bool TurretComponent::TargetCanBeHit() {
if (!target) return false;
Vec3 aimDirection = RelativeAnglesToDirection(relativeAimAngles);
Vec3 traceStart = Vec3::Load(entity.oldEnt->s.pos.trBase);
Vec3 traceEnd = traceStart + range * aimDirection;
trace_t tr;
trap_Trace(&tr, traceStart.Data(), nullptr, nullptr, traceEnd.Data(), entity.oldEnt->s.number,
MASK_SHOT, 0);
return (tr.entityNum == target->s.number);
}
bool BotTacticalSpotsCache::FindMiddleRangeTacticalSpot( const Vec3 &origin, const Vec3 &enemyOrigin, vec3_t result ) {
TacticalSpotsRegistry::AdvantageProblemParams problemParams( enemyOrigin.Data() );
problemParams.SetMinSpotDistanceToEntity( WorldState::CLOSE_RANGE_MAX );
problemParams.SetMaxSpotDistanceToEntity( WorldState::MIDDLE_RANGE_MAX );
problemParams.SetOriginDistanceInfluence( 0.3f );
problemParams.SetEntityDistanceInfluence( 0.4f );
problemParams.SetEntityWeightFalloffDistanceRatio( 0.5f );
problemParams.SetTravelTimeInfluence( 0.7f );
problemParams.SetMinHeightAdvantageOverOrigin( -16.0f );
problemParams.SetMinHeightAdvantageOverEntity( -64.0f );
problemParams.SetHeightOverOriginInfluence( 0.6f );
problemParams.SetHeightOverEntityInfluence( 0.8f );
problemParams.SetCheckToAndBackReachability( false );
float searchRadius = WorldState::MIDDLE_RANGE_MAX;
float distanceToEnemy = ( origin - enemyOrigin ).LengthFast();
if( distanceToEnemy < WorldState::CLOSE_RANGE_MAX ) {
searchRadius += WorldState::CLOSE_RANGE_MAX;
} else if( distanceToEnemy > WorldState::MIDDLE_RANGE_MAX ) {
searchRadius += distanceToEnemy - WorldState::MIDDLE_RANGE_MAX;
} else {
searchRadius *= 1.0f + 0.5f * Skill();
}
return FindForOrigin( problemParams, origin, searchRadius, result );
}
bool BotTacticalSpotsCache::FindCloseRangeTacticalSpot( const Vec3 &origin, const Vec3 &enemyOrigin, vec3_t result ) {
TacticalSpotsRegistry::AdvantageProblemParams problemParams( enemyOrigin.Data() );
float meleeRange = GS_GetWeaponDef( WEAP_GUNBLADE )->firedef_weak.timeout;
problemParams.SetMinSpotDistanceToEntity( meleeRange );
problemParams.SetMaxSpotDistanceToEntity( WorldState::CLOSE_RANGE_MAX );
problemParams.SetOriginDistanceInfluence( 0.0f );
problemParams.SetEntityDistanceInfluence( 0.7f );
problemParams.SetEntityWeightFalloffDistanceRatio( 0.8f );
problemParams.SetTravelTimeInfluence( 0.0f );
problemParams.SetMinHeightAdvantageOverOrigin( -16.0f );
problemParams.SetMinHeightAdvantageOverEntity( -16.0f );
problemParams.SetHeightOverOriginInfluence( 0.4f );
problemParams.SetHeightOverEntityInfluence( 0.9f );
// Bot should be able to retreat from close combat
problemParams.SetCheckToAndBackReachability( true );
float searchRadius = WorldState::CLOSE_RANGE_MAX * 2;
float distanceToEnemy = ( origin - enemyOrigin ).LengthFast();
if( distanceToEnemy > WorldState::CLOSE_RANGE_MAX ) {
searchRadius += distanceToEnemy - WorldState::CLOSE_RANGE_MAX;
// On this range retreating to an old position makes little sense
if( distanceToEnemy > 0.5f * WorldState::MIDDLE_RANGE_MAX ) {
problemParams.SetCheckToAndBackReachability( false );
}
}
return FindForOrigin( problemParams, origin, searchRadius, result );
}
Vec3 Ai::GetNewViewAngles( const vec3_t oldAngles, const Vec3 &desiredDirection,
unsigned frameTime, float angularSpeedMultiplier ) const {
// Based on turret script code
// For those trying to learn working with angles
// Vec3.x is the PITCH angle (up and down rotation)
// Vec3.y is the YAW angle (left and right rotation)
// Vec3.z is the ROLL angle (left and right inclination)
vec3_t newAngles, desiredAngles;
VecToAngles( desiredDirection.Data(), desiredAngles );
// Normalize180 all angles so they can be compared
for( int i = 0; i < 3; ++i ) {
newAngles[i] = AngleNormalize180( oldAngles[i] );
desiredAngles[i] = AngleNormalize180( desiredAngles[i] );
}
// Rotate the entity angles to the desired angles
if( !VectorCompare( newAngles, desiredAngles ) ) {
for( auto angleNum: { YAW, PITCH } ) {
newAngles[angleNum] = GetChangedAngle( newAngles[angleNum], desiredAngles[angleNum],
frameTime, angularSpeedMultiplier, angleNum );
}
}
return Vec3( newAngles );
}
bool BotTacticalSpotsCache::FindFarRangeTacticalSpot( const Vec3 &origin, const Vec3 &enemyOrigin, vec3_t result ) {
TacticalSpotsRegistry::AdvantageProblemParams problemParams( enemyOrigin.Data() );
problemParams.SetMinSpotDistanceToEntity( WorldState::MIDDLE_RANGE_MAX );
problemParams.SetMaxSpotDistanceToEntity( WorldState::FAR_RANGE_MAX );
problemParams.SetOriginDistanceInfluence( 0.0f );
problemParams.SetEntityDistanceInfluence( 0.3f );
problemParams.SetEntityWeightFalloffDistanceRatio( 0.25f );
problemParams.SetTravelTimeInfluence( 0.8f );
problemParams.SetMinHeightAdvantageOverOrigin( -192.0f );
problemParams.SetMinHeightAdvantageOverEntity( -512.0f );
problemParams.SetHeightOverOriginInfluence( 0.3f );
problemParams.SetHeightOverEntityInfluence( 0.5f );
problemParams.SetCheckToAndBackReachability( false );
float searchRadius = 192.0f + 768.0f * Skill();
float distanceToEnemy = ( origin - enemyOrigin ).LengthFast();
float minSearchDistanceToEnemy = distanceToEnemy - searchRadius;
float maxSearchDistanceToEnemy = distanceToEnemy + searchRadius;
if( minSearchDistanceToEnemy < WorldState::MIDDLE_RANGE_MAX ) {
searchRadius += WorldState::MIDDLE_RANGE_MAX - minSearchDistanceToEnemy;
} else if( maxSearchDistanceToEnemy > WorldState::FAR_RANGE_MAX ) {
searchRadius += maxSearchDistanceToEnemy - WorldState::FAR_RANGE_MAX;
}
return FindForOrigin( problemParams, origin, searchRadius, result );
}
bool BotTacticalSpotsCache::FindCoverSpot( const Vec3 &origin, const Vec3 &enemyOrigin, vec3_t result ) {
const float searchRadius = 192.0f + 512.0f * Skill();
TacticalSpotsRegistry::CoverProblemParams problemParams( enemyOrigin.Data(), 32.0f );
problemParams.SetOriginDistanceInfluence( 0.0f );
problemParams.SetTravelTimeInfluence( 0.9f );
problemParams.SetMinHeightAdvantageOverOrigin( -searchRadius );
problemParams.SetHeightOverOriginInfluence( 0.3f );
problemParams.SetCheckToAndBackReachability( false );
auto *tacticalSpotsRegistry = TacticalSpotsRegistry::Instance();
if( BotHasAlmostSameOrigin( origin ) ) {
TacticalSpotsRegistry::OriginParams originParams( self, searchRadius, RouteCache() );
return tacticalSpotsRegistry->FindCoverSpots( originParams, problemParams, (vec3_t *)result, 1 ) != 0;
}
TacticalSpotsRegistry::OriginParams originParams( origin.Data(), searchRadius, RouteCache() );
return tacticalSpotsRegistry->FindCoverSpots( originParams, problemParams, (vec3_t *)result, 1 ) != 0;
}
inline bool BotTacticalSpotsCache::FindForOrigin( const ProblemParams &problemParams,
const Vec3 &origin, float searchRadius, vec3_t result ) {
vec3_t *spots = (vec3_t *)result;
const TacticalSpotsRegistry *tacticalSpotsRegistry = TacticalSpotsRegistry::Instance();
if( BotHasAlmostSameOrigin( origin ) ) {
// Provide a bot entity to aid trace checks
TacticalSpotsRegistry::OriginParams originParams( self, searchRadius, RouteCache() );
return tacticalSpotsRegistry->FindPositionalAdvantageSpots( originParams, problemParams, spots, 1 ) > 0;
}
TacticalSpotsRegistry::OriginParams originParams( origin.Data(), searchRadius, RouteCache() );
return tacticalSpotsRegistry->FindPositionalAdvantageSpots( originParams, problemParams, spots, 1 ) > 0;
}
void TurretComponent::SetBaseDirection() {
vec3_t torsoDirectionOldVec;
AngleVectors(entity.oldEnt->s.angles, torsoDirectionOldVec, nullptr, nullptr);
Vec3 torsoDirection = Math::Normalize(Vec3::Load(torsoDirectionOldVec));
Vec3 traceStart = Vec3::Load(entity.oldEnt->s.pos.trBase);
Vec3 traceEnd = traceStart + MINIMUM_CLEARANCE * torsoDirection;
trace_t tr;
trap_Trace(&tr, traceStart.Data(), nullptr, nullptr, traceEnd.Data(), entity.oldEnt->s.number,
MASK_SHOT, 0);
// TODO: Check the presence of a PhysicsComponent to decide whether the obstacle is permanent.
if (tr.entityNum == ENTITYNUM_WORLD ||
g_entities[tr.entityNum].entity->Get<BuildableComponent>()) {
baseDirection = -torsoDirection;
} else {
baseDirection = torsoDirection;
}
turretLogger.Verbose("Base direction set to %s.", baseDirection);
}
int Ai::CheckTravelTimeMillis( const Vec3& from, const Vec3 &to, bool allowUnreachable ) {
// We try to use the same checks the TacticalSpotsRegistry performs to find spots.
// If a spot is not reachable, it is an bug,
// because a reachability must have been checked by the spots registry first in a few preceeding calls.
int fromAreaNum;
constexpr float squareDistanceError = WorldState::OriginVar::MAX_ROUNDING_SQUARE_DISTANCE_ERROR;
if( ( from - self->s.origin ).SquaredLength() < squareDistanceError ) {
fromAreaNum = aasWorld->FindAreaNum( self );
} else {
fromAreaNum = aasWorld->FindAreaNum( from );
}
if( !fromAreaNum ) {
if( allowUnreachable ) {
return 0;
}
FailWith( "CheckTravelTimeMillis(): Can't find `from` AAS area" );
}
const int toAreaNum = aasWorld->FindAreaNum( to.Data() );
if( !toAreaNum ) {
if( allowUnreachable ) {
return 0;
}
FailWith( "CheckTravelTimeMillis(): Can't find `to` AAS area" );
}
for( int flags: { self->ai->aiRef->PreferredTravelFlags(), self->ai->aiRef->AllowedTravelFlags() } ) {
if( int aasTravelTime = routeCache->TravelTimeToGoalArea( fromAreaNum, toAreaNum, flags ) ) {
return 10U * aasTravelTime;
}
}
if( allowUnreachable ) {
return 0;
}
FailWith( "CheckTravelTimeMillis(): Can't find travel time %d->%d\n", fromAreaNum, toAreaNum );
}
bool BotTacticalSpotsCache::FindSniperRangeTacticalSpot( const Vec3 &origin, const Vec3 &enemyOrigin, vec3_t result ) {
TacticalSpotsRegistry::AdvantageProblemParams problemParams( enemyOrigin.Data() );
problemParams.SetMinSpotDistanceToEntity( WorldState::FAR_RANGE_MAX );
problemParams.SetOriginDistanceInfluence( 0.0f );
problemParams.SetTravelTimeInfluence( 0.8f );
problemParams.SetMinHeightAdvantageOverOrigin( -1024.0f );
problemParams.SetMinHeightAdvantageOverEntity( -1024.0f );
problemParams.SetHeightOverOriginInfluence( 0.3f );
problemParams.SetHeightOverEntityInfluence( 0.1f );
problemParams.SetCheckToAndBackReachability( false );
float searchRadius = 192.0f + 768.0f * Skill();
float distanceToEnemy = ( origin - enemyOrigin ).LengthFast();
// If bot is not on sniper range, increase search radius (otherwise a point in a sniper range can't be found).
if( distanceToEnemy - searchRadius < WorldState::FAR_RANGE_MAX ) {
searchRadius += WorldState::FAR_RANGE_MAX - distanceToEnemy + searchRadius;
}
return FindForOrigin( problemParams, origin, searchRadius, result );
}
// TODO: Use a proper trajectory trace, once available, to ensure friendly buildables are never hit.
bool SpikerComponent::SafeToShoot(Vec3 direction) {
const missileAttributes_t* ma = BG_Missile(MIS_SPIKER);
float missileSize = (float)ma->size;
trace_t trace;
vec3_t mins, maxs;
Vec3 end = Vec3::Load(entity.oldEnt->s.origin) + (SPIKE_RANGE * direction);
// Test once with normal and once with inflated missile bounding box.
for (float traceSize : {missileSize, missileSize * SAFETY_TRACE_INFLATION}) {
mins[0] = mins[1] = mins[2] = -traceSize;
maxs[0] = maxs[1] = maxs[2] = traceSize;
trap_Trace(&trace, entity.oldEnt->s.origin, mins, maxs, end.Data(), entity.oldEnt->s.number,
ma->clipmask, 0);
gentity_t* hit = &g_entities[trace.entityNum];
if (hit && G_OnSameTeam(entity.oldEnt, hit)) {
return false;
}
}
return true;
}
Vec3 TurretComponent::RelativeAnglesToAbsoluteAngles(const Vec3 relativeAngles) const {
quat_t torsoRotation;
quat_t relativeRotation;
quat_t absoluteRotation;
vec3_t absoluteAngles;
AnglesToQuat(TorsoAngles().Data(), torsoRotation);
AnglesToQuat(relativeAngles.Data(), relativeRotation);
// Rotate by torso rotation in world space, then by relative orientation in torso space.
// This is equivalent to rotating by relative orientation in world space, then by torso rotation
// in world space. This then is equivalent to multiplying the torso rotation in world space on
// the left hand side and the relative rotation in world space on the right hand side.
QuatMultiply(torsoRotation, relativeRotation, absoluteRotation);
QuatToAngles(absoluteRotation, absoluteAngles);
/*turretLogger.Debug("RelativeAnglesToAbsoluteAngles: %s → %s. Torso angles: %s.",
Utility::Print(relativeAngles), Utility::Print(Vec3::Load(absoluteAngles)), TorsoAngles()
);*/
return Vec3::Load(absoluteAngles);
}
Vec3 TurretComponent::AbsoluteAnglesToRelativeAngles(const Vec3 absoluteAngles) const {
quat_t torsoRotation;
quat_t absoluteRotation;
quat_t relativeRotation;
vec3_t relativeAngles;
AnglesToQuat(TorsoAngles().Data(), torsoRotation);
AnglesToQuat(absoluteAngles.Data(), absoluteRotation);
// This is the inverse of RelativeAnglesToAbsoluteAngles. See the comment there for details.
quat_t inverseTorsoOrientation;
QuatCopy(torsoRotation, inverseTorsoOrientation);
QuatInverse(inverseTorsoOrientation);
QuatMultiply(inverseTorsoOrientation, absoluteRotation, relativeRotation);
QuatToAngles(relativeRotation, relativeAngles);
/*turretLogger.Debug("AbsoluteAnglesToRelativeAngles: %s → %s. Torso angles: %s.",
Utility::Print(absoluteAngles), Utility::Print(Vec3::Load(relativeAngles)), TorsoAngles()
);*/
return Vec3::Load(relativeAngles);
}
void BotTacticalSpotsCache::FindReachableClassEntities( const Vec3 &origin, float radius, const char *classname,
BotTacticalSpotsCache::ReachableEntities &result ) {
int *triggerEntities;
int numEntities = FindNearbyEntities( origin, radius, &triggerEntities );
ReachableEntities candidateEntities;
// Copy to locals for faster access (a compiler might be paranoid about aliasing)
edict_t *gameEdicts = game.edicts;
if( numEntities > (int)candidateEntities.capacity() ) {
for( int i = 0; i < numEntities; ++i ) {
edict_t *ent = gameEdicts + triggerEntities[i];
// Specify expected strcmp() result explicitly to avoid misinterpreting the condition
// (Strings are equal if an strcmp() result is zero)
if( strcmp( ent->classname, classname ) != 0 ) {
continue;
}
float distance = DistanceFast( origin.Data(), ent->s.origin );
candidateEntities.push_back( EntAndScore( triggerEntities[i], radius - distance ) );
if( candidateEntities.size() == candidateEntities.capacity() ) {
break;
}
}
} else {
for( int i = 0; i < numEntities; ++i ) {
edict_t *ent = gameEdicts + triggerEntities[i];
if( strcmp( ent->classname, classname ) != 0 ) {
continue;
}
float distance = DistanceFast( origin.Data(), ent->s.origin );
candidateEntities.push_back( EntAndScore( triggerEntities[i], radius - distance ) );
}
}
const AiAasWorld *aasWorld = AiAasWorld::Instance();
AiAasRouteCache *routeCache = self->ai->botRef->routeCache;
bool testTwoCurrAreas = false;
int fromAreaNum = 0;
// If an origin matches actual bot origin
if( ( origin - self->s.origin ).SquaredLength() < WorldState::OriginVar::MAX_ROUNDING_SQUARE_DISTANCE_ERROR ) {
// Try testing both areas
if( self->ai->botRef->CurrAreaNum() != self->ai->botRef->DroppedToFloorAreaNum() ) {
testTwoCurrAreas = true;
} else {
fromAreaNum = self->ai->botRef->CurrAreaNum();
}
} else {
fromAreaNum = aasWorld->FindAreaNum( origin );
}
if( testTwoCurrAreas ) {
int fromAreaNums[2] = { self->ai->botRef->CurrAreaNum(), self->ai->botRef->DroppedToFloorAreaNum() };
for( EntAndScore &candidate: candidateEntities ) {
edict_t *ent = gameEdicts + candidate.entNum;
int toAreaNum = FindMostFeasibleEntityAasArea( ent, aasWorld );
if( !toAreaNum ) {
continue;
}
int travelTime = 0;
for( int i = 0; i < 2; ++i ) {
travelTime = routeCache->TravelTimeToGoalArea( fromAreaNums[i], toAreaNum, Bot::ALLOWED_TRAVEL_FLAGS );
if( travelTime ) {
break;
}
}
if( !travelTime ) {
continue;
}
// AAS travel time is in seconds^-2
float factor = 1.0f / Q_RSqrt( 1.0001f - BoundedFraction( travelTime, 200 ) );
result.push_back( EntAndScore( candidate.entNum, candidate.score * factor ) );
}
} else {
for( EntAndScore &candidate: candidateEntities ) {
edict_t *ent = gameEdicts + candidate.entNum;
int toAreaNum = FindMostFeasibleEntityAasArea( ent, aasWorld );
if( !toAreaNum ) {
continue;
}
int travelTime = routeCache->TravelTimeToGoalArea( fromAreaNum, toAreaNum, Bot::ALLOWED_TRAVEL_FLAGS );
if( !travelTime ) {
continue;
}
float factor = 1.0f / Q_RSqrt( 1.0001f - BoundedFraction( travelTime, 200 ) );
result.push_back( EntAndScore( candidate.entNum, candidate.score * factor ) );
}
}
// Sort entities so best entities are first
std::sort( result.begin(), result.end() );
}
int BotTacticalSpotsCache::FindNearbyEntities( const Vec3 &origin, float radius, int **entNums ) {
if( const auto *nearbyEntitiesCacheEntry = nearbyEntitiesCache.TryGetCachedEntities( origin, radius ) ) {
*entNums = (int *)nearbyEntitiesCacheEntry->entNums;
return nearbyEntitiesCacheEntry->numEntities;
}
auto *nearbyEntitiesCacheEntry = nearbyEntitiesCache.Alloc();
if( !nearbyEntitiesCacheEntry ) {
return 0;
}
VectorCopy( origin.Data(), nearbyEntitiesCacheEntry->botOrigin );
nearbyEntitiesCacheEntry->radius = radius;
constexpr int maxCachedEntities = NearbyEntitiesCache::MAX_CACHED_NEARBY_ENTITIES;
// Find more than maxCachedEntities entities in radius (most entities will usually be filtered out)
constexpr int maxRadiusEntities = 2 * maxCachedEntities;
int radiusEntNums[maxRadiusEntities];
// Note that this value might be greater than maxRadiusEntities (an actual number of entities is returned)
int numRadiusEntities = GClip_FindInRadius( const_cast<float *>( origin.Data() ), radius, radiusEntNums, maxRadiusEntities );
int numEntities = 0;
// Copy to locals for faster access (a compiler might be paranoid about aliasing)
edict_t *gameEdicts = game.edicts;
int *triggerEntNums = nearbyEntitiesCacheEntry->entNums;
if( numRadiusEntities <= maxCachedEntities ) {
// In this case we can avoid buffer capacity checks on each step
for( int i = 0, end = std::min( numRadiusEntities, maxRadiusEntities ); i < end; ++i ) {
edict_t *ent = gameEdicts + radiusEntNums[i];
if( !ent->r.inuse ) {
continue;
}
if( !ent->classname ) {
continue;
}
triggerEntNums[numEntities++] = radiusEntNums[i];
}
} else {
for( int i = 0, end = std::min( numRadiusEntities, maxRadiusEntities ); i < end; ++i ) {
edict_t *ent = game.edicts + radiusEntNums[i];
if( !ent->r.inuse ) {
continue;
}
if( !ent->classname ) {
continue;
}
triggerEntNums[numEntities++] = radiusEntNums[i];
if( numEntities == maxCachedEntities ) {
break;
}
}
}
nearbyEntitiesCacheEntry->numEntities = numEntities;
*entNums = (int *)nearbyEntitiesCacheEntry->entNums;
return numEntities;
}
Vec3 TurretComponent::DirectionToAbsoluteAngles(const Vec3 direction) const {
vec3_t absoluteAngles;
vectoangles(direction.Data(), absoluteAngles);
return Vec3::Load(absoluteAngles);
}
Vec3 TurretComponent::AbsoluteAnglesToDirection(const Vec3 absoluteAngles) const {
vec3_t direction;
AngleVectors(absoluteAngles.Data(), direction, nullptr, nullptr);
return Vec3::Load(direction);
}
bool TurretComponent::MoveHeadToTarget(int timeDelta) {
// Note that a timeDelta of zero may happen on a first thinker execution.
// We do not return in that case since we don't know the return value yet.
ASSERT_GE(timeDelta, 0);
float timeMod = (float)timeDelta / 1000.0f;
// Compute maximum angle changes for this execution.
Vec3 maxAngleChange;
maxAngleChange[PITCH] = timeMod * PITCH_SPEED;
maxAngleChange[YAW] = timeMod * YAW_SPEED;
maxAngleChange[ROLL] = 0.0f;
// Compute angles to target, relative to the turret's base.
Vec3 relativeAnglesToTarget = DirectionToRelativeAngles(directionToTarget);
// Compute difference between angles to target and current angles.
Vec3 deltaAngles;
AnglesSubtract(relativeAnglesToTarget.Data(), relativeAimAngles.Data(), deltaAngles.Data());
// Stop if there is nothing to do.
if (Math::Length(deltaAngles) < 0.1f) {
return true;
}
bool targetReached = true;
Vec3 oldRelativeAimAngles = relativeAimAngles;
// Adjust aim angles towards target angles.
for (int angle = 0; angle < 3; angle++) {
if (angle == ROLL) continue;
if (fabs(deltaAngles[angle]) > maxAngleChange[angle]) {
relativeAimAngles[angle] += (deltaAngles[angle] < 0.0f)
? -maxAngleChange[angle]
: maxAngleChange[angle];
targetReached = false;
} else {
relativeAimAngles[angle] = relativeAnglesToTarget[angle];
}
}
// Respect pitch limits.
if (relativeAimAngles[PITCH] > PITCH_CAP) {
relativeAimAngles[PITCH] = PITCH_CAP;
targetReached = false;
}
if (Math::DistanceSq(oldRelativeAimAngles, relativeAimAngles) > 0.0f) {
turretLogger.Debug(
"Aiming. Elapsed: %d ms. Delta: %.2f. Max: %.2f. Old: %s. New: %s. Reached: %s.",
timeDelta, deltaAngles, maxAngleChange, oldRelativeAimAngles, relativeAimAngles, targetReached
);
}
// TODO: Move gentity_t.buildableAim to BuildableComponent.
Vec3 absoluteAimAngles = RelativeAnglesToAbsoluteAngles(relativeAimAngles);
absoluteAimAngles.Store(entity.oldEnt->buildableAim);
return targetReached;
}
inline bool BotTacticalSpotsCache::BotHasAlmostSameOrigin( const Vec3 &unpackedOrigin ) const {
constexpr float squareDistanceError = WorldState::OriginVar::MAX_ROUNDING_SQUARE_DISTANCE_ERROR;
return DistanceSquared( self->s.origin, unpackedOrigin.Data() ) < squareDistanceError;
}
