void plSwimStrategy::Apply(float delSecs)
{
hsVector3 velocity = fController->GetLinearVelocity();
hsVector3 achievedVelocity = fController->GetAchievedLinearVelocity();
IAdjustBuoyancy();
//trying to dampen the oscillations
float retardent = 0.0f;
static float finalBobSpeed = 0.5f;
if ((achievedVelocity.fZ > finalBobSpeed) || (achievedVelocity.fZ < -finalBobSpeed))
retardent = achievedVelocity.fZ * -0.90f;
float zacc = (1.0f - fBuoyancy) * kGravity + retardent;
velocity.fZ += (zacc * delSecs);
velocity.fZ += achievedVelocity.fZ;
// Water Current
if (fCurrentRegion != nil)
{
float angCurrent = 0.0f;
hsVector3 linCurrent(0.0f, 0.0f, 0.0f);
fCurrentRegion->GetCurrent(fController, linCurrent, angCurrent, delSecs);
if (hsABS(angCurrent) > 0.0001f)
fController->IncrementAngle(angCurrent * delSecs);
velocity += linCurrent;
if (velocity.fZ > fCurrentRegion->fMaxUpwardVel)
velocity.fZ = fCurrentRegion->fMaxUpwardVel;
}
if (velocity.fZ < kTerminalVelocity)
velocity.fZ = kTerminalVelocity;
// Convert to displacement vector
hsVector3 displacement = velocity * delSecs;
// Reset vars and move controller //
fController->SetPushingPhysical(nil);
fController->SetFacingPushingPhysical(false);
fHadContacts = fOnGround = false;
unsigned int collideResults = 0;
unsigned int collideFlags = 1<<plSimDefs::kGroupStatic | 1<<plSimDefs::kGroupAvatarBlocker | 1<<plSimDefs::kGroupDynamic;
if (!fController->IsSeeking())
collideFlags |= (1<<plSimDefs::kGroupExcludeRegion);
fController->Move(displacement, collideFlags, collideResults);
if ((collideResults & kBottom) || (collideResults & kSides))
fHadContacts = true;
}
void plSwimStrategy::Apply(float delSecs)
{
hsAssert(fCore,"PlSwimStrategy::Apply No Core shouldn't be Applying");
uint32_t collideFlags =
1<<plSimDefs::kGroupStatic |
1<<plSimDefs::kGroupAvatarBlocker |
1<<plSimDefs::kGroupDynamic;
if(!fCore->IsSeeking())
{
collideFlags|=(1<<plSimDefs::kGroupExcludeRegion);
}
hsVector3 LinearVelocity=fCore->GetLinearVelocity();
hsVector3 AchievedLinearVelocity=fCore->GetAchievedLinearVelocity();
if (fCore->IsKinematic())
{
plSceneObject* so = plSceneObject::ConvertNoRef(fOwner->ObjectIsLoaded());
if (so)
{
// If we've been moved since the last physics update (somebody warped us),
// update the physics before we apply velocity.
const hsMatrix44& l2w = so->GetCoordinateInterface()->GetLocalToWorld();
if (!CompareMatrices(l2w, fCore->GetLastGlobalLoc(), .0001f))
{
fCore->SetKinematicLoc(l2w);
fCore->SetGlobalLoc(l2w);
}
}
return;
}
if (!fCore->IsEnabled())
return;
fCore->SetPushingPhysical(nil);
fCore->SetFacingPushingPhysical( false);
fHadContacts=false;
fOnGround=false;
plSceneObject* so = plSceneObject::ConvertNoRef(fOwner->ObjectIsLoaded());
if (so)
{
// If we've been moved since the last physics update (somebody warped us),
// update the physics before we apply velocity.
const hsMatrix44& l2w = so->GetCoordinateInterface()->GetLocalToWorld();
if (!CompareMatrices(l2w, fCore->GetLastGlobalLoc(), .0001f))
fCore->SetGlobalLoc(l2w);
// Convert our avatar relative velocity to subworld relative
if (!LinearVelocity.IsEmpty())
{
LinearVelocity = l2w * LinearVelocity;
const plCoordinateInterface* subworldCI = fCore->GetSubworldCI();
if (subworldCI)
LinearVelocity = subworldCI->GetWorldToLocal() * LinearVelocity;
}
IAdjustBuoyancy();
float zacc;
float retardent=0.0f;
static float FinalBobSpeed=0.5f;
//trying to dampen the oscillations
if((AchievedLinearVelocity.fZ>FinalBobSpeed)||(AchievedLinearVelocity.fZ<-FinalBobSpeed))
retardent=AchievedLinearVelocity.fZ *-.90f;
zacc=(1-fBuoyancy)*-32.f + retardent;
hsVector3 linCurrent(0.0f,0.0f,0.0f);
float angCurrent = 0.f;
if (fCurrentRegion != nil)
{
fCurrentRegion->GetCurrent(fCore, linCurrent, angCurrent, delSecs);
//fAngularVelocity+= angCurrent;
}
hsVector3 vel(LinearVelocity.fX , LinearVelocity.fY , AchievedLinearVelocity.fZ+ LinearVelocity.fZ );
vel.fZ= vel.fZ + zacc*delSecs;
if(fCurrentRegion!=nil){
if (vel.fZ > fCurrentRegion->fMaxUpwardVel)
{
vel.fZ = fCurrentRegion->fMaxUpwardVel;
}
vel+= linCurrent;
}
static const float kGravity = -32.f;
if(vel.fZ<kGravity)
{//applying this terminal velocity just to avoid shooting 100 feet below the surface
// and losing our surface ray cast
vel.fZ =kGravity;
}
hsVector3 displacement= vel*delSecs;
unsigned int colFlags = 0;
fContactNormals.SetCount(0);
fCore->Move(displacement,collideFlags,colFlags);
if((colFlags&kBottom)||(colFlags&kSides))fHadContacts=true;
float angvel=fCore->GetAngularVelocity();
fCore->SetAngularVelocity(angvel +angCurrent);
}
}
