/// <summary>
/// Handles the starship's targeting.
/// </summary>
protected override void OnUpdate()
{
// Note that we need to pass the quadrant system structure to WithReadOnly(). This is because other systems are
// reading from it in parallel and we need to ensure the safety system that we will not modify the memory.
var quadrantHashMap = QuadrantSystem.QuadrantHashMap;
Entities.WithReadOnly(quadrantHashMap).WithAll <SpaceshipTag>().ForEach(
(Entity entity, ref TargetingComponent target, in Translation pos, in TeamComponent team,
in BoidComponent boid) => {
var hashMapKey = QuadrantSystem.HashKeyFromPosition(pos.Value);
// Search neighboring quadrants if the currently locked target is still in range,
// or find a new closest enemy target
var minDistance = float.MaxValue;
var closestEntity = target.TargetEntity;
var closestPos = target.TargetPosition;
var newTargetFound = false;
if (SearchQuadrantNeighbors(in quadrantHashMap, hashMapKey, entity, target.TargetingRadius,
pos.Value, team.Team, target.TargetLocked, target.TargetEntity, ref minDistance,
ref closestEntity, ref closestPos, ref newTargetFound))
{
return; // Currently locked target still in range
}
if (newTargetFound)
{
target.TargetPosition = closestPos;
target.TargetEntity = closestEntity;
target.TargetLocked = true;
}
else
{
target.TargetLocked = false;
}
}).ScheduleParallel();
public void Execute(Entity e, int jobIndex, ref Translation translation, ref VelocityComponent velocity, [ReadOnly] ref ProjectileComponent projectile)
{
if (translation.Value.y < 0.15f)
{
// find all the entities in the nearby quad and destroy it if within the radius
int key = QuadrantSystem.GetPositionHashMapKey(translation.Value);
if (QuadMap.TryGetFirstValue(key, out var data, out var it))
{
do
{
float distance = distancesq(data.position, translation.Value);
if (data.quadEntityData.type == QuadEntityType.Cavalry)
{
continue;
}
if (distance < projectile.DamageRadius)
{
CommandBuffer.DestroyEntity(jobIndex, data.e);
}
} while (QuadMap.TryGetNextValue(out data, ref it));
}
CommandBuffer.DestroyEntity(jobIndex, e);
}
// apply gravity
velocity.Value.y += -0.0098f * projectile.Weight;
velocity.Value.y = clamp(velocity.Value.y, -10f, 100f);
// apply air resistance
velocity.Value.z += projectile.AirResistance * -0.0001f;
velocity.Value.z = clamp(velocity.Value.z, 0.5f, 100f);
translation.Value += velocity.Value * deltaTime;
}
private void OnDrawGizmos()
{
var camera = Camera.main;
var cameraPosition = camera.transform.position;
var camHeight = camera.orthographicSize;
var camWidth = camHeight * camera.aspect;
var maxX = cameraPosition.x + camWidth;
var minX = cameraPosition.x - camWidth;
var maxY = cameraPosition.y + camHeight;
var minY = cameraPosition.y - camHeight;
var xStep = QuadrantSystem.quadrantSize;
var yStep = QuadrantSystem.quadrantSize;
for (float x = minX; x < maxX; x += xStep)
{
for (float y = minY; y < maxY; y += yStep)
{
QuadrantSystem.DrawQuadrant(new Unity.Mathematics.float3(x, y, 0), Color.black);
}
}
var mousePos = Utils.GetMouseWorldPosition(camera);
QuadrantSystem.DrawQuadrant(mousePos.ToF3(), Color.red);
}
protected override void OnUpdate()
{
Entities.ForEach((Entity entity, ref Translation translation, ref Rotation rotation, ref ProjectileData projectileData) =>
{
// Update position:
float3 forwardVector = math.mul(rotation.Value, new float3(0, -1, 0));
translation.Value += forwardVector * projectileData.SpeedMultiplier * Time.deltaTime;
// Update life time:
projectileData.LifeTime += Time.deltaTime;
if (projectileData.LifeTime >= projectileData.MaxLifeTime)
{
PostUpdateCommands.DestroyEntity(entity);
return;
}
// Destroy if collided with asteroid and update the score (use more quadrant cells for better collision precision):
int hashMapKey = QuadrantSystem.GetQuadrantHashMapKey(translation.Value);
QuadrantSystem.QuadrantEntityData[] quadrantData = new QuadrantSystem.QuadrantEntityData[9];
bool[] isCollision = new bool[9];
isCollision[0] = AsteroidsSystem.IsCollisionWithAsteroid(hashMapKey, entity, entity.Index, translation, QuadrantSystem.QuadrantAsteroidsMultiHashMap, out quadrantData[0]);
isCollision[1] = AsteroidsSystem.IsCollisionWithAsteroid(hashMapKey + 1, entity, entity.Index, translation, QuadrantSystem.QuadrantAsteroidsMultiHashMap, out quadrantData[1]);
isCollision[2] = AsteroidsSystem.IsCollisionWithAsteroid(hashMapKey - 1, entity, entity.Index, translation, QuadrantSystem.QuadrantAsteroidsMultiHashMap, out quadrantData[2]);
isCollision[3] = AsteroidsSystem.IsCollisionWithAsteroid(hashMapKey + QuadrantSystem.QuadrantYMultiplier, entity, entity.Index, translation, QuadrantSystem.QuadrantAsteroidsMultiHashMap, out quadrantData[3]);
isCollision[4] = AsteroidsSystem.IsCollisionWithAsteroid(hashMapKey - QuadrantSystem.QuadrantYMultiplier, entity, entity.Index, translation, QuadrantSystem.QuadrantAsteroidsMultiHashMap, out quadrantData[4]);
isCollision[5] = AsteroidsSystem.IsCollisionWithAsteroid(hashMapKey + 1 + QuadrantSystem.QuadrantYMultiplier, entity, entity.Index, translation, QuadrantSystem.QuadrantAsteroidsMultiHashMap, out quadrantData[5]);
isCollision[6] = AsteroidsSystem.IsCollisionWithAsteroid(hashMapKey - 1 + QuadrantSystem.QuadrantYMultiplier, entity, entity.Index, translation, QuadrantSystem.QuadrantAsteroidsMultiHashMap, out quadrantData[6]);
isCollision[7] = AsteroidsSystem.IsCollisionWithAsteroid(hashMapKey + 1 - QuadrantSystem.QuadrantYMultiplier, entity, entity.Index, translation, QuadrantSystem.QuadrantAsteroidsMultiHashMap, out quadrantData[7]);
isCollision[8] = AsteroidsSystem.IsCollisionWithAsteroid(hashMapKey - 1 - QuadrantSystem.QuadrantYMultiplier, entity, entity.Index, translation, QuadrantSystem.QuadrantAsteroidsMultiHashMap, out quadrantData[8]);
for (int i = 0; i < isCollision.Length; i++)
{
if (isCollision[i])
{
if (entity != Entity.Null)
{
PostUpdateCommands.DestroyEntity(entity);
}
if (quadrantData[i].entity != Entity.Null)
{
PostUpdateCommands.DestroyEntity(quadrantData[i].entity);
}
ShipSystem.Score++;
UI.UpdateScore(ShipSystem.Score);
break;
}
}
});
}
public void Execute(Entity e, int jobIndex, ref Translation translation, ref WidthComponent width)
{
int hashKey = QuadrantSystem.GetPositionHashMapKey(translation.Value);
BlockMap.Add(hashKey, new BlockerData
{
entity = e,
position = translation.Value,
width = width.Value
});
}
public void Execute([ReadOnly] ref Translation translation, ref TargetComponent target, [ReadOnly] ref QuadrantEntityComponent entityQuadInfo)
{
float3 entityPosition = translation.Value;
// if the entity is so far off the map, it doesn't even need to search for anything
if (entityPosition.z > 80 || entityPosition.z < -200)
{
return;
}
float closestDistance = 1000f;
int hashKey = QuadrantSystem.GetPositionHashMapKey(entityPosition);
if (EntityHashMap.TryGetFirstValue(hashKey, out var quadData, out var it))
{
do
{
if (((ushort)(quadData.quadEntityData.type) & target.targetMask) == 0)
{
continue;
}
float3 otherUnitLoc = quadData.position;
// only care to find a target that is in the approximate same lane
if (abs(otherUnitLoc.x - entityPosition.x) > 25f)
{
continue;
}
// check distance after
float currentDis = distancesq(entityPosition, otherUnitLoc);
// if the distance is closer then the minimum, it found the necessary target,
// use that cavalry unit as the target immediately
if (closestDistance > currentDis)
{
if ((ushort)(entityQuadInfo.type & QuadEntityType.Cavalry) != 0)
{
// if this is a cavalry unit make the entity targeted so that other cavalry units can't take it
}
closestDistance = currentDis;
target.entity = quadData.e;
target.location = otherUnitLoc;
}
} while (EntityHashMap.TryGetNextValue(out quadData, ref it));
}
if (closestDistance > 999f)
{
target.entity = Entity.Null;
}
}
public void Execute(Entity entity, int index, ref Translation translation, ref PhysicsCollider collider, ref CollisionData collisionData)
{
int hashMapKey = QuadrantSystem.GetPositionHashMapKey(translation.Value);
CheckCollisions(hashMapKey, index, ref entity, ref translation, ref collider, ref collisionData);
CheckCollisions(hashMapKey + 1, index, ref entity, ref translation, ref collider, ref collisionData);
CheckCollisions(hashMapKey - 1, index, ref entity, ref translation, ref collider, ref collisionData);
CheckCollisions(hashMapKey + QuadrantSystem.quadrantYMultiplier, index, ref entity, ref translation, ref collider, ref collisionData);
CheckCollisions(hashMapKey - QuadrantSystem.quadrantYMultiplier, index, ref entity, ref translation, ref collider, ref collisionData);
CheckCollisions(hashMapKey + 1 + QuadrantSystem.quadrantYMultiplier, index, ref entity, ref translation, ref collider, ref collisionData);
CheckCollisions(hashMapKey - 1 + QuadrantSystem.quadrantYMultiplier, index, ref entity, ref translation, ref collider, ref collisionData);
CheckCollisions(hashMapKey + 1 - QuadrantSystem.quadrantYMultiplier, index, ref entity, ref translation, ref collider, ref collisionData);
CheckCollisions(hashMapKey - 1 - QuadrantSystem.quadrantYMultiplier, index, ref entity, ref translation, ref collider, ref collisionData);
}
public void Execute(ArchetypeChunk chunk, int chunkIndex, int firstEntityIndex)
{
NativeArray <Translation> translations = chunk.GetNativeArray(translationType);
NativeArray <int> quadrantKeys = new NativeArray <int>(MAX_QUADRANT_NEIGHBORS, Allocator.Temp);
//TODO make something that is dynamic
float radius = 0.5f;
float combinedRadius = radius * 2.0f;
for (int entityIdx = 0; entityIdx < chunk.ChunkEntityCount; entityIdx++)
{
float2 currentPosition = translations[entityIdx].Value.xz;
int countNeighborQuadrant = 0;
QuadrantSystem.GetCurrentCellAndNeighborsKeys(currentPosition, ref quadrantKeys,
ref countNeighborQuadrant);
//Get nearest neighbors
for (int i = 0; i < countNeighborQuadrant; i++)
{
if (!quadrantMap.TryGetFirstValue(quadrantKeys[i], out var neighbor,
out var nativeMultiHashMapIterator))
{
continue;
}
do
{
float distance = math.distance(neighbor.position, currentPosition);
if (distance < combinedRadius && distance > 0.0001f)
{
var entity = ecb.CreateEntity(chunkIndex);
Collision collision = new Collision()
{
// percentage = ((combinedRadius - distance) * 0.5f) / radius,
percentage = distance,
position = (neighbor.position + currentPosition) / 2.0f,
frame = key
};
ecb.AddComponent(chunkIndex, entity, collision);
}
} while (quadrantMap.TryGetNextValue(out neighbor, ref nativeMultiHashMapIterator));
}
}
}
public void Execute(Entity e, int jobIndex, [ReadOnly] ref Translation translation, [ReadOnly] ref MeleeStrengthComponent strength, ref MovementStateComponent state)
{
int hashKey = QuadrantSystem.GetPositionHashMapKey(translation.Value);
state.Value = (ushort)MovementState.Moving;
if (BlockerMap.TryGetFirstValue(hashKey, out var blockerData, out var it))
{
float zombieX = translation.Value.x;
do
{
float furthestRight = blockerData.position.x + blockerData.width / 2;
float furthestLeft = blockerData.position.x - blockerData.width / 2;
if (zombieX < furthestLeft || zombieX > furthestRight)
{
continue;
}
// within the bounds of the blocker
// check how far away are you from the blocker
if (abs(translation.Value.z - blockerData.position.z) > 2.5f)
{
continue;
}
if (!HealthData.Exists(blockerData.entity))
{
// entity is dead
return;
}
// the zombie is right in front of the blocker
state.Value = (ushort)MovementState.Blocked;
// detect if the blocker has a DamageTag. If not, add one
if (!DamageData.Exists(blockerData.entity))
{
CommandBuffer.AddComponent(jobIndex, blockerData.entity, new BlockerDamageTag());
return;
}
} while(BlockerMap.TryGetNextValue(out blockerData, ref it));
}
}
public void Execute(Entity entity, int index, ref Translation translation, ref AsteroidVelocityData vel)
{
// Update position:
translation.Value.x += vel.Velocity.x * deltaTime;
translation.Value.y += vel.Velocity.y * deltaTime;
// Destroy if collided with other asteroid:
int hashMapKey = QuadrantSystem.GetQuadrantHashMapKey(translation.Value);
QuadrantSystem.QuadrantEntityData quadrantData;
if (IsCollisionWithAsteroid(hashMapKey, entity, index, translation, quadrantMultiHashMap, out quadrantData))
{
if (entity != Entity.Null)
{
entityCommandBuffer.DestroyEntity(index, entity);
}
if (quadrantData.entity != Entity.Null)
{
entityCommandBuffer.DestroyEntity(quadrantData.entity.Index, quadrantData.entity);
}
}
}
public void Execute(Entity entity, int index, [ReadOnly] ref Sight sight,
[ReadOnly] ref LocalToWorld location, [ReadOnly] ref QuadrantEntity quadrantEntity, [ReadOnly] ref Diet diet,
[ReadOnly] ref AnimalSize size, [ReadOnly] ref LifeStatus lifeStatus)
{
EntityWithPosition closestDangerTarget = new EntityWithPosition {
entity = Entity.Null
};
float closestDangerTargetDistance = float.MaxValue;
EntityWithPosition closestFoodTarget = new EntityWithPosition {
entity = Entity.Null
};
float closestFoodTargetDistance = float.MaxValue;
int hashMapKey = QuadrantSystem.GetPositionHashMapKey(location.Position);
var entityDesc = new EntityDescription()
{
sight = sight,
diet = diet,
location = location,
quadrantEntity = quadrantEntity,
size = size,
lifeStatus = lifeStatus
};
FindTarget(index, hashMapKey, entityDesc, ref closestDangerTarget, ref closestDangerTargetDistance, ref closestFoodTarget, ref closestFoodTargetDistance);
FindTarget(index, hashMapKey + 1, entityDesc, ref closestDangerTarget, ref closestDangerTargetDistance, ref closestFoodTarget, ref closestFoodTargetDistance);
FindTarget(index, hashMapKey - 1, entityDesc, ref closestDangerTarget, ref closestDangerTargetDistance, ref closestFoodTarget, ref closestFoodTargetDistance);
FindTarget(index, hashMapKey + QuadrantSystem.quadrantYMultiplier, entityDesc, ref closestDangerTarget, ref closestDangerTargetDistance, ref closestFoodTarget, ref closestFoodTargetDistance);
FindTarget(index, hashMapKey - QuadrantSystem.quadrantYMultiplier, entityDesc, ref closestDangerTarget, ref closestDangerTargetDistance, ref closestFoodTarget, ref closestFoodTargetDistance);
FindTarget(index, hashMapKey + 1 + QuadrantSystem.quadrantYMultiplier, entityDesc, ref closestDangerTarget, ref closestDangerTargetDistance, ref closestFoodTarget, ref closestFoodTargetDistance);
FindTarget(index, hashMapKey - 1 + QuadrantSystem.quadrantYMultiplier, entityDesc, ref closestDangerTarget, ref closestDangerTargetDistance, ref closestFoodTarget, ref closestFoodTargetDistance);
FindTarget(index, hashMapKey + 1 - QuadrantSystem.quadrantYMultiplier, entityDesc, ref closestDangerTarget, ref closestDangerTargetDistance, ref closestFoodTarget, ref closestFoodTargetDistance);
FindTarget(index, hashMapKey - 1 - QuadrantSystem.quadrantYMultiplier, entityDesc, ref closestDangerTarget, ref closestDangerTargetDistance, ref closestFoodTarget, ref closestFoodTargetDistance);
closestDangerTargetArray[index] = closestDangerTarget;
closestFoodTargetArray[index] = closestFoodTarget;
}
public void Execute(Entity entity, int index, [ReadOnly] ref Translation translation, [ReadOnly] ref QuadrantEntity quadrantEntity)
{
float3 unitPosition = translation.Value;
Entity closestTargetEntity = Entity.Null;
float3 closestTargetPosition = float3.zero;
int key = QuadrantSystem.GetKeyFromPosition(unitPosition);
NativeMultiHashMapIterator <int> iterator = new NativeMultiHashMapIterator <int>();
QuadrantData quadrantData;
if (quadrantMap.TryGetFirstValue(key, out quadrantData, out iterator))
{
do
{
if (quadrantEntity.type != quadrantData.quadrantEntity.type)
{
if (closestTargetEntity == Entity.Null)
{
// No target
closestTargetEntity = quadrantData.entity;
closestTargetPosition = math.distance(unitPosition, quadrantData.position);
}
else
{
if (math.distance(unitPosition, quadrantData.position) < math.distance(unitPosition, closestTargetPosition))
{
// This target is closer
closestTargetEntity = entity;
closestTargetPosition = math.distancesq(unitPosition, quadrantData.position);
}
}
}
} while (quadrantMap.TryGetNextValue(out quadrantData, ref iterator));
}
closestTargets[index] = closestTargetEntity;
}
private static void FindTarget(ref Translation translation, ref MeleeFindTargetSettingsComponentData findingSettings, ref MeleeTargetComponentData meleeData, ref FactionComponentData faction, NativeMultiHashMap <int, QuadrantSystem.QuadrandEntityData> quadrantMap)
{
var pos = translation.Value;
var quadrant = QuadrantSystem.GetQuadrant(pos);
var closest = new MeleeTargetComponentData()
{
target = Entity.Null, targetPosition = translation.Value
};
closest = FindClosest(findingSettings, faction, quadrantMap, pos, QuadrantSystem.GetNearestQuadrantKey(quadrant, QuadrantSystem.NearestQuadrant.CURRENT), closest);
closest = FindClosest(findingSettings, faction, quadrantMap, pos, QuadrantSystem.GetNearestQuadrantKey(quadrant, QuadrantSystem.NearestQuadrant.DOWN), closest);
closest = FindClosest(findingSettings, faction, quadrantMap, pos, QuadrantSystem.GetNearestQuadrantKey(quadrant, QuadrantSystem.NearestQuadrant.LEFT), closest);
closest = FindClosest(findingSettings, faction, quadrantMap, pos, QuadrantSystem.GetNearestQuadrantKey(quadrant, QuadrantSystem.NearestQuadrant.LEFT_DOWN), closest);
closest = FindClosest(findingSettings, faction, quadrantMap, pos, QuadrantSystem.GetNearestQuadrantKey(quadrant, QuadrantSystem.NearestQuadrant.LEFT_UP), closest);
closest = FindClosest(findingSettings, faction, quadrantMap, pos, QuadrantSystem.GetNearestQuadrantKey(quadrant, QuadrantSystem.NearestQuadrant.RIGHT), closest);
closest = FindClosest(findingSettings, faction, quadrantMap, pos, QuadrantSystem.GetNearestQuadrantKey(quadrant, QuadrantSystem.NearestQuadrant.RIGHT_DOWN), closest);
closest = FindClosest(findingSettings, faction, quadrantMap, pos, QuadrantSystem.GetNearestQuadrantKey(quadrant, QuadrantSystem.NearestQuadrant.RIGHT_UP), closest);
closest = FindClosest(findingSettings, faction, quadrantMap, pos, QuadrantSystem.GetNearestQuadrantKey(quadrant, QuadrantSystem.NearestQuadrant.UP), closest);
meleeData.target = closest.target;
meleeData.targetPosition = closest.targetPosition;
}
public void Execute(Entity entity, int index, [ReadOnly] ref Translation unitTranslation, [ReadOnly] ref QuadrantEntity unitQuandrantEntity)
{
Entity closestTargetEntity = Entity.Null;
float3 unitPosition = unitTranslation.Value;
float3 closestTargetPosition = new float3(0);
int hashMapKey = QuadrantSystem.GetPositionHasMapKey(unitTranslation.Value);
FindTarget(hashMapKey, unitPosition, unitQuandrantEntity, ref closestTargetEntity, ref closestTargetPosition);
for (int i = 1; i <= 2; i++)
{
FindTarget(hashMapKey + i, unitPosition, unitQuandrantEntity, ref closestTargetEntity, ref closestTargetPosition);
FindTarget(hashMapKey - i, unitPosition, unitQuandrantEntity, ref closestTargetEntity, ref closestTargetPosition);
FindTarget(hashMapKey + i * QuadrantSystem.quadrantYMultiplier, unitPosition, unitQuandrantEntity, ref closestTargetEntity, ref closestTargetPosition);
FindTarget(hashMapKey - i * QuadrantSystem.quadrantYMultiplier, unitPosition, unitQuandrantEntity, ref closestTargetEntity, ref closestTargetPosition);
}
if (closestTargetEntity != Entity.Null)
{
entityCommandBuffer.AddComponent(index, entity, new HasTarget()
{
target = closestTargetEntity
});
}
}
protected override void OnCreate()
{
base.OnCreate();
Instance = this;
quadrantMap = new NativeMultiHashMap <int, QuadrandEntityData>(0, Allocator.Persistent);
}
public void Execute(Entity entity, int index, ref Translation translation, [ReadOnly] ref Rotation rotation, [ReadOnly] ref NonUniformScale nonUniformScale, [ReadOnly] ref MotionProperties motionProperties, ref Planetoid planetoidCrashInfo)
{
float3 position = translation.Value;
float3 scale = nonUniformScale.Value;
float qRotationZ = rotation.Value.value.z;
float axisA = nonUniformScale.Value.x / 2f;
float axisB = nonUniformScale.Value.y / 2f;
//TODO read the angle from quaternion
//float angleZ = GameHandler.ToEulerAngles(q).z;
//angleZ = angleZ % (2 * math.PI);
// read z angle of entity rotation by multiplying right vector by quaternion:
float3 rotationRightVectorN = math.normalize(qRotationZ * new float3(0, 0, 1));
int hashMapKey = QuadrantSystem.GetPositionHashMapKey(position);
if (quadrantMultiHashMap.TryGetFirstValue(hashMapKey, out EntityWithProps inspectedEntityWithProps, out NativeMultiHashMapIterator <int> it)) //TODO check the neighbouring quadrants
{ //TODO find the closest entity and only monitor that one
do
{
float distance = math.distancesq(position, inspectedEntityWithProps.position);
//TODO for ellipses:
// calculate angle vector to the target
//float3 vectorToTarget = inspectedEntityWithProps.position - position;
//float distanceToTargetSq = vectorToTarget.x * vectorToTarget.x + vectorToTarget.y + vectorToTarget.y;
float3 vectorToTargetN = math.normalize(inspectedEntityWithProps.position - position);
// add angle to rotation angle of active ellipse collider
float radiaeAngle = math.acos(math.dot(rotationRightVectorN, vectorToTargetN));
float sinRadiaeAngle = math.sin(radiaeAngle);
float cosRadiaeAngle = math.cos(radiaeAngle);
// calculate radius in line of target of active ellipse collider
float radiusToTarget = axisA * axisB / math.sqrt(axisA * axisA * sinRadiaeAngle * sinRadiaeAngle + axisB * axisB * cosRadiaeAngle * cosRadiaeAngle);
// do the same with passive ellipse collider
float qRotationZofInspectedEntity = inspectedEntityWithProps.rotation.value.z;
float3 rotationRightVectorNofInspectedEntity = math.normalize(qRotationZofInspectedEntity * new float3(0, 0, 1));
float axisAofInspectedEntity = inspectedEntityWithProps.nonUniformScale.x / 2f;
float axisBofInspectedEntity = inspectedEntityWithProps.nonUniformScale.y / 2f;
float radiaeAngleOfInspectedEntity = math.acos(math.dot(rotationRightVectorNofInspectedEntity, -vectorToTargetN));
float sinRadiaeAngleOfInspectedEntity = math.sin(radiaeAngleOfInspectedEntity);
float cosRadiaeAngleOfInspectedEntity = math.cos(radiaeAngleOfInspectedEntity);
float radiusFromTarget = axisAofInspectedEntity * axisBofInspectedEntity / math.sqrt(axisAofInspectedEntity * axisAofInspectedEntity * sinRadiaeAngleOfInspectedEntity * sinRadiaeAngleOfInspectedEntity
+ axisBofInspectedEntity * axisBofInspectedEntity * cosRadiaeAngleOfInspectedEntity * cosRadiaeAngleOfInspectedEntity);
// sum the radiae to get the distance
float radiaeSum = radiusToTarget + radiusFromTarget;
float radiaeSumSq = radiaeSum * radiaeSum;
// set the longer axis of ellipse to be the zero degrees rotation vector
// or make it so that the x axis of ellipse is always longer
// calculate the rotation of the asteroid % 360
// calculate the rotation of the asteroid upon which the check is being made
// calculate the vector between two of the asteroids (maybe make it the normal vector)
// calculate the angle between asteroid rotation and the connecting vector
// and calculate for the radius at that point
// same for the other asteroid
// sum up the radii to obtain the collision distance
// check for the collision distance (below)
if (distance < radiaeSumSq && inspectedEntityWithProps.entity != entity && !(inspectedEntityWithProps.planetoidCrashData.crashTime > 0))// TODO and if entity that is being collided with has crashTime zero
{
planetoidCrashInfo.crashTime = realTimeSinceStartUp;
inspectedEntityWithProps.planetoidCrashData.crashTime = realTimeSinceStartUp;
destroyedPlanetoidsQueue.Enqueue(entity);
destroyedPlanetoidsQueue.Enqueue(inspectedEntityWithProps.entity);
//explosion location, TODO put exlosion locations into a persistent queue
float3 explosionPoint = position - (position - inspectedEntityWithProps.position) / 2;
explosionCoordsQueue.Enqueue(explosionPoint);
break;
}
}while (quadrantMultiHashMap.TryGetNextValue(out inspectedEntityWithProps, ref it));
}
}
public void Execute(ArchetypeChunk chunk, int chunkIndex, int firstEntityIndex)
{
NativeArray <Translation> translations = chunk.GetNativeArray(translationType);
NativeArray <Velocity> velocities = chunk.GetNativeArray(velocityType);
NativeArray <Line> orcaLines = new NativeArray <Line>(maxNeighbors, Allocator.Temp);
NativeArray <KeyValuePair <float, AgentNeighbor> > agentNeighbors =
new NativeArray <KeyValuePair <float, AgentNeighbor> >(maxNeighbors, Allocator.Temp);
NativeArray <int> quadrantKeys = new NativeArray <int>(MAX_QUADRANT_NEIGHBORS, Allocator.Temp);
float invTimeStep = 1.0f / dt;
float combinedRadius = radius * 2.0f;
float combinedRadiusSqr = math.pow(combinedRadius, 2);
float rangeSqr = neighborsDist * neighborsDist;
for (int entityIdx = 0; entityIdx < chunk.ChunkEntityCount; entityIdx++)
{
float2 velocity = velocities[entityIdx].Value;
//Early exit if the agent is not moving
if (math.lengthsq(velocity) < 0.001f)
{
continue;
}
float2 position = translations[entityIdx].Value.xz;
int countNeighborQuadrant = 0;
QuadrantSystem.GetCurrentCellAndNeighborsKeys(position, ref quadrantKeys, ref countNeighborQuadrant);
//ORCA setup
int neighborsCount = 0;
int nbObstacleLine = 0;
//Get nearest neighbors
for (int i = 0; i < countNeighborQuadrant; i++)
{
if (!quadrantMap.TryGetFirstValue(quadrantKeys[i], out var neighbor,
out var nativeMultiHashMapIterator))
{
continue;
}
do
{
float2 dir = position - neighbor.position;
float distSqr = math.dot(dir, dir);
//Condition to avoid self
if (distSqr > 0.001f)
{
//If the other agent is under the minimum range => add it
if (!(distSqr < rangeSqr))
{
continue;
}
//If there is a free space, add it immediately
if (neighborsCount < maxNeighbors)
{
agentNeighbors[neighborsCount] = new KeyValuePair <float, AgentNeighbor>(distSqr,
new AgentNeighbor()
{
position = neighbor.position,
velocity = neighbor.velocity
});
neighborsCount++;
}
//Make sure the list is sorted
int j = neighborsCount - 1;
while (j != 0 && distSqr < agentNeighbors[j - 1].Key)
{
agentNeighbors[j] = agentNeighbors[j - 1];
j--;
}
//Once a spot with a further agent is found, place if
agentNeighbors[j] = new KeyValuePair <float, AgentNeighbor>(distSqr, new AgentNeighbor()
{
position = neighbor.position,
velocity = neighbor.velocity
});
//If the list is full, only check agent nearer than the farrest neighbor.
if (neighborsCount == maxNeighbors)
{
rangeSqr = agentNeighbors[maxNeighbors - 1].Key;
}
}
} while (quadrantMap.TryGetNextValue(out neighbor, ref nativeMultiHashMapIterator));
}
//Evaluate each neighbors
for (int neighborIdx = 0; neighborIdx < neighborsCount; neighborIdx++)
{
AgentNeighbor otherAgent = agentNeighbors[neighborIdx].Value;
float2 relativePosition = otherAgent.position - position;
float2 relativeVelocity = velocity - otherAgent.velocity;
float distSqr = math.lengthsq(relativePosition);
Line line;
float2 u;
if (distSqr > combinedRadiusSqr)
{
// No Collision
float2 w = relativeVelocity - invTimeHorizon * relativePosition;
// Vector from center to relative velocity
float wLengthSqr = math.lengthsq(w);
float dotProduct1 = math.dot(w, relativePosition);
if (dotProduct1 < 0.0f && math.pow(dotProduct1, 2) > combinedRadiusSqr * wLengthSqr)
{
// Project on circle
float wLength = math.sqrt(wLengthSqr);
float2 unitW = w / wLength;
line.direction = new float2(unitW.y, -unitW.x);
u = (combinedRadius * invTimeHorizon - wLength) * unitW;
}
else
{
// Projection on legs
float leg = math.sqrt(distSqr - combinedRadiusSqr);
if (Det(relativePosition, w) > 0.0f)
{
line.direction = new float2(
relativePosition.x * leg - relativePosition.y * combinedRadius,
relativePosition.x * combinedRadius + relativePosition.y * leg) /
distSqr;
}
else
{
line.direction = -new float2(
relativePosition.x * leg - relativePosition.y * combinedRadius,
-relativePosition.x * combinedRadius + relativePosition.y * leg) /
distSqr;
}
float dotProduct2 = math.dot(relativeVelocity, line.direction);
u = dotProduct2 * line.direction - relativeVelocity;
}
}
else
{
//Collision
float2 w = relativeVelocity - invTimeStep * relativePosition;
float wLength = math.length(w);
float2 wUnit = w / wLength;
line.direction = new float2(wUnit.y, -wUnit.x);
u = (combinedRadius * invTimeStep - wLength) * wUnit;
}
line.point = velocity + 0.5f * u;
orcaLines[neighborIdx] = line;
}
float2 optimalVel = velocity;
float2 vel = float2.zero;
float maxSpeed = velocities[entityIdx].maxSpeed;
int lineFail = LinearProgram2(orcaLines, neighborsCount, maxSpeed, optimalVel, false, ref vel);
if (lineFail < neighborsCount)
{
LinearProgram3(orcaLines, neighborsCount, nbObstacleLine, lineFail, maxSpeed, ref vel);
}
velocities[entityIdx] = new Velocity()
{
Value = vel,
maxSpeed = maxSpeed
};
}
quadrantKeys.Dispose();
orcaLines.Dispose();
agentNeighbors.Dispose();
}
/// <summary>
/// Handles flocking simulation.
/// </summary>
protected override void OnUpdate()
{
var deltaTime = Time.DeltaTime;
// Note that we need to pass the quadrant system structure to WithReadOnly(). This is because other systems are
// reading from it in parallel and we need to ensure the safety system that we will not modify the memory.
var quadrantHashMap = QuadrantSystem.QuadrantHashMap;
// Query for all entities with BoidObstacle tag component
var allObstacles = GetEntityQuery(ComponentType.ReadOnly <BoidObstacle>()).ToEntityArray(Allocator.TempJob);
Entities.WithReadOnly(quadrantHashMap).WithReadOnly(allObstacles).WithAll <SpaceshipTag>().ForEach(
(Entity entity, ref MovementComponent movement, in BoidComponent boid, in Translation pos,
in TargetingComponent target) => {
var neighborCnt = 0;
var cohesionPos = float3.zero; // For average position in neighborhood
var alignmentVec = float3.zero; // For average alignment vector
var separationVec = float3.zero; // For average separation vector
// Get all translation components (will be needed for the obstacle positions)
var allTranslations = GetComponentDataFromEntity <Translation>(true);
// Search neighboring quadrants and update aggregate steering data
var hashMapKey = QuadrantSystem.HashKeyFromPosition(pos.Value);
SearchQuadrantNeighbors(in quadrantHashMap, hashMapKey, entity, boid.CellRadius, pos.Value,
ref neighborCnt, ref cohesionPos, ref alignmentVec, ref separationVec);
// Average steering data
if (neighborCnt > 0)
{
separationVec /= neighborCnt;
cohesionPos /= neighborCnt;
alignmentVec /= neighborCnt;
}
else
{
// apply no steering
cohesionPos = pos.Value;
alignmentVec = movement.Heading;
separationVec = movement.Heading;
}
// Compute obstacle avoidance
var avoidanceHeading = float3.zero;
var avoidObstacle = false; // if the boid should avoid obstacle instead of normal steering
for (var i = 0; i < allObstacles.Length; i++)
{
var otherPos = allTranslations[allObstacles[i]]; // Obstacle position
var distance = Vector3.Distance(pos.Value, otherPos.Value);
if (distance >= boid.ObstacleAversionDistance)
{
continue; // This obstacle is not close
}
avoidObstacle = true;
var obstacleSteering = pos.Value - otherPos.Value;
if (obstacleSteering.Equals(float3.zero))
{
obstacleSteering = movement.Heading;
}
obstacleSteering = math.normalizesafe(obstacleSteering);
avoidanceHeading = otherPos.Value + obstacleSteering * boid.ObstacleAversionDistance -
pos.Value;
break; // We have found an obstacle to avoid
}
// Check if we are in pursuit and compute pursuit steering
var pursuitSteering = float3.zero;
if (target.TargetLocked)
{
pursuitSteering = math.normalizesafe(target.TargetPosition - pos.Value) * boid.PursuitWeight;
}
// Combine all steering factors and decide which one to use
var targetSteering = math.normalizesafe(movement.Target - pos.Value) * boid.TargetWeight;
var alignmentSteering = math.normalizesafe(alignmentVec) * boid.AlignmentWeight;
var cohesionSteering = math.normalizesafe(cohesionPos - pos.Value) * boid.CohesionWeight;
var separationSteering = math.normalizesafe(separationVec) * boid.SeparationWeight;
var normalHeading = math.normalizesafe(targetSteering + alignmentSteering + cohesionSteering +
separationSteering + pursuitSteering);
var targetHeading = avoidObstacle ? avoidanceHeading : normalHeading;
// Setting a new heading (shifted towards target heading)
movement.Heading = math.normalizesafe(movement.Heading +
deltaTime * boid.SteeringSpeed *
(targetHeading - movement.Heading));
}).ScheduleParallel();
protected override void OnUpdate()
{
var quadrantMultiHashMap = quadrantMultiHashMap2;
float deltaTime = Time.DeltaTime;
var ecb = m_EndSimulationEcbSystem.CreateCommandBuffer().ToConcurrent();
NativeArray <long> localInfectedCounter = new NativeArray <long>(1, Allocator.TempJob);
localInfectedCounter[0] = 0;
NativeArray <long> localTotalInfectedCounter = new NativeArray <long>(1, Allocator.TempJob);
localTotalInfectedCounter[0] = 0;
NativeArray <long> localSymptomaticCounter = new NativeArray <long>(1, Allocator.TempJob);
localSymptomaticCounter[0] = 0;
NativeArray <long> localAsymptomaticCounter = new NativeArray <long>(1, Allocator.TempJob);
localAsymptomaticCounter[0] = 0;
NativeArray <long> localDeathCounter = new NativeArray <long>(1, Allocator.TempJob);
localDeathCounter[0] = 0;
NativeArray <long> localRecoveredCounter = new NativeArray <long>(1, Allocator.TempJob);
localRecoveredCounter[0] = 0;
NativeArray <long> localTotalRecoveredCounter = new NativeArray <long>(1, Allocator.TempJob);
localTotalRecoveredCounter[0] = 0;
//job -> each element, if not infected, check if there are infected in its same quadrant
var jobHandle = Entities.ForEach((Entity entity, int nativeThreadIndex, Translation t, ref QuadrantEntity qe, ref HumanComponent humanComponent, ref InfectionComponent ic) => {
//for non infected entities, a check in the direct neighbours is done for checking the presence of infected
if (ic.status == Status.susceptible)
{
//not infected-> look for infected in same cell
int hashMapKey = QuadrantSystem.GetPositionHashMapKey(t.Value);
//Debug.Log("Infected false");
QuadrantData quadrantData;
NativeMultiHashMapIterator <int> nativeMultiHashMapIterator;
if (quadrantMultiHashMap.TryGetFirstValue(hashMapKey, out quadrantData, out nativeMultiHashMapIterator))
{
//cycle through all entries oh hashmap with the same Key
do
{
//Debug.Log(quadrantData.position);
if (math.distance(t.Value, quadrantData.position) < 2f)
{
//TODO consider also social resp other human involved
//increment infectionCounter if one/more infected are in close positions (infected at quadrantData.position)
//infection counter is determined by time and human responsibility
ic.contagionCounter += 1f * deltaTime * (1 - humanComponent.socialResposibility);
}
//TODO we could add a cap here to speed up the check
} while (quadrantMultiHashMap.TryGetNextValue(out quadrantData, ref nativeMultiHashMapIterator));
}
else
{
//no infected in same cell -> human is safe
ic.contagionCounter = 0f;
}
}
//infection happened
if (ic.contagionCounter >= contagionThreshold && ic.status == Status.susceptible)
{
//human become infected
unsafe {
Interlocked.Increment(ref ((long *)localInfectedCounter.GetUnsafePtr())[0]);
Interlocked.Increment(ref ((long *)localTotalInfectedCounter.GetUnsafePtr())[0]);
}
qe.typeEnum = QuadrantEntity.TypeEnum.exposed;
ic.status = Status.exposed;
ic.exposedCounter = 0;
}
//Infectious status -> symptoms vs non-symptoms
if (ic.exposedCounter > ic.exposedThreshold && ic.status == Status.exposed)
{
qe.typeEnum = QuadrantEntity.TypeEnum.infectious;
ic.status = Status.infectious;
ic.infected = true;
if (ic.humanSymptomsProbability > (100 - ic.globalSymptomsProbability))
{
//symptomatic -> lasts between 0.5 and 1.5 day
ic.symptomatic = true;
unsafe
{
Interlocked.Increment(ref ((long *)localSymptomaticCounter.GetUnsafePtr())[0]);
}
ic.infectiousCounter = 0;
}
else
{
//asymptomatic
ic.symptomatic = false;
unsafe
{
Interlocked.Increment(ref ((long *)localAsymptomaticCounter.GetUnsafePtr())[0]);
}
ic.infectiousCounter = 0;
}
}
if (ic.infectiousCounter > ic.infectiousThreshold && ic.status == Status.infectious)
{
if (ic.humanDeathProbability > (100 - ic.globalDeathProbability))
{
//remove entity
unsafe
{
Interlocked.Increment(ref ((long *)localDeathCounter.GetUnsafePtr())[0]);
Interlocked.Decrement(ref ((long *)localInfectedCounter.GetUnsafePtr())[0]);
}
if (ic.symptomatic)
{
unsafe
{
Interlocked.Decrement(ref ((long *)localSymptomaticCounter.GetUnsafePtr())[0]);
}
}
else
{
unsafe
{
Interlocked.Decrement(ref ((long *)localAsymptomaticCounter.GetUnsafePtr())[0]);
}
}
ic.status = Status.removed;
qe.typeEnum = QuadrantEntity.TypeEnum.removed;
ecb.DestroyEntity(nativeThreadIndex, entity);
}
else
{
//recovery time set up
unsafe {
Interlocked.Decrement(ref ((long *)localInfectedCounter.GetUnsafePtr())[0]);
Interlocked.Increment(ref ((long *)localRecoveredCounter.GetUnsafePtr())[0]);
Interlocked.Increment(ref ((long *)localTotalRecoveredCounter.GetUnsafePtr())[0]);
}
if (ic.symptomatic)
{
unsafe
{
Interlocked.Decrement(ref ((long *)localSymptomaticCounter.GetUnsafePtr())[0]);
}
}
else
{
unsafe
{
Interlocked.Decrement(ref ((long *)localAsymptomaticCounter.GetUnsafePtr())[0]);
}
}
ic.status = Status.recovered;
ic.infected = false;
//qe.typeEnum = QuadrantEntity.TypeEnum.recovered;
ic.recoveredCounter = 0;
}
}
if (ic.recoveredCounter > ic.recoveredThreshold && ic.status == Status.recovered)
{
ic.status = Status.susceptible;
qe.typeEnum = QuadrantEntity.TypeEnum.susceptible;
unsafe {
Interlocked.Decrement(ref ((long *)localRecoveredCounter.GetUnsafePtr())[0]);
}
}
if (ic.status == Status.exposed)
{
ic.exposedCounter += 1f * deltaTime;
}
if (ic.status == Status.infectious)
{
ic.infectiousCounter += 1f * deltaTime;
}
if (ic.status == Status.recovered)
{
ic.recoveredCounter += 1f * deltaTime;
}
}).WithReadOnly(quadrantMultiHashMap).ScheduleParallel(Dependency);
m_EndSimulationEcbSystem.AddJobHandleForProducer(jobHandle);
this.Dependency = jobHandle;
jobHandle.Complete();
unsafe {
Interlocked.Add(ref infectedCounter, Interlocked.Read(ref ((long *)localInfectedCounter.GetUnsafePtr())[0]));
Interlocked.Add(ref totalInfectedCounter, Interlocked.Read(ref ((long *)localTotalInfectedCounter.GetUnsafePtr())[0]));
Interlocked.Add(ref symptomaticCounter, Interlocked.Read(ref ((long *)localSymptomaticCounter.GetUnsafePtr())[0]));
Interlocked.Add(ref asymptomaticCounter, Interlocked.Read(ref ((long *)localAsymptomaticCounter.GetUnsafePtr())[0]));
Interlocked.Add(ref recoveredCounter, Interlocked.Read(ref ((long *)localRecoveredCounter.GetUnsafePtr())[0]));
Interlocked.Add(ref deathCounter, Interlocked.Read(ref ((long *)localDeathCounter.GetUnsafePtr())[0]));
Interlocked.Add(ref populationCounter, -Interlocked.Read(ref ((long *)localDeathCounter.GetUnsafePtr())[0]));
}
//Write some text to the test.txt file
writer.WriteLine(Interlocked.Read(ref populationCounter) + "\t"
+ Interlocked.Read(ref infectedCounter) + "\t"
+ Interlocked.Read(ref totalInfectedCounter) + "\t"
+ Interlocked.Read(ref symptomaticCounter) + "\t"
+ Interlocked.Read(ref asymptomaticCounter) + "\t"
+ Interlocked.Read(ref deathCounter) + "\t"
+ Interlocked.Read(ref recoveredCounter) + "\t"
+ Interlocked.Read(ref totalRecoveredCounter) + "\t"
+ (int)Datetime.total_minutes);
localInfectedCounter.Dispose();
localTotalInfectedCounter.Dispose();
localAsymptomaticCounter.Dispose();
localSymptomaticCounter.Dispose();
localRecoveredCounter.Dispose();
localTotalRecoveredCounter.Dispose();
localDeathCounter.Dispose();
}
protected override void OnCreate()
{
endSimulationEntityCommandBuffer = World.GetOrCreateSystem <EndSimulationEntityCommandBufferSystem>();
quadrantSystem = World.GetOrCreateSystem <QuadrantSystem>();
base.OnCreate();
}
// todo: maybe intelligent ones should avoid not only the blockers but also each other?
public void Execute([ReadOnly] ref Translation translation, [ReadOnly] ref TargetComponent target, ref MovementComponent movement)
{
int hashKey = QuadrantSystem.GetPositionHashMapKey(translation.Value);
float3 dir = new float3(0, 0, -1);
float closestDis = 1000f;
float3 closestPos = float3(10000f, 1000f, 1000f);
bool bFoundPotentialThreat = false;
if (BlockerMap.TryGetFirstValue(hashKey, out var data, out var it))
{
float zombieX = translation.Value.x;
do
{
// todo: maybe you should first find the closest target first and then determine if it's worth avoiding
// are you close enough to care?
float furthestRight = data.position.x + data.width / 2 + 2f;
float furthestLeft = data.position.x - data.width / 2 - 2f;
if (zombieX < furthestLeft || zombieX > furthestRight)
{
continue;
}
float disSq = distancesq(translation.Value, data.position);
if (disSq > closestDis)
{
continue;
}
closestDis = disSq;
closestPos = data.position;
bFoundPotentialThreat = true;
} while (BlockerMap.TryGetNextValue(out data, ref it));
}
if (!bFoundPotentialThreat)
{
movement.defaultDirection = dir;
// todo: cause an irrational movement
return;
}
if (closestDis > 150f)
{
movement.defaultDirection = dir;
return;
}
// yes avoid
float3 vFromAiToBlocker = normalize(closestPos - translation.Value);
float dotProd = dot(dir, vFromAiToBlocker);
// is it behind?
if (dotProd < 0f)
{
movement.defaultDirection = dir;
return;
}
// detect if to the left or to the right
float3 right = new float3(1, 0, 0);
float side = dot(right, vFromAiToBlocker);
if (side > 0f)
{
// to the right, go left
movement.defaultDirection.x -= ((movement.direction.x - 0.1) < -1) ? 0 : 0.1f;
movement.defaultDirection.z += ((movement.direction.z + 0.1) > 0) ? 0 : 0.1f;
return;
}
// to the left, go right
movement.defaultDirection.x += ((movement.direction.x + 0.1) > 1) ? 0 : 0.1f;
movement.defaultDirection.z += ((movement.direction.z + 0.1) > 0) ? 0 : 0.1f;
}
protected override JobHandle OnUpdate(JobHandle inputDeps)
{
//NativeQueue<CrashInfo> destroyedPlanetoidsQueue = new NativeQueue<CrashInfo>(Allocator.TempJob);
EntityQuery entityQuery = GetEntityQuery(typeof(Planetoid));
NativeArray <Planetoid> planetoids = entityQuery.ToComponentDataArray <Planetoid>(Allocator.TempJob);
NativeArray <int> keys = QuadrantSystem.quadrantMultiHashMap.GetKeyArray(Allocator.TempJob);
NativeArray <JobHandle> jobHandles = new NativeArray <JobHandle>(keys.Length, Allocator.TempJob);
for (int i = 0; i < keys.Length; i++)
{
NativeArray <EntityWithProps> entityWithPropsArray = new NativeArray <EntityWithProps>(QuadrantSystem.GetEntityCountInQuadrant(QuadrantSystem.quadrantMultiHashMap, keys[i]), Allocator.TempJob);
SortPositionsJob sortPositionsJob = new SortPositionsJob
{
quadrantMultiHashMap = QuadrantSystem.quadrantMultiHashMap,
entityWithPropsArray = entityWithPropsArray,
realtimeSinceStartUp = Time.realtimeSinceStartup,
planetoids = planetoids,
keys = keys,
index = i
};
jobHandles[i] = sortPositionsJob.Schedule();
}
JobHandle job = JobHandle.CombineDependencies(jobHandles);
JobHandle.CompleteAll(jobHandles);
jobHandles.Dispose();
keys.Dispose();
//destroyedPlanetoidsQueue.Dispose();
DisableJob disableJob = new DisableJob
{
entityCommandBuffer = endSimulationEntityCommandBufferSystem.CreateCommandBuffer().ToConcurrent()
};
JobHandle jobHandle = disableJob.Schedule(this, job);//TODO try job handles combine
endSimulationEntityCommandBufferSystem.AddJobHandleForProducer(jobHandle);
AddTranslationJob addTranslationJob = new AddTranslationJob
{
seed = UnityEngine.Random.Range(1, 1000000),
realTimeSinceStartUp = Time.realtimeSinceStartup,
entityCommandBuffer = endPresentationSimulationEntityCommandBufferSystem.CreateCommandBuffer().ToConcurrent(),
cameraMaxLeftDown = Camera.main.ViewportToWorldPoint(new Vector3(0, 0)),
cameraMaxRightUp = Camera.main.ViewportToWorldPoint(new Vector3(1, 1))
};
jobHandle = addTranslationJob.Schedule(this, jobHandle);
endPresentationSimulationEntityCommandBufferSystem.AddJobHandleForProducer(jobHandle);
return(jobHandle);
}
public void Execute(ref Translation translation, ref Scale scale, ref ProjectileComponentData projectileData, ref ProjectileCollisionComponentData processData, ref VelocityComponentData velocity)
{
if (processData.colisionTimeOut > 0)
{
processData.colisionTimeOut -= deltaTime;
return;
}
if (processData.maxHitCount <= 0)
{
return;
}
var projectileMoved = velocity.value.x != 0 || velocity.value.y != 0;
var projectileStopsRightNow = !projectileMoved && projectileData.itStopsRightNow;
if (processData.detectTime == ProjectileCollisionComponentData.DetectCillisionTime.WHEN_MOVE && !projectileMoved)
{
return;
}
else if (processData.detectTime == ProjectileCollisionComponentData.DetectCillisionTime.WHEN_STOPS && (projectileMoved || !projectileStopsRightNow))
{
return;
}
processData.processData.direction = projectileData.previousProjectilePosition.ToF2().GetDirectionTo(translation.Value);
processData.processData.direction.y = 0;
var radius = processData.collisionRadius;
if (radius <= 0)
{
radius = 0.5f;
}
radius *= scale.Value;
var radSqr = radius * radius;
QuadrantSystem.GuadrantIterator qiterator;
if (QuadrantSystem.TryGetFirstQuadrantInRadius(translation.Value, radius, out qiterator))
{
do
{
var key = QuadrantSystem.GetHashKeyByQuadrant(qiterator.quadrant);
//получаем все энтити в квадранте
QuadrantSystem.QuadrandEntityData qdata;
NativeMultiHashMapIterator <int> iterator;
if (quadrantMap.TryGetFirstValue(key, out qdata, out iterator))
{
do
{
if (processData.maxHitCount <= 0)
{
break;
}
//ну и проверяем на столкновение и создаём RegisteredHitData
var hit = false;
if (projectileMoved)
{
hit = ANU.Utils.Math.IsSegmentIntersectsPoint(
projectileData.previousProjectilePosition.ToF2(),
translation.Value.ToF2(),
qdata.position.ToF2(),
radius
);
}
else
{
hit = math.distancesq(translation.Value.ToF2(), qdata.position.ToF2()) <= radSqr;
}
//если попал и попал не в своего
if (hit && (processData.ownerFaction == FactionComponentData.Faction.NEUTRAL || processData.ownerFaction != qdata.faction))
{
registegedHits.TryAdd(
qdata.entity,
new RegisteredHitData()
{
entity = qdata.entity,
processData = new ProcessProjectileCollisionTag()
{
hittedByProjectile = true,
processData = processData.processData
}
}
);
processData.maxHitCount--;
}
} while (quadrantMap.TryGetNextValue(out qdata, ref iterator));
}
} while (QuadrantSystem.TryGetNextQuadrantInRadius(ref qiterator));
}
}
