void gkAuxRenderer::AuxRenderSkeleton( const Vec3& from, const Vec3& to, ColorF& color /*= ColorF(1.0,1.0,1.0,1.0)*/, float radius /*= 0.05f*/, bool ignoreZ /*= false */ )
{
Vec3 dir = to - from;
Vec3 dirInPlane = Vec3::CreateProjection(Vec3(0,0,1), dir.GetNormalized());
if (dirInPlane.IsEquivalent(Vec3(0,0,0)))
{
dirInPlane = Vec3::CreateProjection(Vec3(1,0,0), dir.GetNormalized());
}
float len = dir.GetLength();
dirInPlane.Normalize();
dirInPlane *= radius * len;
Vec3 dirInPlane1 = dirInPlane.GetRotated(dir.GetNormalized(), DEG2RAD(120.0f));
Vec3 dirInPlane2 = dirInPlane.GetRotated(dir.GetNormalized(), DEG2RAD(-120.0f));
Vec3 jointPt = from + dir.GetNormalized() * len * 0.8f;
AuxRender3DLine(from, jointPt + dirInPlane, color, true);
AuxRender3DLine(from, jointPt + dirInPlane1, color, true);
AuxRender3DLine(from, jointPt + dirInPlane2, color, true);
AuxRender3DLine(to, jointPt + dirInPlane, ColorF(1,0,0,1), true);
AuxRender3DLine(to, jointPt + dirInPlane1, ColorF(1,0,0,1), true);
AuxRender3DLine(to, jointPt + dirInPlane2, ColorF(1,0,0,1), true);
AuxRender3DLine(jointPt + dirInPlane, jointPt + dirInPlane2, ColorF(1,0,0,1), true);
AuxRender3DLine(jointPt + dirInPlane1, jointPt + dirInPlane2, ColorF(1,0,0,1), true);
AuxRender3DLine(jointPt + dirInPlane, jointPt + dirInPlane1, ColorF(1,0,0,1), true);
}
void CIntersectionAssistanceUnit::DebugUpdate() const
{
if(g_pGameCVars->pl_pickAndThrow.intersectionAssistDebugEnabled)
{
IEntity* pEntity = gEnv->pEntitySystem->GetEntity(m_subjectEntityId);
if(pEntity)
{
IPhysicalEntity *pPhysical = pEntity->GetPhysics();
if(pPhysical)
{
const float fFontSize = 1.2f;
float drawColor[4] = {1.0f, 1.0f, 1.0f, 1.0f};
string sMsg(string().Format(" Entity ID: [%d]", m_subjectEntityId));
sMsg += string().Format("\n Entity Name: [%s]", pEntity->GetName());
sMsg += string().Format("\n EmbedTimer: [%.3f]", m_embedTimer);
sMsg += string().Format("\n EmbedState: [%s]",(m_embedState == eES_None) ? "NONE" : (m_embedState == eES_Evaluating) ? "EVALUATING" : (m_embedState == eES_ReEvaluating) ? "REEVALUATING" : (m_embedState == eES_NotEmbedded) ? "NOT EMBEDDED" : (m_embedState == eES_Embedded) ? "EMBEDDED" : "UNKNOWN");
Vec3 vCurrTrans = m_entityStartingWPos - pEntity->GetWorldPos();
sMsg += string().Format("\n Translation: < %.3f, %.3f, %.3f >", vCurrTrans.x, vCurrTrans.y, vCurrTrans.z );
sMsg += string().Format("\n Trans magnitude: < %.3f >", vCurrTrans.GetLength() );
sMsg += string().Format("\n Trans per sec: < %.3f >", vCurrTrans.GetLength() / g_pGameCVars->pl_pickAndThrow.intersectionAssistTimePeriod );
sMsg += string().Format("\n Collision count: %u", m_collisionCount );
// RENDER
Vec3 vDrawPos = pEntity->GetWorldPos() + Vec3(0.0f,0.0f,0.6f);
gEnv->pRenderer->DrawLabelEx(vDrawPos, fFontSize, drawColor, true, true, sMsg.c_str());
// Box
pe_params_bbox bbox;
if(pPhysical->GetParams(&bbox))
{
ColorB colDefault = ColorB( 127,127,127 );
ColorB embedded = ColorB(255, 0, 0);
ColorB notEmbedded = ColorB(0, 255, 0);
gEnv->pRenderer->GetIRenderAuxGeom()->DrawAABB( AABB(bbox.BBox[0],bbox.BBox[1]), Matrix34(IDENTITY), false, (m_embedState == eES_Embedded) ? embedded : (m_embedState == eES_NotEmbedded) ? notEmbedded : colDefault, eBBD_Faceted);
}
}
}
}
}
Quat QuatFromSourceToTarget( const Vec3& source, const Vec3& target )
{
Vec3 s = source.GetNormalized();
Vec3 t = target.GetNormalized();
Vec3 c = s.GetCrossProduct( t );
Real d = s.GetDotProduct( t );
// check if vectors are the same
if ( Equals( d, Real( 1 ), REAL_EPSILON * 3 ) )
{
// set to no rotation and return
return Quat::ZERO;
}
// check for 180 degree rotation
Real clen = c.GetLength();
if ( clen <= REAL_EPSILON )
{
// pick an axis to rotate around
Vec3 r = Vec3::UNIT_Y.GetCrossProduct( source );
Real rlen = r.GetLength();
if ( rlen <= REAL_EPSILON )
{
// bad luck, pick another axis
r = Vec3::UNIT_X.GetCrossProduct( source );
rlen = r.GetLength();
}
// normalize, set rotation and return
r /= rlen;
return QuatFromAxisAngle( r, Radian( REAL_PI ) );
}
// normalize c
c /= clen;
// get angle and set quaternion
Real a = acos( d ) * Real( 0.5 );
Real sa = sin( a );
return Quat( cos( a ), c.X() * sa, c.Y() * sa, c.Z() * sa );
}
//====================================================================
// DebugDrawArrow
//====================================================================
void CAIDebugRenderer::DrawArrow(const Vec3& vPos, const Vec3& vLength, float fWidth, const ColorB& color)
{
Vec3 points[7];
Vec3 tris[5 * 3];
float len = vLength.GetLength();
if (len < 0.0001f)
return;
float headLen = fWidth * 2.0f;
float headWidth = fWidth * 2.0f;
if (headLen > len * 0.8f)
headLen = len * 0.8f;
Vec3 vDir(vLength/len);
Vec3 norm(vLength.y, -vLength.x, 0);
norm.NormalizeSafe();
Vec3 end(vPos + vLength);
Vec3 start(vPos);
unsigned int n = 0;
points[n++] = end;
points[n++] = end - vDir * headLen - norm * headWidth/2;
PREFAST_SUPPRESS_WARNING(6386)
points[n++] = end - vDir * headLen - norm * fWidth/2;
points[n++] = end - vDir * headLen + norm * fWidth/2;
points[n++] = end - vDir * headLen + norm * headWidth/2;
points[n++] = start - norm * fWidth/2;
points[n++] = start + norm * fWidth/2;
n = 0;
tris[n++] = points[0];
tris[n++] = points[1];
tris[n++] = points[2];
tris[n++] = points[0];
tris[n++] = points[2];
tris[n++] = points[3];
tris[n++] = points[0];
tris[n++] = points[3];
tris[n++] = points[4];
tris[n++] = points[2];
tris[n++] = points[5];
tris[n++] = points[6];
tris[n++] = points[2];
tris[n++] = points[6];
tris[n++] = points[3];
DrawTriangles(tris, n, color);
}
Quat QuatFromExponentialMap( const Vec3& v )
{
Radian angle( v.GetLength() );
if ( angle > std::numeric_limits<Real>::epsilon() )
{
return QuatFromAxisAngle( v / angle, angle );
}
else
{
return Quat::ZERO;
}
}
void CIntersectionAssistanceUnit::UpdateCheckingForObjectEmbed(const float dt)
{
if(IsClientResponsibleForSubjectEntity())
{
if(m_embedTimer > 0.0f)
{
m_embedTimer -= dt;
if(m_embedTimer < 0.0f)
{
IEntity* pEntity = gEnv->pEntitySystem->GetEntity(m_subjectEntityId);
if(pEntity)
{
// Make our decision, is this object stuck?
Vec3 translation = m_entityStartingWPos - pEntity->GetWorldPos();
const float transPerSec = translation.GetLength() / g_pGameCVars->pl_pickAndThrow.intersectionAssistTimePeriod;
const float countsPerSec = m_collisionCount / g_pGameCVars->pl_pickAndThrow.intersectionAssistTimePeriod;
if( countsPerSec >= g_pGameCVars->pl_pickAndThrow.intersectionAssistCollisionsPerSecond &&
transPerSec <= g_pGameCVars->pl_pickAndThrow.intersectionAssistTranslationThreshold )
{
OnDetectObjectEmbedded();
}
else
{
// Are we still suspicious?
if(countsPerSec >= g_pGameCVars->pl_pickAndThrow.intersectionAssistCollisionsPerSecond)
{
// The object moved a fair distance, but its getting an awful lot of high penetration collision events - Test a while longer
BeginCheckingForObjectEmbed();
m_embedState = eES_ReEvaluating;
}
else
{
m_embedState = eES_NotEmbedded;
}
}
}
}
}
}
#ifndef _RELEASE
DebugUpdate();
#endif //#ifndef _RELEASE
}
void CBoidBug::UpdateBugsBehavior( float dt,SBoidContext &bc )
{
if (cry_random(0, 9) == 0)
{
// Randomally modify heading vector.
m_heading.x += Boid::Frand()*0.2f*bc.factorAlignment; // Used as random movement.
m_heading.y += Boid::Frand()*0.2f*bc.factorAlignment;
m_heading.z += Boid::Frand()*0.1f*bc.factorAlignment;
m_heading = m_heading.GetNormalized();
if (bc.behavior == EBUGS_DRAGONFLY)
m_speed = bc.MinSpeed + (bc.MaxSpeed - bc.MinSpeed)*Boid::Frand();
}
// Avoid player.
Vec3 fromPlayerVec = Vec3( m_pos.x-bc.playerPos.x, m_pos.y-bc.playerPos.y, 0 );
if ((fromPlayerVec).GetLengthSquared() < BUGS_SCARE_DISTANCE*BUGS_SCARE_DISTANCE) // 2 meters.
{
float d = (BUGS_SCARE_DISTANCE - fromPlayerVec.GetLength());
m_accel += 5.0f * fromPlayerVec * d;
}
// Maintain average speed.
float targetSpeed = (bc.MaxSpeed + bc.MinSpeed)/2;
m_accel -= m_heading*(m_speed-targetSpeed)*0.5f;
//m_accel = (m_targetPos - m_pos)*bc.factorAttractToOrigin;
if (m_pos.z < bc.terrainZ+bc.MinHeight)
{
m_accel.z = (bc.terrainZ+bc.MinHeight-m_pos.z)*bc.factorAttractToOrigin;
}
else if (m_pos.z > bc.terrainZ+bc.MaxHeight)
{
m_accel.z = -(m_pos.z-bc.terrainZ+bc.MinHeight)*bc.factorAttractToOrigin;
}
else
{
// Always try to accelerate in direction oposite to current in Z axis.
m_accel.z += -m_heading.z * 0.2f;
}
}
//------------------------------------------------------------------------
void CProjectile::SetVelocity(const Vec3 &pos, const Vec3 &dir, const Vec3 &velocity, float speedScale)
{
if (!m_pPhysicalEntity)
return;
Vec3 totalVelocity = (dir * m_pAmmoParams->speed * speedScale) + velocity;
if (m_pPhysicalEntity->GetType()==PE_PARTICLE)
{
pe_params_particle particle;
particle.heading = totalVelocity.GetNormalized();
particle.velocity = totalVelocity.GetLength();
m_pPhysicalEntity->SetParams(&particle);
}
else if (m_pPhysicalEntity->GetType()==PE_RIGID)
{
pe_action_set_velocity vel;
vel.v = totalVelocity;
m_pPhysicalEntity->Action(&vel);
}
}
virtual void ProcessEvent( EFlowEvent event,SActivationInfo *pActInfo )
{
switch (event)
{
case eFE_Activate:
{
// update destination only if dynamic update is enabled. otherwise destination is read on Start/Reset only
if (m_bActive && IsPortActive(pActInfo, IN_DEST) && GetPortBool(pActInfo, IN_DYN_DEST) == true)
{
ReadDestinationPosFromInput( pActInfo );
if (m_valueType==VT_TIME)
CalcSpeedFromTimeInput( pActInfo );
}
if (m_bActive && IsPortActive(pActInfo, IN_VALUE))
{
ReadSpeedFromInput( pActInfo );
}
if (IsPortActive(pActInfo, IN_START))
{
Start( pActInfo );
}
if (IsPortActive(pActInfo, IN_STOP))
{
pActInfo->pGraph->SetRegularlyUpdated( pActInfo->myID, false );
if (m_bActive)
{
ActivateOutput(pActInfo, OUT_DONE, true);
m_bActive = false;
}
ActivateOutput(pActInfo, OUT_STOP, true);
}
// we dont support dynamic change of those inputs
assert( !IsPortActive(pActInfo, IN_COORDSYS) );
assert( !IsPortActive(pActInfo, IN_VALUETYPE) );
break;
}
case eFE_Initialize:
{
m_bActive = false;
m_position = ZERO;
m_coorSys = (ECoordSys)GetPortInt( pActInfo, IN_COORDSYS );
m_valueType = (EValueType)GetPortInt(pActInfo, IN_VALUETYPE);
IEntity *pEnt = pActInfo->pEntity;
if(pEnt)
m_position = pEnt->GetWorldPos();
ActivateOutput(pActInfo, OUT_CURRENT, m_position); // i dont see a sense for this, but lets keep it for now
pActInfo->pGraph->SetRegularlyUpdated( pActInfo->myID, false );
break;
}
case eFE_Update:
{
IEntity *pEnt = pActInfo->pEntity;
if (!pEnt)
{
pActInfo->pGraph->SetRegularlyUpdated( pActInfo->myID, false );
break;
}
// Use physics velocity updates, unless the entity is parented in another entity space and not rigid.
IPhysicalEntity* pPhysEnt = pEnt->GetPhysics();
if( pPhysEnt && (pEnt->GetParent()!=NULL || pPhysEnt->GetType() == PE_STATIC) )
{
pPhysEnt = NULL;
}
if (m_stopping)
{
m_stopping = false;
pActInfo->pGraph->SetRegularlyUpdated( pActInfo->myID, false );
if( pPhysEnt == NULL )
{
SetPos(pActInfo, m_destination);
}
m_bActive = false;
break;
}
if (!m_bActive) break;
float time = gEnv->pTimer->GetFrameStartTime().GetSeconds();
float timeDifference = time - m_lastFrameTime;
m_lastFrameTime = time;
// note - if there's no physics then this will be the same, but if the platform is moved through physics, then
// we have to get back the actual movement - this maybe framerate dependent.
m_position = pActInfo->pEntity->GetPos();
// let's compute the movement vector now
Vec3 oldPosition = m_position;
if(m_bForceFinishAsTooNear || m_position.IsEquivalent(m_destination, 0.01f))
{
m_position = m_destination;
oldPosition = m_destination;
ActivateOutput(pActInfo, OUT_DONE, true);
ActivateOutput(pActInfo, OUT_FINISH, true);
SetPos(pActInfo, m_position); // for finishing we have to make a manual setpos even if there is physics involved, to make sure the entity will be where it should.
if (pPhysEnt)
{
pe_action_set_velocity setVel;
setVel.v = ZERO;
pPhysEnt->Action( &setVel );
m_stopping = true;
}
else
{
pActInfo->pGraph->SetRegularlyUpdated( pActInfo->myID, false );
m_bActive = false;
}
}
else
{
Vec3 direction = m_destination - m_position;
float distance = direction.GetLength();
Vec3 directionAndSpeed = direction.normalized();
// ease-area calcs
float distanceForEaseOutCalc = distance + m_easeOutDistance * EASE_MARGIN_FACTOR;
if (distanceForEaseOutCalc < m_easeOutDistance) // takes care of m_easeOutDistance being 0
{
directionAndSpeed *= distanceForEaseOutCalc / m_easeOutDistance;
}
else // init code makes sure both eases dont overlap, when the movement is time defined. when it is speed defined, only ease out is applied if they overlap.
{
if (m_easeInDistance>0.f)
{
Vec3 vectorFromStart = m_position - m_startPos;
float distanceFromStart = vectorFromStart.GetLength();
float distanceForEaseInCalc = distanceFromStart + m_easeInDistance * EASE_MARGIN_FACTOR;
if (distanceForEaseInCalc < m_easeInDistance)
{
directionAndSpeed *= distanceForEaseInCalc / m_easeInDistance;
}
}
}
directionAndSpeed *= (m_topSpeed * timeDifference);
if(direction.GetLength() < directionAndSpeed.GetLength())
{
m_position = m_destination;
m_bForceFinishAsTooNear = true;
}
else
m_position += directionAndSpeed;
}
ActivateOutput(pActInfo, OUT_CURRENT, m_position);
if (pPhysEnt == NULL)
{
SetPos(pActInfo, m_position);
}
else
{
pe_action_set_velocity setVel;
float rTimeStep = timeDifference>0.000001f ? 1.f / timeDifference : 0.0f;
setVel.v = (m_position - oldPosition) * rTimeStep;
pPhysEnt->Action( &setVel );
}
break;
}
};
};
void CPlayerStateUtil::CalculateGroundOrJumpMovement( const CPlayer& player, const SActorFrameMovementParams &movement, const bool bigWeaponRestrict, Vec3 &move )
{
const bool isPlayer = player.IsPlayer();
const float totalMovement = fabsf(movement.desiredVelocity.x) + fabsf(movement.desiredVelocity.y);
const bool moving = (totalMovement > FLT_EPSILON);
if (moving)
{
Vec3 desiredVelocityClamped = movement.desiredVelocity;
const float desiredVelocityMag = desiredVelocityClamped.GetLength();
const float invDesiredVelocityMag = 1.0f / desiredVelocityMag;
float strafeMul;
if (bigWeaponRestrict)
{
strafeMul = g_pGameCVars->pl_movement.nonCombat_heavy_weapon_strafe_speed_scale;
}
else
{
strafeMul = g_pGameCVars->pl_movement.strafe_SpeedScale;
}
float backwardMul = 1.0f;
desiredVelocityClamped = desiredVelocityClamped * (float)__fsel(-(desiredVelocityMag - 1.0f), 1.0f, invDesiredVelocityMag);
//going back?
if (isPlayer) //[Mikko] Do not limit backwards movement when controlling AI.
{
backwardMul = (float)__fsel(desiredVelocityClamped.y, 1.0f, LERP(backwardMul, player.m_params.backwardMultiplier, -desiredVelocityClamped.y));
}
NETINPUT_TRACE(player.GetEntityId(), backwardMul);
NETINPUT_TRACE(player.GetEntityId(), strafeMul);
const Quat oldBaseQuat = player.GetEntity()->GetWorldRotation(); // we cannot use m_baseQuat: that one is already updated to a new orientation while desiredVelocity was relative to the old entity frame
move += oldBaseQuat.GetColumn0() * desiredVelocityClamped.x * strafeMul * backwardMul;
move += oldBaseQuat.GetColumn1() * desiredVelocityClamped.y * backwardMul;
}
//ai can set a custom sprint value, so dont cap the movement vector
if (movement.sprint<=0.0f)
{
//cap the movement vector to max 1
float moveModule(move.len());
//[Mikko] Do not limit backwards movement when controlling AI, otherwise it will disable sprinting.
if (isPlayer)
{
move /= (float)__fsel(-(moveModule - 1.0f), 1.0f, moveModule);
}
NETINPUT_TRACE(player.GetEntityId(), moveModule);
}
//player movement don't need the m_frameTime, its handled already in the physics
float scale = player.GetStanceMaxSpeed(player.GetStance());
move *= scale;
NETINPUT_TRACE(player.GetEntityId(), scale);
if (isPlayer)
{
const bool isCrouching = ((player.m_actions & ACTION_CROUCH) != 0);
AdjustMovementForEnvironment( player, move, bigWeaponRestrict, isCrouching );
}
}
//////////////////////////////////////////////////////////////////////////
// NOTE: This function must be thread-safe. Before adding stuff contact MarcoC.
void CVehicleMovementTank::ProcessAI(const float deltaTime)
{
FUNCTION_PROFILER( GetISystem(), PROFILE_GAME );
float dt = max( deltaTime, 0.005f);
m_movementAction.brake = false;
m_movementAction.rotateYaw = 0.0f;
m_movementAction.power = 0.0f;
float inputSpeed = 0.0f;
{
if (m_aiRequest.HasDesiredSpeed())
inputSpeed = m_aiRequest.GetDesiredSpeed();
Limit(inputSpeed, -m_maxSpeed, m_maxSpeed);
}
Vec3 vMove(ZERO);
{
if (m_aiRequest.HasMoveTarget())
vMove = ( m_aiRequest.GetMoveTarget() - m_PhysPos.pos ).GetNormalizedSafe();
}
//start calculation
if ( fabsf( inputSpeed ) < 0.0001f || m_tireBlownTimer > 1.5f )
{
// only the case to use a hand break
m_movementAction.brake = true;
}
else
{
Matrix33 entRotMatInvert( m_PhysPos.q );
entRotMatInvert.Invert();
float currentAngleSpeed = RAD2DEG(-m_PhysDyn.w.z);
const static float maxSteer = RAD2DEG(gf_PI/4.f); // fix maxsteer, shouldn't change
Vec3 vVel = m_PhysDyn.v;
Vec3 vVelR = entRotMatInvert * vVel;
float currentSpeed =vVel.GetLength();
vVelR.NormalizeSafe();
if ( vVelR.Dot( FORWARD_DIRECTION ) < 0 )
currentSpeed *= -1.0f;
// calculate pedal
static float accScale = 0.5f;
m_movementAction.power = (inputSpeed - currentSpeed) * accScale;
Limit( m_movementAction.power, -1.0f, 1.0f);
// calculate angles
Vec3 vMoveR = entRotMatInvert * vMove;
Vec3 vFwd = FORWARD_DIRECTION;
vMoveR.z =0.0f;
vMoveR.NormalizeSafe();
if ( inputSpeed < 0.0 ) // when going back
{
vFwd *= -1.0f;
vMoveR *= -1.0f;
currentAngleSpeed *=-1.0f;
}
float cosAngle = vFwd.Dot(vMoveR);
float angle = RAD2DEG( acos_tpl(cosAngle));
if ( vMoveR.Dot( Vec3( 1.0f,0.0f,0.0f ) )< 0 )
angle = -angle;
// int step =0;
m_movementAction.rotateYaw = angle * 1.75f/ maxSteer;
// implementation 1. if there is enough angle speed, we don't need to steer more
if ( fabsf(currentAngleSpeed) > fabsf(angle) && angle*currentAngleSpeed > 0.0f )
{
m_movementAction.rotateYaw = m_currSteer*0.995f;
// step =1;
}
// implementation 2. if we can guess we reach the distination angle soon, start counter steer.
float predictDelta = inputSpeed < 0.0f ? 0.1f : 0.07f;
float dict = angle + predictDelta * ( angle - m_prevAngle) / dt ;
if ( dict*currentAngleSpeed<0.0f )
{
if ( fabsf( angle ) < 2.0f )
{
m_movementAction.rotateYaw = angle* 1.75f/ maxSteer;
// step =3;
}
else
{
m_movementAction.rotateYaw = currentAngleSpeed < 0.0f ? 1.0f : -1.0f;
// step =2;
}
}
// implementation 3. tank can rotate at a point
if ( fabs( angle )> 20.0f )
{
m_movementAction.power *=0.1f;
// step =4;
}
// char buf[1024];
// sprintf(buf, "steering %4.2f %4.2f %4.2f %d\n", deltaTime,currentAngleSpeed, angle - m_prevAngle, step);
// OutputDebugString( buf );
m_prevAngle = angle;
}
}
//////////////////////////////////////////////////////////////////////////
// NOTE: This function must be thread-safe. Before adding stuff contact MarcoC.
void CVehicleMovementVTOL::ProcessAI(const float deltaTime)
{
FUNCTION_PROFILER( GetISystem(), PROFILE_GAME );
if (!m_isVTOLMovement)
{
CVehicleMovementHelicopter::ProcessAI(deltaTime);
return;
}
m_velDamp = 0.15f;
const float maxDirChange = 15.0f;
// it's useless to progress further if the engine has yet to be turned on
if (!m_isEnginePowered)
return;
m_movementAction.Clear();
m_movementAction.isAI = true;
ResetActions();
// Our current state
const Vec3 worldPos = m_PhysPos.pos;
const Matrix33 worldMat( m_PhysPos.q);
Ang3 worldAngles = Ang3::GetAnglesXYZ(worldMat);
const Vec3 currentVel = m_PhysDyn.v;
const Vec3 currentVel2D(currentVel.x, currentVel.y, 0.0f);
// +ve direction mean rotation anti-clocwise about the z axis - 0 means along y
float currentDir = worldAngles.z;
// to avoid singularity
const Vec3 vWorldDir = worldMat * FORWARD_DIRECTION;
const Vec3 vWorldDir2D = Vec3( vWorldDir.x, vWorldDir.y, 0.0f ).GetNormalizedSafe();
// Our inputs
const float desiredSpeed = m_aiRequest.HasDesiredSpeed() ? m_aiRequest.GetDesiredSpeed() : 0.0f;
const Vec3 desiredMoveDir = m_aiRequest.HasMoveTarget() ? (m_aiRequest.GetMoveTarget() - worldPos).GetNormalizedSafe() : vWorldDir;
const Vec3 desiredMoveDir2D = Vec3(desiredMoveDir.x, desiredMoveDir.y, 0.0f).GetNormalizedSafe(vWorldDir2D);
const Vec3 desiredVel = desiredMoveDir * desiredSpeed;
const Vec3 desiredVel2D(desiredVel.x, desiredVel.y, 0.0f);
const Vec3 desiredLookDir = m_aiRequest.HasLookTarget() ? (m_aiRequest.GetLookTarget() - worldPos).GetNormalizedSafe() : desiredMoveDir;
const Vec3 desiredLookDir2D = Vec3(desiredLookDir.x, desiredLookDir.y, 0.0f).GetNormalizedSafe(vWorldDir2D);
// Calculate the desired 2D velocity change
Vec3 desiredVelChange2D = desiredVel2D - currentVel2D;
float velChangeLength = desiredVelChange2D.GetLength2D();
bool isLandingMode = false;
if (m_pLandingGears && m_pLandingGears->AreLandingGearsOpen())
isLandingMode = true;
bool isHorizontal = (desiredSpeed >= 5.0f) && (desiredMoveDir.GetLength2D() > desiredMoveDir.z);
float desiredPitch = 0.0f;
float desiredRoll = 0.0f;
float desiredDir = atan2f(-desiredLookDir2D.x, desiredLookDir2D.y);
while (currentDir < desiredDir - gf_PI)
currentDir += 2.0f * gf_PI;
while (currentDir > desiredDir + gf_PI)
currentDir -= 2.0f * gf_PI;
float diffDir = (desiredDir - currentDir);
m_actionYaw = diffDir * m_yawInputConst;
m_actionYaw += m_yawInputDamping * (currentDir - m_lastDir) / deltaTime;
m_lastDir = currentDir;
if (isHorizontal && !isLandingMode)
{
float desiredFwdSpeed = desiredVelChange2D.GetLength();
desiredFwdSpeed *= min(1.0f, diffDir / DEG2RAD(maxDirChange));
if (!iszero(desiredFwdSpeed))
{
const Vec3 desiredWorldTiltAxis = Vec3(-desiredVelChange2D.y, desiredVelChange2D.x, 0.0f);
const Vec3 desiredLocalTiltAxis = worldMat.GetTransposed() * desiredWorldTiltAxis;
m_forwardAction = m_fwdPID.Update(currentVel.y, desiredLocalTiltAxis.GetLength(), -1.0f, 1.0f);
float desiredTiltAngle = m_tiltPerVelDifference * desiredVelChange2D.GetLength();
Limit(desiredTiltAngle, -m_maxTiltAngle, m_maxTiltAngle);
if (desiredTiltAngle > 0.0001f)
{
const Vec3 desiredWorldTiltAxis2 = Vec3(-desiredVelChange2D.y, desiredVelChange2D.x, 0.0f).GetNormalizedSafe();
const Vec3 desiredLocalTiltAxis2 = worldMat.GetTransposed() * desiredWorldTiltAxis2;
Vec3 vVelLocal = worldMat.GetTransposed() * desiredVel;
vVelLocal.NormalizeSafe();
float dotup = vVelLocal.Dot(Vec3( 0.0f,0.0f,1.0f ) );
float currentSpeed = currentVel.GetLength();
desiredPitch = dotup *currentSpeed / 100.0f;
desiredRoll = desiredTiltAngle * desiredLocalTiltAxis2.y *currentSpeed/30.0f;
}
}
}
else
{
float desiredTiltAngle = m_tiltPerVelDifference * desiredVelChange2D.GetLength();
Limit(desiredTiltAngle, -m_maxTiltAngle, m_maxTiltAngle);
if (desiredTiltAngle > 0.0001f)
{
const Vec3 desiredWorldTiltAxis = Vec3(-desiredVelChange2D.y, desiredVelChange2D.x, 0.0f).GetNormalizedSafe();
const Vec3 desiredLocalTiltAxis = worldMat.GetTransposed() * desiredWorldTiltAxis;
desiredPitch = desiredTiltAngle * desiredLocalTiltAxis.x;
desiredRoll = desiredTiltAngle * desiredLocalTiltAxis.y;
}
}
float currentHeight = m_PhysPos.pos.z;
if ( m_aiRequest.HasMoveTarget() )
{
m_hoveringPower = m_powerPID.Update(currentVel.z, desiredVel.z, -1.0f, 4.0f);
//m_hoveringPower = (m_desiredHeight - currentHeight) * m_powerInputConst;
//m_hoveringPower += m_powerInputDamping * (currentHeight - m_lastHeight) / deltaTime;
if (isHorizontal)
{
if (desiredMoveDir.z > 0.6f || desiredMoveDir.z < -0.85f)
{
desiredPitch = max(-0.5f, min(0.5f, desiredMoveDir.z)) * DEG2RAD(35.0f);
m_forwardAction += abs(desiredMoveDir.z);
}
m_liftAction = min(2.0f, max(m_liftAction, m_hoveringPower * 2.0f));
}
else
{
m_liftAction = 0.0f;
}
}
else
{
// to keep hovering at the same place
m_hoveringPower = m_powerPID.Update(currentVel.z, m_desiredHeight - currentHeight, -1.0f, 1.0f);
m_liftAction = 0.0f;
if (m_pVehicle->GetAltitude() > 10.0f) //TODO: this line is not MTSafe
m_liftAction = m_forwardAction;
}
m_actionPitch += m_pitchActionPerTilt * (desiredPitch - worldAngles.x);
m_actionRoll += m_pitchActionPerTilt * (desiredRoll - worldAngles.y);
Limit(m_actionPitch, -1.0f, 1.0f);
Limit(m_actionRoll, -1.0f, 1.0f);
Limit(m_actionYaw, -1.0f, 1.0f);
if (m_horizontal > 0.0001f)
m_desiredHeight = m_PhysPos.pos.z;
Limit(m_forwardAction, -1.0f, 1.0f);
}
void CNetLerper::Update(float dt, const Vec3& entityPos, SPrediction& predictionOut, const Vec3& velGround, bool bInAirOrJumping)
{
if(!m_enabled)
{
predictionOut.predictedPos = entityPos;
predictionOut.lerpVel.zero();
predictionOut.shouldSnap = false;
return;
}
CRY_ASSERT(m_settings);
dt = max(dt, 0.001f);
IEntity* pGroundEntity = gEnv->pEntitySystem->GetEntity(m_standingOn);
m_desired.worldPos = m_desired.pos;
if (pGroundEntity)
{
if (IPhysicalEntity* pGroundPhys = pGroundEntity->GetPhysics())
{
pe_status_pos psp;
pGroundPhys->GetStatus(&psp);
m_desired.worldPos = psp.q * m_desired.pos + psp.pos;
}
}
// Prediction is done a "long" time ahead
const float predictTime = min(m_clock + m_settings->lookAhead, m_settings->maxLookAhead);
const Vec3 predictedPos = m_desired.worldPos + (m_desired.vel * predictTime);
const Vec3 predOffset = predictedPos - entityPos;
const float predDist = predOffset.GetLength();
// Errors:
m_lerpedError = entityPos - predictedPos;
// Error between desired pos (nb: not predicted pos)
const Vec3 errorToDesiredPos = entityPos - m_desired.worldPos;
const int snapError = GetLerpError(errorToDesiredPos, m_lerpedError);
m_clock += dt;
const float lerpDist = predDist + (dt*velGround).GetLength();
if (lerpDist<m_settings->minLerpDistance && m_desired.vel.GetLengthSquared() < sqr(m_settings->minLerpSpeed) && !bInAirOrJumping) // Stop lerping
{
// This block should be entered as few times as possible while on a moving platform.
predictionOut.predictedPos = predictedPos;
predictionOut.lerpVel.zero();
predictionOut.shouldSnap = false;
m_lerpedPos = m_desired.worldPos;
m_lerpedError.zero();
if (m_snapType== eSnap_None)
{
predictionOut.shouldSnap = true;
m_snapType = eSnap_Minor;
LogSnapError();
}
}
else if (snapError & k_desiredError) // k_lerpError is ignored because it works improperly during collisions with living entities
{
predictionOut.predictedPos = m_desired.worldPos;
predictionOut.lerpVel.zero();
predictionOut.shouldSnap = true;
m_lerpedPos = m_desired.worldPos;
m_lerpedError.zero();
if(errorToDesiredPos.GetLengthSquared() > sqr(m_settings->snapDistMarkedMajor))
{
m_snapType = eSnap_Major;
}
else
{
m_snapType = eSnap_Normal;
}
LogSnapError();
}
else
{
// Calculate simple lerp velocity
Vec3 lerpVel = predOffset * (float)__fres(m_settings->lookAhead);
// Clamp it
const float maxPredictionDistance = m_settings->maxInterSpeed * m_settings->lookAhead;
if (predDist > maxPredictionDistance)
lerpVel *= maxPredictionDistance * (float)__fres(predDist);
// Output
predictionOut.predictedPos = predictedPos;
predictionOut.lerpVel = lerpVel;
predictionOut.shouldSnap = false;
m_snapType = eSnap_None;
}
// Keep this in local space
m_lerpedPos += dt * (predictionOut.lerpVel + velGround);
m_lerpedPos += (m_desired.worldPos - m_lerpedPos) * 0.05f; // Keep on top of any drift
}
void CFireModePlugin_AutoAim::AdjustFiringDirection( const Vec3& attackerPos, Vec3& firingDirToAdjust, const bool bCurrentlyZoomed, const EntityId ownerId ) const
{
CPlayer* pAttackingPlayer = static_cast<CPlayer*>(g_pGame->GetIGameFramework()->GetIActorSystem()->GetActor(ownerId));
if (pAttackingPlayer && pAttackingPlayer->IsPlayer())
{
const ConeParams& aimConeSettings = GetAimConeSettings(bCurrentlyZoomed);
// Don't do any projectile adjusting if the player already has a target for themselves, and is on target (e.g. manually scoping to get a headshot)
if( m_targetSelectionParams.m_bDisableAutoAimIfPlayerAlreadyHasTarget && pAttackingPlayer->GetCurrentTargetEntityId() ||
!aimConeSettings.m_enabled)
{
#if ALLOW_PROJECTILEHELPER_DEBUGGING
m_lastShotAutoAimedStatus.append("FALSE - [Reason]: Player already on target");
#endif //#if #endif //#if ALLOW_PROJECTILEHELPER_DEBUGGING
return;
}
float incomingDirLength = firingDirToAdjust.GetLength();
CRY_ASSERT(incomingDirLength>0.f);
Vec3 firingDirToAdjustNorm(firingDirToAdjust*__fres(incomingDirLength));
#if ALLOW_PROJECTILEHELPER_DEBUGGING
// DEBUG RENDER
if (g_pGameCVars->pl_debug_projectileAimHelper)
{
// Draw Target acquisition cone
float length = aimConeSettings.m_maxDistance;
float radius = length * tan(aimConeSettings.m_outerConeRads * 0.5f);
SAuxGeomRenderFlags originalFlags = gEnv->pRenderer->GetIRenderAuxGeom()->GetRenderFlags();
SAuxGeomRenderFlags newFlags = originalFlags;
newFlags.SetCullMode(e_CullModeNone);
newFlags.SetFillMode(e_FillModeWireframe);
newFlags.SetAlphaBlendMode(e_AlphaBlended);
gEnv->pRenderer->GetIRenderAuxGeom()->SetRenderFlags(newFlags);
gEnv->pRenderer->GetIRenderAuxGeom()->DrawCone(attackerPos + (firingDirToAdjustNorm*aimConeSettings.m_maxDistance),-firingDirToAdjustNorm, radius , length , ColorB(132,190,255,120), true );
// Draw projectile adjust cone
radius = length * tan(aimConeSettings.m_innerConeRads * 0.5f);
gEnv->pRenderer->GetIRenderAuxGeom()->DrawCone(attackerPos + (firingDirToAdjustNorm*aimConeSettings.m_maxDistance),-firingDirToAdjustNorm, radius , length ,ColorB(0,0,127,120), true );
// Restore render flags
gEnv->pRenderer->GetIRenderAuxGeom()->SetRenderFlags(originalFlags);
}
#endif //#if ALLOW_PROJECTILEHELPER_DEBUGGING
IEntity* pTargetPlayer = CalculateBestProjectileAutoAimTarget(attackerPos, firingDirToAdjustNorm, bCurrentlyZoomed, ownerId);
if(pTargetPlayer)
{
const SAutoaimTarget* pAutoAimInfo = g_pGame->GetAutoAimManager().GetTargetInfo(pTargetPlayer->GetId());
if(pAutoAimInfo)
{
Vec3 desiredFiringDir = ( pAutoAimInfo->primaryAimPosition - attackerPos ).GetNormalized();
// Make sure final firing dir still constrained to valid cone
float vecDot = firingDirToAdjustNorm.Dot(desiredFiringDir);
float maxConeAngle = cos(0.5f * aimConeSettings.m_innerConeRads);
if(vecDot >= maxConeAngle)
{
// within cone
firingDirToAdjustNorm = desiredFiringDir;
#if ALLOW_PROJECTILEHELPER_DEBUGGING
m_lastShotAutoAimedStatus.append("TRUE + desired dir fully WITHIN allowed adjust cone");
#endif //#if ALLOW_PROJECTILEHELPER_DEBUGGING
}
else
{
// constrain (generally working with small angles, nLerp should be fine + cheap)
const float invConeDot = 1.0f - maxConeAngle;
const float invVecDot = 1.0f - vecDot;
float zeroToOne = invConeDot / invVecDot;
Vec3 finalVec = (zeroToOne * desiredFiringDir) + ((1.0f - zeroToOne) * firingDirToAdjustNorm);
finalVec.Normalize();
firingDirToAdjustNorm = finalVec;
#if ALLOW_PROJECTILEHELPER_DEBUGGING
m_lastShotAutoAimedStatus.Format("TRUE + desired dir CONSTRAINED to allowed cone [desired]: %.3f deg [constrained To]: %.3f deg", RAD2DEG(acos(vecDot)), 0.5f * RAD2DEG(aimConeSettings.m_innerConeRads));
#endif //#if ALLOW_PROJECTILEHELPER_DEBUGGING
}
}
}
#if ALLOW_PROJECTILEHELPER_DEBUGGING
else
{
m_lastShotAutoAimedStatus.Format("FALSE - CalculateBestProjectileAutoAimTarget NULL [Last reason]: %s", m_lastTargetRejectionReason.c_str());
}
// Draw adjusted vec
if (g_pGameCVars->pl_debug_projectileAimHelper)
{
float length = aimConeSettings.m_maxDistance;
gEnv->pRenderer->GetIRenderAuxGeom()->DrawLine(attackerPos,ColorB(255,0,255,0),attackerPos + firingDirToAdjustNorm * length,ColorB(255,0,255,0));
}
#endif //#if ALLOW_PROJECTILEHELPER_DEBUGGING
firingDirToAdjust = firingDirToAdjustNorm*incomingDirLength;
}
}
int CFlowConvoyNode::OnPhysicsPostStep(const EventPhys * pEvent)
{
FUNCTION_PROFILER(GetISystem(), PROFILE_GAME);
if(m_bFirstUpdate)
return 0; //after QuickLoad OnPhysicsPostStep called before ProcessEvent
const EventPhysPostStep *pPhysPostStepEvent = (const EventPhysPostStep *)pEvent;
IPhysicalEntity *pEventPhysEnt = pPhysPostStepEvent->pEntity;
Vec3 posBack, posFront, posCenter;
for (size_t i = 0; i < m_coaches.size(); ++i)
{
IPhysicalEntity *pPhysEnt = m_coaches[i].m_pEntity->GetPhysics();
if (pEventPhysEnt == pPhysEnt)
{
if (m_ShiftTime > 0.0f)
{
m_speed = m_speed * (1.0f - breakValue * pPhysPostStepEvent->dt / m_MaxShiftTime);
m_ShiftTime -= pPhysPostStepEvent->dt;
}
else
{
m_speed = m_speed + min(1.0f, (pPhysPostStepEvent->dt / 5.0f)) * (m_desiredSpeed - m_speed);
}
float speed = (m_splitCoachIndex > 0 && (int)i >= m_splitCoachIndex) ? m_splitSpeed : m_speed;
float distance = (m_coaches[i].m_distanceOnPath += pPhysPostStepEvent->dt * speed);
if(m_splitCoachIndex>0)
{//train splitted
if(i==m_splitCoachIndex-1) // update m_distanceOnPath for serialization
m_distanceOnPath=distance-m_coaches[i].m_coachOffset;
else if(i==m_coaches.size()-1) // update m_splitDistanceOnPath for serialization
m_splitDistanceOnPath=distance-m_coaches[i].m_coachOffset;
}
else
{//train in one piece
if(i==m_coaches.size()-1)// update m_distanceOnPath for serialization
m_distanceOnPath=distance-m_coaches[i].m_coachOffset;
}
posBack = m_path.GetPointAlongPath(distance - m_coaches[i].m_wheelDistance, m_coaches[i].m_backWheelIterator[0]);
posFront = m_path.GetPointAlongPath(distance + m_coaches[i].m_wheelDistance, m_coaches[i].m_frontWheelIterator[0]);
posCenter = (posBack+posFront)*0.5f;
Vec3 posDiff = posFront - posBack;
float magnitude = posDiff.GetLength();
if (magnitude > FLT_EPSILON)
{
posDiff *= 1.0f / magnitude;
pe_params_pos ppos;
ppos.pos = posCenter;
ppos.q = Quat::CreateRotationVDir(posDiff);
if (m_bXAxisFwd)
ppos.q *= Quat::CreateRotationZ(gf_PI*-0.5f);
pPhysEnt->SetParams(&ppos, 0 /* bThreadSafe=0 */); // as we are calling from the physics thread
Vec3 futurePositionBack, futurePositionFront;
futurePositionBack = m_path.GetPointAlongPath(distance + PATH_DERIVATION_TIME * speed - m_coaches[i].m_wheelDistance, m_coaches[i].m_backWheelIterator[1]);
futurePositionFront = m_path.GetPointAlongPath(distance + PATH_DERIVATION_TIME * speed + m_coaches[i].m_wheelDistance, m_coaches[i].m_frontWheelIterator[1]);
Vec3 futurePosDiff = futurePositionFront - futurePositionBack;
magnitude = futurePosDiff.GetLength();
if (magnitude > FLT_EPSILON)
{
futurePosDiff *= 1.0f / magnitude;
pe_action_set_velocity setVel;
setVel.v = ((futurePositionBack+ futurePositionFront)*0.5f - posCenter) * (1.0f/PATH_DERIVATION_TIME);
//Vec3 dir=(posFront-posBack).GetNormalized();
//Vec3 future_dir=(futurePositionFront-futurePositionBack).GetNormalized();
Vec3 w=posDiff.Cross(futurePosDiff);
float angle=cry_asinf(w.GetLength());
setVel.w=(angle/PATH_DERIVATION_TIME)*w.GetNormalized();
pPhysEnt->Action(&setVel, 0 /* bThreadSafe=0 */); // as we are calling from the physics thread
break;
}
}
}
}
// Done processing once we reach end of path
if (m_atEndOfPath)
m_processNode = false;
return 0;
}
void CPlayerRotation::TargetAimAssistance(CWeapon* pWeapon, float& followH, float& followV, float& scale, float& _fZoomAmount, const Vec3 playerView[4])
{
FUNCTION_PROFILER(GetISystem(), PROFILE_GAME);
CRY_ASSERT(m_player.IsClient());
followH = 0.0f;
followV = 0.0f;
scale = 1.0f;
float bestScale = 1.0f;
const Vec3 playerFwd = playerView[1];
const Vec3 playerRgt = playerView[0];
const Vec3 playerUp = playerView[2];
const Vec3 playerPos = playerView[3];
Vec3 follow_target_pos(ZERO);
float follow_vote_leader = 0.0f;
float snap_vote_leader = 0.0f;
Vec3 follow_target_dir(ZERO);
Vec3 snap_target_dir(ZERO);
EntityId follow_target_id = 0;
EntityId snap_target_id = 0;
CGameRules * pGameRules = g_pGame->GetGameRules();
float distance_follow_threshold_near = max(0.0f, g_pGameCVars->aim_assistMinDistance);
float distance_follow_threshold_far = max(20.0f, g_pGameCVars->aim_assistMaxDistance);
int playerTeam = pGameRules->GetTeam(m_player.GetEntity()->GetId());
float cloakedPlayerMultiplier = g_pGameCVars->pl_aim_cloaked_multiplier;
const bool multipleTeams = pGameRules->GetTeamCount() > 0;
const float fFollowFalloffDist = g_pGameCVars->aim_assistFalloffDistance + FLT_EPSILON*g_pGameCVars->aim_assistFalloffDistance;
const bool playerIsScoped = m_player.GetActorStats()->isScoped;
float minTurnScale, fAimAssistStrength, fMaxDistMult;
if(pWeapon)
{
const float fZoomAmount = pWeapon->GetZoomTransition();
_fZoomAmount = fZoomAmount;
const float fStrength = g_pGameCVars->aim_assistStrength;
const float fStrengthIronSight = playerIsScoped ? g_pGameCVars->aim_assistStrength_SniperScope : g_pGameCVars->aim_assistStrength_IronSight;
const float fDiff = fStrengthIronSight - fStrength;
fAimAssistStrength = fStrength + (fZoomAmount * fDiff);
const float fMinTurn = g_pGameCVars->aim_assistMinTurnScale;
const float fMinTurnIronSight = playerIsScoped ? g_pGameCVars->aim_assistMinTurnScale_SniperScope : g_pGameCVars->aim_assistMinTurnScale_IronSight;
const float fMinTurnDiff = fMinTurnIronSight - fMinTurn;
minTurnScale = fMinTurn + (fZoomAmount * fMinTurnDiff);
const float fMaxAssistDist = g_pGameCVars->aim_assistMaxDistance;
const float fMaxAssistDist_Iron = playerIsScoped ? g_pGameCVars->aim_assistMaxDistance_SniperScope : g_pGameCVars->aim_assistMaxDistance_IronSight;
const float fMaxAssistDistDiff = (fMaxAssistDist_Iron - fMaxAssistDist) * fZoomAmount;
fMaxDistMult = (fMaxAssistDist + fMaxAssistDistDiff) * __fres(fMaxAssistDist);
}
else
{
_fZoomAmount = 0.0f;
fMaxDistMult = 1.0f;
fAimAssistStrength = g_pGameCVars->aim_assistStrength;
minTurnScale = g_pGameCVars->aim_assistMinTurnScale;
}
const float falloffStartDistance = g_pGameCVars->aim_assistSlowFalloffStartDistance;
const float falloffPerMeter = 1.0f / (g_pGameCVars->aim_assistSlowDisableDistance - falloffStartDistance);
const TAutoaimTargets& aaTargets = g_pGame->GetAutoAimManager().GetAutoAimTargets();
const int targetCount = aaTargets.size();
float fBestTargetDistance = FLT_MAX;
#if DBG_AUTO_AIM
SAuxGeomRenderFlags oldFlags = gEnv->pRenderer->GetIRenderAuxGeom()->GetRenderFlags();
SAuxGeomRenderFlags newFlags = e_Def3DPublicRenderflags;
newFlags.SetAlphaBlendMode(e_AlphaBlended);
newFlags.SetDepthTestFlag(e_DepthTestOff);
newFlags.SetCullMode(e_CullModeNone);
gEnv->pRenderer->GetIRenderAuxGeom()->SetRenderFlags(newFlags);
#endif
for (int i = 0; i < targetCount; ++i)
{
const SAutoaimTarget& target = aaTargets[i];
CRY_ASSERT(target.entityId != m_player.GetEntityId());
//Skip friendly ai
if(gEnv->bMultiplayer)
{
if(multipleTeams && (pGameRules->GetTeam(target.entityId) == playerTeam))
{
continue;
}
}
else
{
if (target.HasFlagSet(eAATF_AIHostile) == false)
continue;
distance_follow_threshold_far = fMaxDistMult * (target.HasFlagSet(eAATF_AIRadarTagged) ? g_pGameCVars->aim_assistMaxDistanceTagged : g_pGameCVars->aim_assistMaxDistance);
}
Vec3 targetPos = target.primaryAimPosition;
Vec3 targetDistVec = (targetPos - playerPos);
float distance = targetDistVec.GetLength();
if (distance <= 0.1f)
continue;
Vec3 dirToTarget = targetDistVec / distance;
// fast reject everything behind player, too far away or too near from line of view
// sort rest by angle to crosshair and distance from player
float alignment = playerFwd * dirToTarget;
if (alignment <= 0.0f)
continue;
if ((distance < distance_follow_threshold_near) || (distance > distance_follow_threshold_far))
continue;
const int kAutoaimVisibilityLatency = 2;
CPlayerVisTable::SVisibilityParams visParams(target.entityId);
visParams.queryParams = eVQP_IgnoreGlass;
if (!g_pGame->GetPlayerVisTable()->CanLocalPlayerSee(visParams, kAutoaimVisibilityLatency))
{
// Since both player and target entities are ignored, and the ray still intersected something, there's something in the way.
// Need to profile this and see if it's faster to do the below checks before doing the linetest. It's fairly expensive but
// linetests generally are as well... - Richard
continue;
}
#if DBG_AUTO_AIM
const ColorB green(0,255,0,255);
const ColorB darkgreen(0,155,0,225);
gEnv->pRenderer->GetIRenderAuxGeom()->DrawLine( playerPos, darkgreen, targetPos, green);
#endif
const float angleDot = dirToTarget.dot(-playerRgt);
const float angle = (RAD2DEG(acos_tpl(angleDot)) - 90.f);
const float absAngle = fabsf(angle);
const float angleDotV = playerUp.dot(dirToTarget);
const float angleToTargetV = (RAD2DEG(acos_tpl(angleDotV)) - 90.f);
const float absAngleV = fabsf(angleToTargetV);
const float slowModifiedDistance = distance * g_pGameCVars->aim_assistSlowDistanceModifier;
const float radius_slow_threshold_inner = 0.5f;
const float radius_slow_threshold_outer = g_pGameCVars->aim_assistSlowThresholdOuter;
const float angle_slow_threshold_inner = RAD2DEG(atan_tpl(radius_slow_threshold_inner / slowModifiedDistance));
const float angle_slow_threshold_outer = RAD2DEG(atan_tpl(radius_slow_threshold_outer / slowModifiedDistance));
float angle_slow_fractionH = clamp_tpl((absAngle - angle_slow_threshold_inner) / (angle_slow_threshold_outer - angle_slow_threshold_inner), 0.0f, 1.0f);
float angle_slow_fractionV = clamp_tpl((absAngleV - angle_slow_threshold_inner) / (angle_slow_threshold_outer - angle_slow_threshold_inner), 0.0f, 1.0f);
float angle_slow_fraction = max(angle_slow_fractionH, angle_slow_fractionV);
const float distance_follow_fraction = clamp_tpl((distance - fFollowFalloffDist) / (distance_follow_threshold_far - fFollowFalloffDist), 0.0f, 1.0f);
const float radius_follow_threshold_inner = target.innerRadius;
const float radius_follow_threshold_outer = target.outerRadius;
const float radius_snap = target.HasFlagSet(eAATF_AIRadarTagged) ? target.snapRadiusTagged * g_pGameCVars->aim_assistSnapRadiusTaggedScale :
target.snapRadius * g_pGameCVars->aim_assistSnapRadiusScale;
const float angle_follow_threshold_inner = RAD2DEG(atan_tpl(radius_follow_threshold_inner / distance));
const float angle_follow_threshold_outer = RAD2DEG(atan_tpl(radius_follow_threshold_outer / distance));
const float angle_follow_fraction = clamp_tpl((absAngle - angle_follow_threshold_inner) / (angle_follow_threshold_outer - angle_follow_threshold_inner), 0.0f, 1.0f);
const float angle_follow_fractionV = clamp_tpl((absAngleV - angle_follow_threshold_inner) / (angle_follow_threshold_outer - angle_follow_threshold_inner), 0.0f, 1.0f);
const float worst_follow_fraction = (float)__fsel(angle_follow_fraction - angle_follow_fractionV, angle_follow_fraction, angle_follow_fractionV);
float follow_fraction = ((1.0f - worst_follow_fraction) * (1.0f - distance_follow_fraction));
float follow_vote = follow_fraction;
//clamp the lower bound of the distance_slow_modifier so it can't be lower than the angle slow fraction
// which prevents close but off-centre targets slowing us too much
const float distance_slow_modifier = clamp_tpl( 1.0f - ((distance - falloffStartDistance) * falloffPerMeter), angle_slow_fraction, 1.0f);
const float fCombinedModifier = angle_slow_fraction * distance_slow_modifier;
fBestTargetDistance = (float)__fsel(fCombinedModifier - bestScale, fBestTargetDistance, distance);
bestScale = min(fCombinedModifier, bestScale);
if (follow_vote > follow_vote_leader)
{
follow_vote_leader = follow_vote;
//m_follow_target_id only gets set after the loop -> this won't get hit when a target is selected
// as a follow target for the first time. This doesn't need to be in the loop.
if ( m_follow_target_id == target.entityId)
{
const Vec3 follow_target_dir_local = m_follow_target_dir;
Vec3 target_rgt = playerRgt;
Vec3 target_up = target_rgt.cross(follow_target_dir_local);
target_rgt = follow_target_dir_local.cross(target_up);
target_rgt.Normalize();
target_up.Normalize();
float alignH = dirToTarget * -target_rgt;
float alignV = dirToTarget.z - follow_target_dir_local.z;
float angleH = min(fabsf(alignH * fAimAssistStrength), fabsf(angleDot));
float angleV = min(fabsf(alignV * fAimAssistStrength), fabsf(angleDotV));
followH = follow_fraction * (float)__fsel(angleDot, angleH, -angleH);
followV = follow_fraction * (float)__fsel(angleDotV, angleV, -angleV);
follow_vote_leader += 0.05f; // anti oscillation between different targets
follow_target_pos = targetPos;
}
follow_target_id = target.entityId;
snap_target_id = target.entityId;
follow_target_dir = dirToTarget;
snap_target_dir = PickBestSnapDirection(playerPos, playerFwd, target);
}
else if (!follow_target_id && (radius_snap > 0.0f))
{
Lineseg lineSegment;
lineSegment.start = playerPos;
lineSegment.end = playerPos + (playerFwd * (distance + radius_snap));
Sphere sphere;
sphere.center = targetPos;
sphere.radius = radius_snap;
Vec3 intersectionPoint;
if (Intersect::Lineseg_SphereFirst(lineSegment, sphere, intersectionPoint))
{
float t = 0.0f;
const float snap_fraction = 1.0f - (Distance::Point_Lineseg(targetPos, lineSegment, t) * (float)__fres(radius_snap));
if (snap_fraction > snap_vote_leader)
{
snap_vote_leader = snap_fraction;
snap_target_id = target.entityId;
snap_target_dir = PickBestSnapDirection(playerPos, playerFwd, target);
}
}
}
}
#if DBG_AUTO_AIM
if ((!follow_target_pos.IsZeroFast()) && (g_pGameCVars->pl_targeting_debug != 0))
{
float radius_inner = 0.30f;
float radius_outer = 0.33f;
ColorB colorInner(255,255,0,0x40);
ColorB colorOuter(255,255,0,0x40);
DrawDisc(follow_target_pos, follow_target_dir, radius_inner, radius_outer, colorInner, colorOuter);
}
gEnv->pRenderer->GetIRenderAuxGeom()->SetRenderFlags(oldFlags);
#endif
m_follow_target_id = follow_target_id;
m_follow_target_dir = follow_target_dir;
//IMPORTANT: Apply the minimum-distance scaling of the slowdown _after_ calculating the slowdown for the best target
// as we want to help the player aim at the nearest target, and modifying the slowdown multiplier prior to this
// could result in a different target being selected
const float fSlowDownProximityFadeInBand = (g_pGameCVars->aim_assistSlowStopFadeinDistance - g_pGameCVars->aim_assistSlowStartFadeinDistance) + FLT_EPSILON;
float fSlowDownProximityScale = (fBestTargetDistance - g_pGameCVars->aim_assistSlowStartFadeinDistance) / fSlowDownProximityFadeInBand;
Limit(fSlowDownProximityScale, 0.0f, 1.0f);
float fInvBestScale = (1.0f - bestScale) * fSlowDownProximityScale;
bestScale = 1.0f - fInvBestScale;
scale = minTurnScale + ((1.0f - minTurnScale) * bestScale);
UpdateCurrentSnapTarget(snap_target_id, snap_target_dir);
}
static void GetTalosInput(CPlayerRotation * pPlayerRotation, const CPlayer& rPlayer, float& x, float& z, const Vec3 playerView[4], float fFrameTime)
{
//Do I need to reproject the view to actually get the positioning correct? Shouldn't be.
const Vec3 playerFwd = playerView[1];
const Vec3 playerRgt = playerView[0];
const Vec3 playerUp = playerView[2];
const Vec3 playerViewPos = playerView[3];
Vec3 playerPos = playerViewPos;
IPhysicalEntity * pPhysicalEntity = rPlayer.GetEntity()->GetPhysics();
if(pPhysicalEntity)
{
pe_status_dynamics dyn_status;
pPhysicalEntity->GetStatus(&dyn_status);
playerPos = playerViewPos + (dyn_status.v * fFrameTime * 2.0f);
}
Vec3 follow_target_dir(ZERO);
EntityId follow_target_id = 0;
static EntityId s_follow_target_id = 0;
CGameRules * pGameRules = g_pGame->GetGameRules();
int playerTeam = pGameRules->GetTeam(rPlayer.GetEntity()->GetId());
float cloakedPlayerMultiplier = g_pGameCVars->pl_aim_cloaked_multiplier;
const bool multipleTeams = pGameRules->GetTeamCount() > 0;
const TAutoaimTargets& aaTargets = g_pGame->GetAutoAimManager().GetAutoAimTargets();
const int targetCount = aaTargets.size();
float fBestTargetDistance = FLT_MAX;
for (int i = 0; i < targetCount; ++i)
{
const SAutoaimTarget& target = aaTargets[i];
if(multipleTeams && (pGameRules->GetTeam(target.entityId) == playerTeam))
{
continue;
}
Vec3 targetPos = target.secondaryAimPosition;
IEntity * pEntity = gEnv->pEntitySystem->GetEntity(target.entityId);
if(pEntity)
{
IPhysicalEntity * pPhysicalEntity2 = pEntity->GetPhysics();
if(pPhysicalEntity2)
{
pe_status_dynamics dyn_status;
pPhysicalEntity2->GetStatus(&dyn_status);
targetPos = targetPos + (dyn_status.v * fFrameTime);
}
}
Vec3 targetDistVec = (targetPos - playerPos);
float distance = targetDistVec.GetLength();
if (distance <= 0.01f)
continue;
Vec3 dirToTarget = targetDistVec / distance;
// fast reject everything behind player, too far away or too near from line of view
// sort rest by angle to crosshair and distance from player
const int kAutoaimVisibilityLatency = 1;
if (!g_pGame->GetPlayerVisTable()->CanLocalPlayerSee(target.entityId, kAutoaimVisibilityLatency))
{
// Since both player and target entities are ignored, and the ray still intersected something, there's something in the way.
// Need to profile this and see if it's faster to do the below checks before doing the linetest. It's fairly expensive but
// linetests generally are as well... - Richard
continue;
}
const float angleDot = dirToTarget.dot(-playerRgt);
const float angle = (RAD2DEG(acos_tpl(angleDot)) - 90.f);
const float absAngle = fabsf(angle);
const float angleDotV = playerUp.dot(dirToTarget);
const float angleToTargetV = (RAD2DEG(acos_tpl(angleDotV)) - 90.f);
const float absAngleV = fabsf(angleToTargetV);
if ( s_follow_target_id == target.entityId )
{
follow_target_id = target.entityId;
follow_target_dir = dirToTarget;
break;
}
else if(distance < fBestTargetDistance)
{
fBestTargetDistance = distance;
follow_target_id = target.entityId;
follow_target_dir = dirToTarget;
}
}
if(follow_target_id != 0)
{
//Player up is the normal of the plane that we are rotating around - (Correct? Or do we want to project both the player direction and the target direction onto the X/Y plane?)
Vec3 vProjectedTargetHorz = playerUp.cross(follow_target_dir.cross(playerUp));
Vec3 vProjectedTargetVert = playerRgt.cross(follow_target_dir.cross(playerRgt));
float horzDot = vProjectedTargetHorz.GetNormalized().dot(playerFwd);
float vertDot = vProjectedTargetVert.GetNormalized().dot(playerFwd);
const float directionDotHorz = follow_target_dir.dot(playerRgt);
const float directionDotVert = follow_target_dir.dot(playerUp);
const float angle = acos_tpl(horzDot);
const float angleToTargetV = acos_tpl(vertDot);
const float fHorzFinalAngle = (float)__fsel(directionDotHorz, -angle, angle);
const float fVertFinalAngle = (float)__fsel(directionDotVert, angleToTargetV, -angleToTargetV);
//CryWatch("Angle to target: %.6f", RAD2DEG(angle));
//CryWatch("Final Angle to target: %.6f", RAD2DEG(fHorzFinalAngle));
x = x + fVertFinalAngle;
z = z + fHorzFinalAngle;
}
s_follow_target_id = follow_target_id;
return;
}
//------------------------------------------------------------------------
void CTornado::Update(SEntityUpdateContext &ctx, int updateSlot)
{
if (g_pGame->GetIGameFramework()->IsEditing())
return;
// wandering
Matrix34 m = GetEntity()->GetWorldTM();
Vec3 dir(m.GetColumn(1));
Vec3 pos(GetEntity()->GetWorldPos());
if(!gEnv->bServer)
pos = m_currentPos;
Vec3 wanderPos(dir * 1.414214f);
float wanderStrength(1.0f);
float wanderRate(0.6f);
Vec3 wanderOffset;
wanderOffset.SetRandomDirection();
wanderOffset.z = 0.0f;
wanderOffset.NormalizeSafe(Vec3(1,0,0));
m_wanderDir += wanderOffset * wanderRate + (m_wanderDir - wanderPos) * wanderStrength;
m_wanderDir = (m_wanderDir - wanderPos).GetNormalized() + wanderPos;
Vec3 wanderSteer = (dir + m_wanderDir * gEnv->pTimer->GetFrameTime());
wanderSteer.z = 0;
wanderSteer.NormalizeSafe(Vec3(1,0,0));
Vec3 targetSteer(0,0,0);
// go to target
if (m_pTargetEntity)
{
Vec3 target = m_pTargetEntity->GetWorldPos() - pos;
if (target.GetLength() < 10.0f)
{
// emit target reached event
SEntityEvent event( ENTITY_EVENT_SCRIPT_EVENT );
event.nParam[0] = (INT_PTR)"TargetReached";
event.nParam[1] = IEntityClass::EVT_BOOL;
bool bValue = true;
event.nParam[2] = (INT_PTR)&bValue;
GetEntity()->SendEvent( event );
if (m_pTargetCallback)
m_pTargetCallback->Done();
m_pTargetEntity = 0;
m_pTargetCallback = 0;
}
targetSteer = (target - dir);
targetSteer.z = 0;
targetSteer.NormalizeSafe(Vec3(1,0,0));
}
Vec3 steerDir = (0.4f * wanderSteer + 0.6f * targetSteer).GetNormalized();
Matrix34 tm = Matrix34(Matrix33::CreateRotationVDir(steerDir));
pos = pos + steerDir * gEnv->pTimer->GetFrameTime() * m_wanderSpeed;
pos.z = gEnv->p3DEngine->GetTerrainElevation(pos.x, pos.y);
float waterLevel = gEnv->p3DEngine->GetWaterLevel(&pos);
bool prevIsOnWater = m_isOnWater;
m_isOnWater = (pos.z < waterLevel);
if (m_isOnWater)
{
pos.z = waterLevel;
}
// raycast does not work for oceans
if (prevIsOnWater != m_isOnWater && m_isOnWater)
{
m_pGroundEffect->SetParticleEffect("weather.tornado.water");
}
else if (!m_isOnWater)
{
IMaterialEffects *mfx = gEnv->pGame->GetIGameFramework()->GetIMaterialEffects();
Vec3 down = Vec3(0,0,-1.0f);
int matID = mfx->GetDefaultSurfaceIndex();
static const int objTypes = ent_all;
static const unsigned int flags = rwi_stop_at_pierceable|rwi_colltype_any;
ray_hit hit;
int col = gEnv->pPhysicalWorld->RayWorldIntersection(pos, (down * 5.0f), objTypes, flags, &hit, 1, GetEntity()->GetPhysics());
if (col)
{
matID = hit.surface_idx;
}
if (m_curMatID != matID)
{
TMFXEffectId effectId = mfx->GetEffectId("tornado", matID);
SMFXResourceListPtr pList = mfx->GetResources(effectId);
if (pList && pList->m_particleList)
{
m_pGroundEffect->SetParticleEffect(pList->m_particleList->m_particleParams.name);
}
m_curMatID = matID;
}
}
if(gEnv->bServer)
{
tm.SetTranslation(pos);
m_currentPos = pos;
CHANGED_NETWORK_STATE(this, POSITION_ASPECT);
GetEntity()->SetWorldTM(tm);
}
else
{
tm.SetTranslation(m_currentPos);
GetEntity()->SetWorldTM(tm);
}
UpdateParticleEmitters();
UpdateTornadoSpline();
UpdateFlow();
}
void CNetLerper::DebugDraw(const SPrediction& prediction, const Vec3& entityPos, bool hadNewData)
{
#if !defined(_RELEASE)
if (m_debug == NULL)
m_debug = new Debug;
Vec3 desiredVelocity = m_desired.vel;
Vec3 lerpVel = prediction.lerpVel;
Vec3 desiredPosition = m_desired.worldPos;
Vec3 predictedPosition = prediction.predictedPos;
if(g_pGameCVars->pl_debugInterpolation > 1)
{
CryWatch("Cur: (%.2f, %.2f, %.2f) Des: (%.2f, %.2f, %.2f) Pred: (%.2f, %.2f, %.2f) ", entityPos.x, entityPos.y, entityPos.z, desiredPosition.x, desiredPosition.y, desiredPosition.z, predictedPosition.x, predictedPosition.y, predictedPosition.z);
CryWatch("LerpErrorXY: (%.2f)", m_lerpedError.GetLength2D());
CryWatch("InputSpeed: (%.2f, %.2f, %.2f) lerpVel: (%.2f, %.2f, %.2f) lerpSpeed: %.2f", desiredVelocity.x, desiredVelocity.y, desiredVelocity.z, lerpVel.x, lerpVel.y, lerpVel.z, lerpVel.GetLength());
}
if (hadNewData)
{
m_debug->AddDesired(m_desired.worldPos, m_desired.vel);
}
m_debug->AddCurrent(prediction.shouldSnap ? prediction.predictedPos : entityPos, prediction.lerpVel, m_lerpedError, prediction.shouldSnap);
m_debug->Draw();
#endif
}
void CChickenBoid::Think( float dt,SBoidContext &bc )
{
Vec3 flockHeading(0,0,0);
m_accel(0,0,0);
// float height = m_pos.z - bc.terrainZ;
if (m_bThrown)
{
m_accel.Set(0,0,-10.0f);
//float z = bc.engine->GetTerrainElevation(m_pos.x,m_pos.y) + bc.fBoidRadius*0.5f;
m_pos.z = bc.engine->GetTerrainElevation(m_pos.x,m_pos.y) + bc.fBoidRadius*0.5f;
//pe_status_pos ppos;
//m_pPhysics->GetStatus(&ppos);
//if (m_pos.z < z)
{
m_physicsControlled = false;
m_bThrown = false;
m_heading.z = 0;
if (m_heading.IsZero())
m_heading = Vec3(1,0,0);
m_heading.Normalize();
m_accel.Set(0,0,0);
m_speed = bc.MinSpeed;
m_heading.z = 0;
}
return;
}
// Free will.
// Continue accelerating in same dir untill target speed reached.
// Try to maintain average speed of (maxspeed+minspeed)/2
float targetSpeed = bc.MinSpeed;
m_accel -= m_heading*(m_speed-targetSpeed)*0.4f;
// Gaussian weight.
m_accel.z = 0;
m_bScared = false;
if (bc.factorAlignment != 0)
{
//CalcCohesion();
Vec3 alignmentAccel;
Vec3 cohesionAccel;
Vec3 separationAccel;
CalcFlockBehavior(bc,alignmentAccel,cohesionAccel,separationAccel);
//! Adjust for allignment,
//m_accel += alignmentAccel.Normalized()*ALIGNMENT_FACTOR;
m_accel += alignmentAccel*bc.factorAlignment;
m_accel += cohesionAccel*bc.factorCohesion;
m_accel += separationAccel;
}
/*
// Avoid land.
if (height < bc.MinHeight && !m_landing)
{
float v = (1.0f - height/bc.MinHeight);
m_accel += Vec3(0,0,v*v)*bc.factorAvoidLand;
}
else if (height > bc.MaxHeight) // Avoid max height.
{
float v = (height - bc.MaxHeight)*0.1f;
m_accel += Vec3(0,0,-v);
}
else
{
// Always try to accelerate in direction oposite to current in Z axis.
m_accel.z = -(m_heading.z*m_heading.z*m_heading.z * 100.0f);
}
*/
// Attract to origin point.
if (bc.followPlayer)
{
m_accel += (bc.playerPos - m_pos) * bc.factorAttractToOrigin;
}
else
{
//m_accel += (m_birdOriginPos - m_pos) * bc.factorAttractToOrigin;
if ((cry_rand()&31) == 1)
{
m_birdOriginPos = Vec3( bc.flockPos.x+frand()*bc.fSpawnRadius,bc.flockPos.y+frand()*bc.fSpawnRadius,bc.flockPos.z+frand()*bc.fSpawnRadius );
if (m_birdOriginPos.z - bc.terrainZ < bc.MinHeight)
{
m_birdOriginPos.z = bc.terrainZ + bc.MinHeight;
}
}
/*
if (m_pos.x < bc.flockPos.x-bc.fSpawnRadius || m_pos.x > bc.flockPos.x+bc.fSpawnRadius ||
m_pos.y < bc.flockPos.y-bc.fSpawnRadius || m_pos.y > bc.flockPos.y+bc.fSpawnRadius ||
m_pos.z < bc.flockPos.z-bc.fSpawnRadius || m_pos.z > bc.flockPos.z+bc.fSpawnRadius)
*/
{
m_accel += (m_birdOriginPos - m_pos) * bc.factorAttractToOrigin;
}
}
// Avoid collision with Terrain and Static objects.
float fCollisionAvoidanceWeight = 10.0f;
// Do walk sounds.
if ((cry_rand()&0xFF) == 0)
PlaySound(CHICKEN_SOUND_CLUCK);
//////////////////////////////////////////////////////////////////////////
// Player must scare chickens off.
//////////////////////////////////////////////////////////////////////////
float fScareDist = 5.0f;
float sqrPlayerDist = m_pos.GetSquaredDistance(bc.playerPos);
if (sqrPlayerDist < fScareDist*fScareDist)
{
Vec3 retreatDir = (m_pos - bc.playerPos) + Vec3(frand()*2.0f,frand()*2.0f,0);
retreatDir.NormalizeFast();
float scareFactor = (1.0f - sqrPlayerDist/(fScareDist*fScareDist));
m_accel.x += retreatDir.x*scareFactor*bc.factorAvoidLand;
m_accel.y += retreatDir.y*scareFactor*bc.factorAvoidLand;
m_bScared = true;
if (m_landing) m_flightTime = m_maxIdleTime+1.0f; // Stop idle.
// Do walk sounds.
if ((cry_rand()&0xFF) == 0)
PlaySound(CHICKEN_SOUND_SCARED);
}
//////////////////////////////////////////////////////////////////////////
// Scare points also scare chicken off.
//////////////////////////////////////////////////////////////////////////
if (bc.scareRatio > 0)
{
float sqrScareDist = m_pos.GetSquaredDistance(bc.scarePoint);
if (sqrScareDist < bc.scareRadius*bc.scareRadius)
{
float fScareMultiplier = 10.0f;
Vec3 retreatDir = m_pos - bc.scarePoint;
retreatDir.NormalizeFast();
float scareFactor = (1.0f - sqrScareDist/(bc.scareRadius*bc.scareRadius));
m_accel.x += retreatDir.x*scareFactor*fScareMultiplier;
m_accel.y += retreatDir.y*scareFactor*fScareMultiplier;
if (m_landing) m_flightTime = m_maxIdleTime+1.0f; // Stop idle.
m_bScared = true;
// Do walk sounds.
if ((cry_rand()&0xF) == 0)
PlaySound(CHICKEN_SOUND_CLUCK);
}
}
//////////////////////////////////////////////////////////////////////////
if (bc.avoidObstacles)
{
// Avoid obstacles & terrain.
IPhysicalWorld *physWorld = bc.physics;
Vec3 vDir0 = m_heading*bc.fBoidRadius*0.5f;
Vec3 vPos = m_pos + Vec3(0,0,bc.fBoidRadius*0.5f) + vDir0;
Vec3 vDir = m_heading*(bc.fBoidRadius*2) + Vec3(0,0,bc.fBoidRadius*0.5f);
// Add some random variation in probe ray.
vDir.x += frand()*0.5f;
vDir.y += frand()*0.5f;
int objTypes = ent_all|ent_no_ondemand_activation;
int flags = rwi_stop_at_pierceable|rwi_ignore_terrain_holes;
ray_hit hit;
int col = physWorld->RayWorldIntersection( vPos,vDir,objTypes,flags,&hit,1 );
if (col != 0 && hit.dist > 0)
{
// Turn from collided surface.
Vec3 normal = hit.n;
float rayLen = vDir.GetLength();
float w = (1.0f - hit.dist/rayLen);
Vec3 R = m_heading - (2.0f*m_heading.Dot(normal))*normal;
R.NormalizeFast();
R += normal;
//m_accel += R*(w*w)*bc.factorAvoidLand * fCollisionAvoidanceWeight;
Vec3 accel = R*w*bc.factorAvoidLand * fCollisionAvoidanceWeight;
m_avoidanceAccel = m_avoidanceAccel*bc.fSmoothFactor + accel*(1.0f-bc.fSmoothFactor);
}
}
m_accel += m_avoidanceAccel;
m_avoidanceAccel = m_avoidanceAccel*bc.fSmoothFactor;
if (!m_landing)
{
m_flightTime += dt;
if (m_flightTime > m_maxNonIdleTime && (m_pos.z > bc.waterLevel && bc.bAvoidWater))
{
// Play idle.
PlayAnimationId( CHICKEN_IDLE_ANIM + (cry_rand()%CHICKEN_IDLE_ANIM_NUM),true );
m_maxIdleTime = 2.0f + cry_frand()*MAX_REST_TIME;
m_landing = true;
m_flightTime = 0;
m_accel.Set(0,0,0);
m_speed = 0;
}
}
else
{
m_accel = m_heading;
m_speed = 0.1f;
m_flightTime += dt;
if (m_flightTime > m_maxIdleTime)
{
m_maxNonIdleTime = cry_frand()*MAX_WALK_TIME;
PlayAnimationId( CHICKEN_WALK_ANIM,true );
m_landing = false;
m_flightTime = 0;
}
}
// Limits birds to above water and land.
m_pos.z = bc.engine->GetTerrainElevation(m_pos.x,m_pos.y) + bc.fBoidRadius*0.5f;
m_accel.z = 0;
//////////////////////////////////////////////////////////////////////////
// Avoid water ocean..
if (m_pos.z < bc.waterLevel && bc.bAvoidWater)
{
if (m_landing)
m_flightTime = m_maxIdleTime;
Vec3 nextpos = m_pos + m_heading;
float farz = bc.engine->GetTerrainElevation(nextpos.x,nextpos.y) + bc.fBoidRadius*0.5f;
if (farz > m_pos.z)
m_accel += m_heading*bc.factorAvoidLand;
else
m_accel += -m_heading*bc.factorAvoidLand;
m_accel.z = 0;
}
//////////////////////////////////////////////////////////////////////////
}
//------------------------------------------------------------------------
void CFireModePlugin_Reject::OnShoot()
{
const SEffectParams& rejectEffect = m_pParams->rejectEffect;
CWeapon* pWeapon = m_pOwnerFiremode->GetWeapon();
const int slot = pWeapon->GetStats().fp ? 0 : 1;
const bool doRejectEffect = (g_pGameCVars->i_rejecteffects != 0) && (!rejectEffect.effect[slot].empty());
if (doRejectEffect)
{
//First check if we can skip/cull the effect (not for the local player)
if (!pWeapon->IsOwnerClient())
{
const CCamera& camera = gEnv->p3DEngine->GetRenderingCamera();
const Vec3 cameraPos = camera.GetPosition();
const Vec3 effectPosition = pWeapon->GetWorldPos();
const float fDist2 = (cameraPos-effectPosition).len2();
// Too far, skip
if (fDist2 > g_pGameCVars->g_rejectEffectCullDistance)
{
return;
}
// Not in the view ?
if(g_pGameCVars->g_rejectEffectVisibilityCull)
{
Sphere emitterSphere(effectPosition, 2.0f);
if(camera.IsSphereVisible_F(emitterSphere) == false)
{
return;
}
}
}
IParticleEffect* pParticleEffect = gEnv->pParticleManager->FindEffect(rejectEffect.effect[slot].c_str());
if (m_shellFXSpeed == 0.0f)
{
if (pParticleEffect)
{
const ParticleParams& particleParams = pParticleEffect->GetParticleParams();
m_shellFXSpeed = particleParams.fSpeed.GetMaxValue();
}
}
const Vec3 shellDirection = pWeapon->GetSlotHelperRotation(slot, rejectEffect.helper[slot].c_str(), true).GetColumn1();
const Vec3 shellVelocity = m_shellHelperVelocity + (shellDirection * m_shellFXSpeed);
EntityEffects::SEffectSpawnParams spawnParams(ZERO, shellVelocity.GetNormalized(), rejectEffect.scale[slot], shellVelocity.GetLength(), false);
EntityEffects::SpawnParticleWithEntity(pWeapon->GetEntity(), slot, pParticleEffect, rejectEffect.helper[slot].c_str(), spawnParams);
}
}
void CBoidObject::CalcMovement(float dt,SBoidContext &bc,bool banking)
{
// Calc movement with current velocity.
Vec3 prevAccel(0,0,0);
if(banking)
{
if(m_currentAccel.x != 0 && m_currentAccel.y != 0 && m_currentAccel.z != 0)
prevAccel = m_currentAccel.GetNormalized();
else
banking = false;
}
m_currentAccel = m_currentAccel*bc.fSmoothFactor + m_accel*(1.0f - bc.fSmoothFactor);
Vec3 velocity = m_heading*m_speed;
m_pos = m_pos + velocity*dt;
velocity = velocity + m_currentAccel*dt;
m_speed = velocity.GetLength();
// ClampSpeed(bc,dt);
if(fabs(m_speed) > 0.0001f)
{
Vec3 newHeading = velocity;// * (1.0f/m_speed); // Normalized velocity vector is our heading.
newHeading.NormalizeFast();
if(bc.fMaxTurnRatio)
{
float fHeadingSmothFactor = bc.fMaxTurnRatio * bc.fSmoothFactor;
if(fHeadingSmothFactor > 1.0f)
fHeadingSmothFactor = 1.0f;
m_heading = newHeading*fHeadingSmothFactor + m_heading*(1.0f - fHeadingSmothFactor);
}
else
{
m_heading = newHeading;
}
}
/*
if (m_speed > bc.MaxSpeed)
m_speed = bc.MaxSpeed;
if (m_speed < bc.MinSpeed)
m_speed = bc.MinSpeed;
*/
ClampSpeed(bc,dt);
if(banking)
{
Vec3 sideDir = m_heading.Cross(Vec3(0,0,1));
if(sideDir.IsZero())
sideDir = m_heading.Cross(Vec3(0,1,0));
// Vec3 v = m_currentAccel.GetLength();
m_bankingTrg = prevAccel.Dot(sideDir.GetNormalized());
}
else
m_bankingTrg = 0;
// Slowly go into the target banking.
float bd = m_bankingTrg - m_banking;
m_banking = m_banking + bd*dt*10.0f;
/*
if (m_pPhysics)
{
//pe_params_pos ppos;
//ppos.pos = Vec3(m_pos);
//m_pPhysics->SetParams(&ppos);
//pe_action_set_velocity asv;
//asv.v = m_heading*m_speed;
//m_pPhysics->Action(&asv);
}
*/
}
void Update(float elapsed)
{
float maxTime = GetPortFloat(&m_actInfo, EIP_Duration);
float percent = maxTime > FLT_EPSILON ? elapsed / maxTime : 1.0f;
if(percent >= 1.0f)
{
m_actInfo.pGraph->SetRegularlyUpdated(m_actInfo.myID, false);
m_triggered = false;
return;
}
Vec3 N = GetPortVec3(&m_actInfo, EIP_Normal);
float rangeMin = GetPortFloat(&m_actInfo, EIP_RangeMin);
float rangeMax = GetPortFloat(&m_actInfo, EIP_RangeMax);
const float range = rangeMax - rangeMin;
Vec3 boxDim(rangeMax, rangeMax, rangeMax);
Vec3 ptmin = m_effectCenter - boxDim;
Vec3 ptmax = m_effectCenter + boxDim;
float speed = GetPortFloat(&m_actInfo, EIP_Speed);
float waveFront = elapsed * speed;
float decay = GetPortFloat(&m_actInfo, EIP_Decay);
if(decay > FLT_EPSILON) decay = 1.0f / decay;
float force = GetPortFloat(&m_actInfo, EIP_Force);
force = pow_tpl(force * (1-percent), decay);
float amplitude = GetPortFloat(&m_actInfo, EIP_Amplitude);
amplitude = pow_tpl(amplitude * (1-percent), decay);
if (gEnv->bMultiplayer) // Turned off for performance and network issues
{
return;
}
IPhysicalEntity** pEntityList = NULL;
static const int iObjTypes = ent_rigid | ent_sleeping_rigid | ent_living;// | ent_allocate_list;
int numEntities = gEnv->pPhysicalWorld->GetEntitiesInBox(ptmin, ptmax, pEntityList, iObjTypes);
AABB bounds;
for(int i=0; i<numEntities; ++i)
{
IPhysicalEntity* pPhysicalEntity = pEntityList[i];
IEntity* pEntity = static_cast<IEntity*>(pPhysicalEntity->GetForeignData(PHYS_FOREIGN_ID_ENTITY));
// Has the entity already been affected?
if(pEntity)
{
bool affected = stl::find(m_entitiesAffected, pEntity->GetId());
if(!affected)
{
IEntityPhysicalProxy* pPhysicalProxy = static_cast<IEntityPhysicalProxy*>(pEntity->GetProxy(ENTITY_PROXY_PHYSICS));
if(pPhysicalProxy)
{
pPhysicalProxy->GetWorldBounds(bounds);
Vec3 p = bounds.GetCenter();
Vec3 v = p - m_effectCenter;
float distFromCenter = v.GetLength() + FLT_EPSILON;
if(distFromCenter < rangeMax)
{
if(waveFront > distFromCenter) // has the wavefront passed the entity?
{
//pPhysicalEntity->GetStatus(&dyn);
// normalize v, cheaper than another sqrt
v /= distFromCenter;
Vec3 dir = N + v * force;
static bool usePos = false;
float impulse = 1.0f - (max(0.0f, distFromCenter - rangeMin) / range);
impulse = impulse * amplitude;// / dyn.mass;
if(impulse > FLT_EPSILON)
{
pPhysicalProxy->AddImpulse(-1, p, dir * impulse, usePos, 1.0f);
m_entitiesAffected.push_back(pEntity->GetId());
}
}
}
}
}
}
}
}
//------------------------------------------------------------------------
bool CVehicleMovementHelicopter::RequestMovement(CMovementRequest& movementRequest)
{
FUNCTION_PROFILER( gEnv->pSystem, PROFILE_GAME );
m_movementAction.isAI = true;
//StartEngine(0);
if (m_HoverAnim && !(m_HoverAnim->GetAnimTime() < 1.0f - FLT_EPSILON))
{
m_HoverAnim->StartAnimation();
}
CryAutoCriticalSection lk(m_lock);
if (movementRequest.HasLookTarget())
m_aiRequest.SetLookTarget(movementRequest.GetLookTarget());
else
m_aiRequest.ClearLookTarget();
if (movementRequest.HasBodyTarget())
m_aiRequest.SetBodyTarget(movementRequest.GetBodyTarget());
else
m_aiRequest.ClearBodyTarget();
if (movementRequest.HasDesiredBodyDirectionAtTarget())
m_aiRequest.SetDesiredBodyDirectionAtTarget(movementRequest.GetDesiredBodyDirectionAtTarget());
else
m_aiRequest.ClearDesiredBodyDirectionAtTarget();
if (movementRequest.HasMoveTarget())
{
Vec3 end( movementRequest.GetMoveTarget() );
if(m_bExtendMoveTarget)
{
Vec3 entityPos = m_pEntity->GetWorldPos();
Vec3 start(entityPos);
Vec3 pos = ( end - start ) * 100.0f;
pos +=start;
m_aiRequest.SetMoveTarget( pos );
}
else
{
m_aiRequest.SetMoveTarget( end );
}
if (!m_isEnginePowered)
{
StartDriving(0);
}
}
else
m_aiRequest.ClearMoveTarget();
float fDesiredSpeed = 0.0f;
if (movementRequest.HasDesiredSpeed())
fDesiredSpeed = movementRequest.GetDesiredSpeed();
else
m_aiRequest.ClearDesiredSpeed();
if (movementRequest.HasForcedNavigation())
{
const Vec3 forcedNavigation = movementRequest.GetForcedNavigation();
const Vec3 entityPos = m_pEntity->GetWorldPos();
m_aiRequest.SetForcedNavigation(forcedNavigation);
m_aiRequest.SetMoveTarget(entityPos+forcedNavigation.GetNormalizedSafe()*100.0f);
if (fabsf(fDesiredSpeed) <= FLT_EPSILON)
fDesiredSpeed = forcedNavigation.GetLength();
}
else
m_aiRequest.ClearForcedNavigation();
m_aiRequest.SetDesiredSpeed(fDesiredSpeed * m_EnginePerformance);
m_pVehicle->NeedsUpdate(IVehicle::eVUF_AwakePhysics, false);
return true;
}
void CBoidBird::Kill( const Vec3 &hitPoint,const Vec3 &force )
{
if (m_dead)
return;
m_status = Bird::DEAD;
m_flock->m_bAnyKilled = true;
IEntity *pEntity = gEnv->pEntitySystem->GetEntity(m_entity);
if (pEntity)
{
SpawnParams params;
params.eAttachForm = GeomForm_Surface;
params.eAttachType = GeomType_Render;
gEnv->pEntitySystem->GetBreakableManager()->AttachSurfaceEffect( pEntity,0,SURFACE_BREAKAGE_TYPE("destroy"),params,ePEF_Independent );
}
if (CFlock::m_e_flocks_hunt == 0)
{
m_physicsControlled = false;
m_dead = true;
m_nodraw = true;
if (pEntity)
{
pEntity->Hide(true);
}
if (!m_dead && m_pPhysics)
{
if (pEntity)
{
pEntity->UnphysicalizeSlot(0);
}
m_pPhysics = 0;
}
// No physics at all.
return;
}
SBoidContext bc;
m_flock->GetBoidSettings(bc);
Vec3 impulse = force;
if (impulse.GetLength() > 100.0f)
{
impulse.Normalize();
impulse *= 100.0f;
}
//if (!m_physicsControlled)
{
if (!m_object)
return;
AABB aabb = m_object->GetAABB( );
Vec3 size = ((aabb.max - aabb.min)/2.2f)*m_scale;
CreateArticulatedCharacter( bc, size, bc.fBoidMass );
m_physicsControlled = true;
// Small impulse.
// Apply force on this body.
pe_action_impulse theAction;
Vec3 someforce;
someforce = impulse;
//someforce.Normalize();
theAction.impulse = someforce;
theAction.ipart = 0;
theAction.iApplyTime = 0;
if (m_pPhysics)
m_pPhysics->Action(&theAction);
}
if (m_object && !m_dying && !m_dead)
{
m_object->GetISkeletonAnim()->StopAnimationsAllLayers();
}
m_dead = true;
}
void CVehiclePartSuspensionPart::Update(const float frameTime)
{
inherited::Update(frameTime);
const Matrix34& parentTm = m_pParentPart->GetLocalTM(false);
const Matrix34& targetTm = m_targetPart->GetLocalTM(false);
Vec3 pos = parentTm * m_pos0;
Vec3 targetPos = (m_ikFlags&k_flagIgnoreTargetRotation) ? (targetTm.GetColumn3() + m_targetOffset) : (targetTm * m_targetOffset);
Vec3 dir = targetPos - pos;
float length = dir.GetLength();
if (length > 1e-2f)
{
Matrix33 rot = Matrix33::CreateRotationV0V1(m_direction0, dir*(1.f/length));
Matrix33 partRot = rot*Matrix33(m_initialRot);
if (m_mode==k_modeRotate || m_mode==k_modeSnapToEF)
{
if (m_mode==k_modeSnapToEF)
{
pos = targetPos - rot * m_direction0;
}
Matrix34 tm(partRot, pos);
SetLocalTM(tm);
}
else if (m_mode==k_modeStretch)
{
const float scale = length * m_invLength0;
const Vec3 z = m_direction0;
const Vec3 sz = m_direction0*(scale-1.f);
Matrix33 scaleM;
scaleM.m00 = 1.f+sz.x*z.x; scaleM.m01 = sz.y*z.x ; scaleM.m02 = sz.z*z.x;
scaleM.m10 = sz.x*z.y ; scaleM.m11 = 1.f+sz.y*z.y; scaleM.m12 = sz.z*z.y;
scaleM.m20 = sz.x*z.z ; scaleM.m21 = sz.y*z.z ; scaleM.m22 = 1.f+sz.z*z.z;
Matrix34 tm(partRot * scaleM, pos);
SetLocalTM(tm);
}
}
#if !defined(_RELEASE)
if (VehicleCVars().v_debugSuspensionIK)
{
IRenderAuxGeom* pAuxGeom = gEnv->pRenderer->GetIRenderAuxGeom();
SAuxGeomRenderFlags flags = pAuxGeom->GetRenderFlags();
SAuxGeomRenderFlags oldFlags = pAuxGeom->GetRenderFlags();
flags.SetDepthWriteFlag(e_DepthWriteOff);
flags.SetDepthTestFlag(e_DepthTestOff);
pAuxGeom->SetRenderFlags(flags);
ColorB colRed(255,0,0,255);
ColorB colBlue(0,0,255,255);
ColorB colWhite(255,255,255,255);
ColorB colGreen(0,255,0,255);
pos = m_pVehicle->GetEntity()->GetWorldTM() * pos;
targetPos = m_pVehicle->GetEntity()->GetWorldTM() * targetPos;
pAuxGeom->DrawSphere(pos, 0.02f, colGreen);
pAuxGeom->DrawSphere(targetPos, 0.02f, colBlue);
pAuxGeom->DrawLine(pos, colWhite, targetPos, colWhite);
}
#endif
}
//////////////////////////////////////////////////////////////////////////
// NOTE: This function must be thread-safe. Before adding stuff contact MarcoC.
void CVehicleMovementStdBoat::ProcessAI(const float deltaTime)
{
FUNCTION_PROFILER( GetISystem(), PROFILE_GAME );
float dt = max( deltaTime, 0.005f);
SVehiclePhysicsStatus* physStatus = &m_physStatus[k_physicsThread];
// It is copyed from CVehicleMoventTank::ProcessAI
m_movementAction.brake = false;
m_movementAction.rotateYaw = 0.0f;
m_movementAction.power = 0.0f;
float inputSpeed = 0.0f;
{
if (m_aiRequest.HasDesiredSpeed())
inputSpeed = m_aiRequest.GetDesiredSpeed();
Limit(inputSpeed, -(m_maxSpeed*m_factorMaxSpeed), m_maxSpeed*m_factorMaxSpeed);
}
Vec3 vMove(ZERO);
{
if (m_aiRequest.HasMoveTarget())
vMove = ( m_aiRequest.GetMoveTarget() - m_pEntity->GetWorldPos() ).GetNormalizedSafe();
}
//start calculation
if ( fabsf( inputSpeed ) < 0.0001f )
{
m_movementAction.brake = true;
if ( physStatus->v.GetLength() > 1.0f )
{
m_movementAction.power =-1.0f;
}
}
else
{
Matrix33 entRotMatInvert( physStatus->q );
entRotMatInvert.Invert();
float currentAngleSpeed = RAD2DEG(-physStatus->w.z);
const static float maxSteer = RAD2DEG(gf_PI/4.f); // fix maxsteer, shouldn't change
Vec3 vVel = physStatus->v;
Vec3 vVelR = entRotMatInvert * vVel;
float currentSpeed =vVel.GetLength();
vVelR.NormalizeSafe();
if ( vVelR.Dot( FORWARD_DIRECTION ) < 0 )
currentSpeed *= -1.0f;
// calculate pedal
static float accScale = 0.5f;
m_movementAction.power = (inputSpeed - currentSpeed) * accScale;
Limit( m_movementAction.power, -1.0f, 1.0f);
// calculate angles
Vec3 vMoveR = entRotMatInvert * vMove;
Vec3 vFwd = FORWARD_DIRECTION;
vMoveR.z =0.0f;
vMoveR.NormalizeSafe();
if ( inputSpeed < 0.0f ) // when going back
{
vFwd *= -1.0f;
vMoveR *= -1.0f;
currentAngleSpeed *=-1.0f;
}
float cosAngle = vFwd.Dot(vMoveR);
float angle = RAD2DEG(acos_tpl(cosAngle));
if ( vMoveR.Dot( Vec3( 1.0f,0.0f,0.0f ) )< 0 )
angle = -angle;
//int step =0;
m_movementAction.rotateYaw = angle * 1.75f/ maxSteer;
// implementation 1. if there is enough angle speed, we don't need to steer more
if ( fabsf(currentAngleSpeed) > fabsf(angle) && angle*currentAngleSpeed > 0.0f )
{
m_movementAction.rotateYaw = m_movementAction.rotateYaw*0.995f; //step =1;
}
// implementation 2. if we can guess we reach the distination angle soon, start counter steer.
float predictDelta = inputSpeed < 0.0f ? 0.1f : 0.1f;
float dict = angle + predictDelta * ( angle - m_prevAngle) / dt ;
if ( dict*currentAngleSpeed<0.0f )
{
if ( fabsf( angle ) < 2.0f )
{
m_movementAction.rotateYaw = angle* 1.75f/ maxSteer;// ; step =3;
}
else
{
m_movementAction.rotateYaw = currentAngleSpeed < 0.0f ? 1.0f : -1.0f;// step =2;
}
}
if ( fabsf( angle ) > 20.0f && currentSpeed > 3.0f )
{
m_movementAction.power = 0.1f ;
//step =4;
}
m_prevAngle = angle;
//CryLog("steering %4.2f %4.2f %4.2f %4.2f %4.2f %4.2f %d", deltaTime,inputSpeed - currentSpeed,angle,currentAngleSpeed, m_movementAction.rotateYaw,currentAngleSpeed-m_prevAngle,step);
}
}