angle);
rotationAxis *= angle;
VectorIRotate( rotationAxis, matrix, angular );
float invDeltaTime = (1/deltaTime);
angular *= invDeltaTime * invDeltaTime;
AngularImpulse angVel;
pObject->GetVelocity( NULL, &angVel );
angular -= angVel;
float len = VectorNormalize( angular );
if ( len > m_angularLimit * invDeltaTime )
len = m_angularLimit * invDeltaTime;
angular *= len;
linear.Init();
return SIM_LOCAL_ACCELERATION;
}
void GetBumpNormals( const Vector& sVect, const Vector& tVect, const Vector& flatNormal,
const Vector& phongNormal, Vector bumpNormals[NUM_BUMP_VECTS] )
{
Vector tmpNormal;
bool leftHanded;
int i;
assert( NUM_BUMP_VECTS == 3 );
// Are we left or right handed?
CrossProduct( sVect, tVect, tmpNormal );
if( DotProduct( flatNormal, tmpNormal ) < 0.0f )
{
leftHanded = true;
}
else
{
leftHanded = false;
}
// Build a basis for the face around the phong normal
matrix3x4_t smoothBasis;
CrossProduct( phongNormal.Base(), sVect.Base(), smoothBasis[1] );
VectorNormalize( smoothBasis[1] );
CrossProduct( smoothBasis[1], phongNormal.Base(), smoothBasis[0] );
VectorNormalize( smoothBasis[0] );
VectorCopy( phongNormal.Base(), smoothBasis[2] );
if( leftHanded )
{
VectorNegate( smoothBasis[1] );
}
// move the g_localBumpBasis into world space to create bumpNormals
for( i = 0; i < 3; i++ )
{
VectorIRotate( g_localBumpBasis[i], smoothBasis, bumpNormals[i] );
}
}
void CPhysMotor::Activate( void )
{
BaseClass::Activate();
// This gets called after all objects spawn and after all objects restore
if ( m_attachedObject == NULL )
{
CBaseEntity *pAttach = gEntList.FindEntityByName( NULL, m_nameAttach, NULL );
if ( pAttach && pAttach->GetMoveType() == MOVETYPE_VPHYSICS )
{
m_attachedObject = pAttach;
IPhysicsObject *pPhys = m_attachedObject->VPhysicsGetObject();
CalculateAcceleration();
matrix3x4_t matrix;
pPhys->GetPositionMatrix( matrix );
Vector motorAxis_ls;
VectorIRotate( m_motor.m_axis, matrix, motorAxis_ls );
float inertia = DotProductAbs( pPhys->GetInertia(), motorAxis_ls );
m_motor.m_maxTorque = inertia * m_motor.m_inertiaFactor * (m_angularAcceleration + m_additionalAcceleration);
m_motor.m_restistanceDamping = 1.0f;
}
}
if ( m_attachedObject )
{
IPhysicsObject *pPhys = m_attachedObject->VPhysicsGetObject();
// create a hinge constraint for this object?
if ( m_spawnflags & SF_MOTOR_HINGE )
{
// UNDONE: Don't do this on restore?
if ( !m_pHinge )
{
constraint_hingeparams_t hingeParams;
hingeParams.Defaults();
hingeParams.worldAxisDirection = m_motor.m_axis;
hingeParams.worldPosition = GetLocalOrigin();
m_pHinge = physenv->CreateHingeConstraint( g_PhysWorldObject, pPhys, NULL, hingeParams );
m_pHinge->SetGameData( (void *)this );
}
if ( m_spawnflags & SF_MOTOR_NOCOLLIDE )
{
physenv->DisableCollisions( pPhys, g_PhysWorldObject );
}
}
else
{
m_pHinge = NULL;
}
// NOTE: On restore, this path isn't run because m_pController will not be NULL
if ( !m_pController )
{
m_pController = physenv->CreateMotionController( &m_motor );
m_pController->AttachObject( m_attachedObject->VPhysicsGetObject() );
if ( m_spawnflags & SF_MOTOR_START_ON )
{
TurnOn();
}
}
}
// Need to do this on restore since there's no good way to save this
if ( m_pController )
{
m_pController->SetEventHandler( &m_motor );
}
}
IMotionEvent::simresult_e CMotorController::Simulate( IPhysicsMotionController *pController, IPhysicsObject *pObject, float deltaTime, Vector &linear, AngularImpulse &angular )
{
linear = vec3_origin;
angular = vec3_origin;
if ( m_speed == 0 )
return SIM_NOTHING;
matrix3x4_t matrix;
pObject->GetPositionMatrix( matrix );
AngularImpulse currentRotAxis;
// currentRotAxis is in local space
pObject->GetVelocity( NULL, ¤tRotAxis );
// transform motor axis to local space
Vector motorAxis_ls;
VectorIRotate( m_axis, matrix, motorAxis_ls );
float currentSpeed = DotProduct( currentRotAxis, motorAxis_ls );
float inertia = DotProductAbs( pObject->GetInertia(), motorAxis_ls );
// compute absolute acceleration, don't integrate over the timestep
float accel = m_speed - currentSpeed;
float rotForce = accel * inertia * m_inertiaFactor;
// BUGBUG: This heuristic is a little flaky
// UNDONE: Make a better heuristic for speed control
if ( fabsf(m_lastAcceleration) > 0 )
{
float deltaSpeed = currentSpeed - m_lastSpeed;
// make sure they are going the same way
if ( deltaSpeed * accel > 0 )
{
float factor = deltaSpeed / m_lastAcceleration;
factor = 1 - clamp( factor, 0, 1 );
rotForce += m_lastForce * factor * m_restistanceDamping;
}
else
{
if ( currentSpeed != 0 )
{
// have we reached a steady state that isn't our target?
float increase = deltaSpeed / m_lastAcceleration;
if ( fabsf(increase) < 0.05 )
{
rotForce += m_lastForce * m_restistanceDamping;
}
}
}
}
// -------------------------------------------------------
if ( m_maxTorque != 0 )
{
if ( rotForce > m_maxTorque )
{
rotForce = m_maxTorque;
}
else if ( rotForce < -m_maxTorque )
{
rotForce = -m_maxTorque;
}
}
m_lastForce = rotForce;
m_lastAcceleration = (rotForce / inertia);
m_lastSpeed = currentSpeed;
// this is in local space
angular = motorAxis_ls * rotForce;
return SIM_LOCAL_FORCE;
}
IMotionEvent::simresult_e CNailGrenadeController::Simulate( IPhysicsMotionController *pController, IPhysicsObject *pObject, float deltaTime, Vector &linear, AngularImpulse &angular )
{
// Try to get to m_vecDesiredPosition
// Try to orient ourselves to m_angDesiredOrientation
Vector currentPos;
QAngle currentAng;
pObject->GetPosition( ¤tPos, ¤tAng );
Vector vecVel;
AngularImpulse angVel;
pObject->GetVelocity( &vecVel, &angVel );
linear.Init();
angular.Init();
if ( m_bReachedPos )
{
// Lock at this height
if ( vecVel.Length() > 1.0 )
{
AngularImpulse nil( 0,0,0 );
pObject->SetVelocityInstantaneous( &vec3_origin, &nil );
// For now teleport to the proper orientation
currentAng.x = 0;
currentAng.y = 0;
currentAng.z = 0;
pObject->SetPosition( currentPos, currentAng, true );
}
}
else
{
// not at the right height yet, keep moving up
linear.z = 50 * ( m_vecDesiredPosition.z - currentPos.z );
if ( currentPos.z > m_vecDesiredPosition.z )
{
// lock into position
m_bReachedPos = true;
}
// Start rotating in the right direction
// we'll lock angles once we reach proper height to stop the oscillating
matrix3x4_t matrix;
// get the object's local to world transform
pObject->GetPositionMatrix( &matrix );
Vector m_worldGoalAxis(0,0,1);
// Get the alignment axis in object space
Vector currentLocalTargetAxis;
VectorIRotate( m_worldGoalAxis, matrix, currentLocalTargetAxis );
float invDeltaTime = (1/deltaTime);
float m_angularLimit = 10;
angular = ComputeRotSpeedToAlignAxes( m_worldGoalAxis, currentLocalTargetAxis, angVel, 1.0, invDeltaTime * invDeltaTime, m_angularLimit * invDeltaTime );
}
return SIM_GLOBAL_ACCELERATION;
}
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;
}
void CKeeperBot::BotAdjustPos()
{
float modifier = KEEPER_MID_COEFF;
QAngle ang = m_oldcmd.viewangles;
Vector target = GetTeam()->m_vGoalCenter;
if (m_vBallVel.Length2D() > 750 && m_flAngToBallVel < 60)
{
float yDist = GetTeam()->m_vGoalCenter.GetY() - m_vBallPos.y;
float vAng = acos(Sign(yDist) * m_vBallDir2D.y);
float xDist = Sign(m_vBallDir2D.x) * abs(yDist) * tan(vAng);
target.x = clamp(m_vBallPos.x + xDist, GetTeam()->m_vGoalCenter.GetX() - 150, GetTeam()->m_vGoalCenter.GetX() + 150);
}
if (m_pBall->State_Get() == BALL_STATE_KEEPERHANDS && m_pBall->GetCurrentPlayer() == this)
{
if (ShotButtonsReleased())
{
modifier = KEEPER_CLOSE_COEFF;
//m_cmd.buttons |= (IN_ATTACK2 | IN_ATTACK);
m_cmd.buttons |= IN_ALT1;
CSDKPlayer *pPl = FindClosestPlayerToSelf(true, true);
if (!pPl && SDKGameRules()->IsIntermissionState())
pPl = FindClosestPlayerToSelf(false, true);
if (pPl)
{
VectorAngles(pPl->GetLocalOrigin() - GetLocalOrigin(), ang);
ang[PITCH] = g_IOSRand.RandomFloat(-40, 0);
//m_flBotNextShot = gpGlobals->curtime + 1;
}
else
{
VectorAngles(Vector(0, GetTeam()->m_nForward, 0), ang);
ang[YAW] += g_IOSRand.RandomFloat(-45, 45);
ang[PITCH] = g_IOSRand.RandomFloat(-40, 0);
//m_flBotNextShot = gpGlobals->curtime + 1;
}
}
}
else// if (gpGlobals->curtime >= m_flBotNextShot)
{
VectorAngles(m_vDirToBall, ang);
float ballDistToGoal = (m_vBallPos - GetTeam()->m_vGoalCenter).Length2D();
CSDKPlayer *pClosest = FindClosestPlayerToBall();
m_cmd.buttons |= IN_ATTACK;
if (ballDistToGoal < 750 && m_vDirToBall.Length2D() < 200 && m_vDirToBall.z < 200 && (m_vDirToBall.z < 80 || m_vBallVel.z <= 0))
{
modifier = KEEPER_CLOSE_COEFF;// max(0.15f, 1 - ballDistToGoal / 750);
VectorAngles(Vector(0, GetTeam()->m_nForward, 0), ang);
bool diving = false;
if (m_flAngToBallVel < 60 && m_flAngToBallVel > 15)
{
if (abs(m_vDirToBall.x) > 50 && abs(m_vDirToBall.x) < 200 && m_vDirToBall.z < 150 && abs(m_vDirToBall.x) < 150 && m_vBallVel.Length() > 200)
{
m_cmd.buttons |= IN_JUMP;
m_cmd.buttons |= Sign(m_vDirToBall.x) == GetTeam()->m_nRight ? IN_MOVERIGHT : IN_MOVELEFT;
//m_cmd.buttons |= (IN_ATTACK2 | IN_ATTACK);
diving = true;
}
else if (m_vDirToBall.z > 100 && m_vDirToBall.z < 150 && m_vDirToBall.Length2D() < 100)
{
m_cmd.buttons |= IN_JUMP;
//m_cmd.buttons |= (IN_ATTACK2 | IN_ATTACK);
diving = true;
}
else if (abs(m_vDirToBall.y) > 50 && abs(m_vDirToBall.y) < 200 && m_vDirToBall.z < 100 && abs(m_vDirToBall.x) < 50 && m_vBallVel.Length() < 200 && pClosest != this)
{
m_cmd.buttons |= IN_JUMP;
m_cmd.buttons |= Sign(m_vLocalDirToBall.x) == GetTeam()->m_nForward ? IN_FORWARD : IN_BACK;
//m_cmd.buttons |= (IN_ATTACK2 | IN_ATTACK);
diving = true;
}
}
if (!diving)
{
if (m_vDirToBall.Length2D() < 50)
{
modifier = KEEPER_CLOSE_COEFF;
//m_cmd.buttons |= (IN_ATTACK2 | IN_ATTACK);
CSDKPlayer *pPl = FindClosestPlayerToSelf(true, true);
if (!pPl && SDKGameRules()->IsIntermissionState())
pPl = FindClosestPlayerToSelf(false, true);
if (pPl)
{
VectorAngles(pPl->GetLocalOrigin() - GetLocalOrigin(), ang);
ang[PITCH] = g_IOSRand.RandomFloat(-40, 0);
//m_flBotNextShot = gpGlobals->curtime + 1;
}
else
{
VectorAngles(Vector(0, GetTeam()->m_nForward, 0), ang);
ang[YAW] += g_IOSRand.RandomFloat(-45, 45);
ang[PITCH] = g_IOSRand.RandomFloat(-40, 0);
//m_flBotNextShot = gpGlobals->curtime + 1;
}
}
else
modifier = KEEPER_CLOSE_COEFF;
}
}
else if (ballDistToGoal < 1250 && m_flAngToBallVel < 60 && m_vBallVel.Length2D() > 300 && (m_vBallVel.z > 100 || m_vDirToBall.z > 100))
{
modifier = KEEPER_FAR_COEFF;
}
else if (ballDistToGoal < 1000 && m_vDirToBall.z < 80 && m_vBallVel.Length2D() < 300 && m_vBallVel.z < 100)
{
if (pClosest == this)
modifier = KEEPER_CLOSE_COEFF;
else
modifier = max(KEEPER_FAR_COEFF, 1 - pow(min(1, ballDistToGoal / 750.0f), 2));
}
else
{
modifier = KEEPER_MID_COEFF;
}
m_cmd.viewangles = ang;
m_LastAngles = m_cmd.viewangles;
SetLocalAngles(m_cmd.viewangles);
SnapEyeAngles(ang);
Vector targetPosDir = target + modifier * (m_vBallPos - target) - GetLocalOrigin();
targetPosDir.z = 0;
float dist = targetPosDir.Length2D();
VectorNormalizeFast(targetPosDir);
Vector localDir;
VectorIRotate(targetPosDir, EntityToWorldTransform(), localDir);
//float speed;
//if (dist < 10)
// speed = 0;
//else if (dist < 100)
// speed = mp_runspeed.GetInt();
//else
// speed = mp_sprintspeed.GetInt();
//float speed = clamp(dist - 10, 0, mp_runspeed.GetInt());
float speed = 0;
if (dist > 30)
speed = clamp(5 * dist, 0, mp_sprintspeed.GetInt() * (mp_botkeeperskill.GetInt() / 100.0f));
if (speed > mp_runspeed.GetInt())
m_cmd.buttons |= IN_SPEED;
m_cmd.forwardmove = localDir.x * speed;
m_cmd.sidemove = -localDir.y * speed;
if (m_cmd.forwardmove > 0)
m_cmd.buttons |= IN_FORWARD;
else if (m_cmd.forwardmove < 0)
m_cmd.buttons |= IN_BACK;
if (m_cmd.sidemove > 0)
m_cmd.buttons |= IN_RIGHT;
else if (m_cmd.sidemove < 0)
m_cmd.buttons |= IN_MOVELEFT;
}
m_cmd.viewangles = ang;
}
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;
}