public void Execute([ReadOnly] ref Translation pos, [ReadOnly] ref Rotation rot, ref Move move)
{
//射线查询
float3 dirNormal = Math.normalize(Math.mul(rot.Value, new float3(0, 0, 1)));
RaycastInput input = new RaycastInput()
{
Ray = new Ray()
{
Origin = pos.Value + dirNormal,
Direction = dirNormal * 1.1f
},
Filter = new CollisionFilter()
{
CategoryBits = ~0u, // all 1s, so all layers, collide with everything
MaskBits = ~0u,
GroupIndex = 0
}
};
RaycastHit hit = new RaycastHit();
if (World.CastRay(input, out hit))
{
move.isHit = 1;
}
else
{
move.isHit = 0;
}
//检测碰撞，重设目标，移动。
if (move.isHit == 0)
{
if (Math.distancesq(move.targetPos, pos.Value) < 0.01)
{
move.targetPos = GetRandomTarget();
rot.Value = quaternion.LookRotation(move.targetPos - pos.Value, new float3(0, 1, 0));
}
#region 加速度
if (move.speed < move.maxSpeed)
{
move.speed += move.acceleratioin * time;
}
pos.Value += Math.normalize(move.targetPos - pos.Value) * move.speed * time;
#endregion
}
else //碰到障碍，右转180度/秒
{
move.speed = 0; //减速
move.targetPos = math.rotate(quaternion.AxisAngle(new float3(0, 1, 0), (float)math.PI * time), (move.targetPos - pos.Value)) + pos.Value;
rot.Value = quaternion.LookRotation(move.targetPos - pos.Value, new float3(0, 1, 0));
}
}
// skip the turrets where we still reload
// raycast currently hits itself. if raycast is shot outwards shoudnt it skip itself?
// A could be 1) to add turret diameter/extend to Target to RaycastInput Start or 2) make the
// turret itself not have a collider
// TODO: turret range in Turret Component
int GetClosestTarget(float3 position, float turretRange)
{
float curClosestDist = turretRange;
int curIndex = -1;
int extend = (int)(turretRange / cellRadius) + 1;
var boidDictIndex = math.floor(position / cellRadius);
for (int z = -extend; z <= extend; z++)
{
for (int y = -extend; y <= extend; y++)
{
for (int x = -extend; x <= extend; x++)
{
var hash = (int)math.hash(new int3(boidDictIndex + new int3(x, y, z)));
NativeMultiHashMapIterator <int> i;
if (boidDict.TryGetFirstValue(hash, out int item, out i))
{
float dst = math.distance(boidPosition[item], position);
if (dst < curClosestDist)
{
var raycastInput = new RaycastInput {
Start = position,
End = boidPosition[item],
Filter = CollisionFilter.Default
};
if (!physicsWorld.CastRay(raycastInput))
{
curClosestDist = dst;
curIndex = item;
}
}
while (boidDict.TryGetNextValue(out item, ref i))
{
dst = math.distance(boidPosition[item], position);
if (dst < curClosestDist)
{
var raycastInput = new RaycastInput {
Start = position,
End = boidPosition[item],
Filter = CollisionFilter.Default
};
if (!physicsWorld.CastRay(raycastInput))
{
curClosestDist = dst;
curIndex = item;
}
}
}
}
}
}
}
return(curIndex);
}
public void Execute()
{
if (CollectAllHits)
{
World.CastRay(RaycastInput, ref RaycastHits);
}
else if (World.CastRay(RaycastInput, out RaycastHit hit))
{
RaycastHits.Add(hit);
}
}
static void HandleCompletePath(ComponentDataFromEntity <LocalToWorld> localToWorldFromEntity, Entity entity, Rotation rotation, ref NavAgent agent, Parent surface, Translation translation, PhysicsWorld physicsWorld, float elapsedSeconds, EntityCommandBuffer.ParallelWriter commandBuffer, int entityInQueryIndex, NavSettings settings)
{
var rayInput = new RaycastInput
{
Start = localToWorldFromEntity[entity].Position + agent.Offset,
End = math.forward(rotation.Value) * settings.ObstacleRaycastDistanceMax,
Filter = new CollisionFilter
{
BelongsTo = NavUtil.ToBitMask(settings.ColliderLayer),
CollidesWith = NavUtil.ToBitMask(settings.ObstacleLayer)
}
};
if (
!surface.Value.Equals(agent.DestinationSurface) &&
!NavUtil.ApproxEquals(translation.Value, agent.LocalDestination, settings.StoppingDistance) &&
!physicsWorld.CastRay(rayInput, out _)
)
{
agent.JumpSeconds = elapsedSeconds;
commandBuffer.RemoveComponent <NavWalking>(entityInQueryIndex, entity);
commandBuffer.RemoveComponent <NavSteering>(entityInQueryIndex, entity);
commandBuffer.AddComponent <NavJumping>(entityInQueryIndex, entity);
commandBuffer.AddComponent <NavPlanning>(entityInQueryIndex, entity);
return;
}
commandBuffer.RemoveComponent <NavWalking>(entityInQueryIndex, entity);
commandBuffer.RemoveComponent <NavSteering>(entityInQueryIndex, entity);
commandBuffer.RemoveComponent <NavDestination>(entityInQueryIndex, entity);
}
public void Raycast_Against_RotatedBox_Test(
[Values(0f, 10f, -20f, 30f, 40f)] float startX,
[Values(0f, -10f, 30f, -50f, 70f)] float startY)
{
// Simulate the physics.
SimulatePhysics();
var aabb = RotatedBox.Aabb;
Assert.IsTrue(startX < aabb.Min.x);
var start = new float2(startX, startY);
var expectedPosition = new float2(aabb.Min.x + RayEpsilon, 0f);
// Set-up the query.
var input = new RaycastInput
{
Start = start,
End = expectedPosition,
Filter = CollisionFilter.Default
};
// Perform the query.
var results = PhysicsWorld.CastRay(input, out RaycastHit hit);
Assert.IsTrue(results);
Assert.IsTrue(hit.PhysicsBodyIndex != PhysicsBody.Constants.InvalidBodyIndex, "PhysicsBody Index is Invalid.");
Assert.AreEqual(hit.Entity, RotatedBox.Entity, "Entity is invalid.");
PhysicsAssert.AreEqual(expectedPosition, hit.Position, QueryEpsilon, "Hit position is incorrect.");
}
// Update is called once per frame
void LateUpdate()
{
if (!enabled)
{
return;
}
Vector3 newPositionFrom = (LookFrom == null) ? gameObject.transform.position : LookFrom.transform.position;
Vector3 newPositionTo = Vector3.forward;
if (LookTo == null)
{
newPositionTo = gameObject.transform.rotation * newPositionTo;
}
else
{
newPositionTo = LookTo.transform.position;
}
PhysicsWorld world = World.Active.GetExistingManager <BuildPhysicsWorld>().PhysicsWorld;
// check barrier
{
var rayInput = new RaycastInput
{
Ray = { Origin = newPositionFrom, Direction = newPositionTo - newPositionFrom },
Filter = CollisionFilter.Default
};
if (world.CastRay(rayInput, out RaycastHit rayResult))
{
newPositionFrom = rayResult.Position;
}
}
if (Target != null)
{
// add velocity
var em = World.Active.GetOrCreateManager <EntityManager>();
var e = Target.GetComponent <GameObjectEntity>();
if ((em != null) && (e != null) && (e.Entity != Entity.Null))
{
Vector3 lv = world.GetLinearVelocity(world.GetRigidBodyIndex(e.Entity));
lv *= Time.fixedDeltaTime;
newPositionFrom += lv;
newPositionTo += lv;
}
}
newPositionFrom = Vector3.Lerp(gameObject.transform.position, newPositionFrom, LookFromInterpolateFactor);
newPositionTo = Vector3.Lerp(oldPositionTo, newPositionTo, LookToInterpolateFactor);
Vector3 newForward = newPositionTo - newPositionFrom;
newForward.Normalize();
Quaternion newRotation = Quaternion.LookRotation(newForward, Vector3.up);
gameObject.transform.SetPositionAndRotation(newPositionFrom, newRotation);
oldPositionTo = newPositionTo;
}
/// <summary>
/// 射线查询
/// </summary>
/// <param name="origin"></param>
/// <param name="dir"></param>
/// <returns></returns>
int RayCast(float3 origin, float3 dir)
{
RaycastInput input = new RaycastInput()
{
Ray = new Ray()
{
Origin = origin,
Direction = dir
},
Filter = new CollisionFilter()
{
CategoryBits = ~0u, // all 1s, so all layers, collide with everything
MaskBits = ~0u,
GroupIndex = 0
}
};
RaycastHit hit = new RaycastHit();
if (World.CastRay(input, out hit))
{
return(1);
}
else
{
return(0);
}
}
public void Execute(Entity entity, int index, [ReadOnly] ref Bullet bullet, ref Translation translation, [ReadOnly] ref Rotation rotation)
{
var nextPosition = new Translation {
Value = translation.Value + dt * bullet.moveSpeed * math.forward(rotation.Value)
};
CollisionFilter collisionFilter = new CollisionFilter()
{
BelongsTo = ~0u,
CollidesWith = ~0u,
GroupIndex = 0
};
RaycastInput raycastInput = new RaycastInput {
Start = translation.Value,
End = nextPosition.Value,
Filter = collisionFilter
};
if (physicsWorld.CastRay(raycastInput, out RaycastHit hit))
{
Entity targetEntity = physicsWorld.CollisionWorld.Bodies[hit.RigidBodyIndex].Entity;
var hash = (int)math.hash(new int2(targetEntity.Index, targetEntity.Version));
damageDict.Add(hash, bullet.damage);
commandBuffer.DestroyEntity(index, entity);
}
translation = nextPosition;
}
public void Execute(int index)
{
var entity = Entitys[index];
var pp = pps[entity];
var wbc = wbcs[entity];
var localToWorld = localToWorlds[entity];
var wbi = wbis[entity];
wbi.MaxLength = wbc.RestLength + wbc.SpringTravel;
wbi.MinLength = wbc.RestLength - wbc.SpringTravel;
var rbID = physicsWorld.GetRigidBodyIndex(pp.Value);
var filter = physicsWorld.GetCollisionFilter(rbID);
RaycastInput input = new RaycastInput
{
Start = localToWorld.Position,
End = localToWorld.Position + localToWorld.Up * wbi.MaxLength * -1,
Filter = filter
};
if (!physicsWorld.CastRay(input, out var hit))
{
return;
}
wbi.LastLength = wbi.SpringLength;
wbi.SpringLength = math.distance(input.Start, input.End) * hit.Fraction;
wbi.SpringLength = math.clamp(wbi.SpringLength, wbi.MinLength, wbi.MaxLength);
wbi.SpringVelocity = (wbi.LastLength - wbi.SpringLength) / time;
wbi.SpringForce = wbc.SpringStiffness * (wbc.RestLength - wbi.SpringLength);
wbi.DamperForce = wbc.DamperStiffness * wbi.SpringVelocity;
wbi.SuspensionForce = (wbi.SpringForce + wbi.DamperForce) * localToWorld.Up;
// if ((wbi.SpringForce + wbi.DamperForce) < 0)
// {
// wbi.SuspensionForce = float3.zero;
// }
TmpDatas[index] = (new tmpData()
{
entity = entity,
wbi = wbi,
parentID = rbID,
LocalToWorld = localToWorld,
parentEntity = pp.Value,
hit = hit
});
}
public void Execute()
{
var raycastInput = new RaycastInput
{
Start = transData.Value,
End = transData.Value + math.forward(rotData.Value) * laserData.distance,
Filter = CollisionFilter.Default
};
if (collectAll)
{
physWorld.CastRay(raycastInput, ref raycastHits);
}
else
{
if (physWorld.CastRay(raycastInput, out Unity.Physics.RaycastHit hit))
{
raycastHits.Add(hit);
}
}
}
private static void FullUpdate(ref Translation position, ref Rotation rotation, ref BoidData boid, NativeArray <BoidData> boidsData,
float agentNeighbourDistance, float agentAvoidDistance, float3 goalPos, float deltaTime,
float minSpeed, float maxSpeed, Bounds bounds, uint baseSeed, float avoidCollidersDistance, PhysicsWorld world)
{
float3 direction = float3.zero;
float3 forward = math.forward(rotation.Value);
bool turning;
RaycastInput rayInput = new RaycastInput
{
Start = boid.CurrentPosition,
End = boid.CurrentPosition + avoidCollidersDistance * forward,
Filter = CollisionFilter.Default
};
if (!bounds.Contains(boid.CurrentPosition)) //handle getting out of bounds
{
turning = true;
direction = (float3)bounds.center - boid.CurrentPosition;
}
else if (world.CastRay(rayInput, out Unity.Physics.RaycastHit hit))
{
turning = true;
direction = (float3)Vector3.Reflect(forward, hit.SurfaceNormal);
}
else
{
turning = false;
}
if (turning) //adjust path if needed
{
rotation.Value = math.slerp(rotation.Value, quaternion.LookRotation(direction, new float3(0, 1, 0)), boid.RotationSpeed * deltaTime);
}
else //random direction or direction calculated based on the flocking rules
{
Unity.Mathematics.Random rand = new Unity.Mathematics.Random(baseSeed + boid.Index);
if (rand.NextInt(0, 100) < 10)
{
boid.Speed = rand.NextFloat(minSpeed, maxSpeed);
}
if (rand.NextInt(0, 100) < 20)
{
ApplyBoidRules(ref boid, ref rotation, boidsData, agentNeighbourDistance, agentAvoidDistance, goalPos, deltaTime);
}
}
//move agent forward, along its direction
position.Value += boid.Speed * math.forward(rotation.Value) * deltaTime;
boid.CurrentPosition = position.Value;
}
public bool CheckRay(float3 pos, float3 targetDir, ref float3 currentDir)
{
if (targetDir.Equals(-currentDir))
{
//don't let enemy do an abrupt 180
return(true);
}
var ray = new RaycastInput()
{
Start = pos,
End = pos + (targetDir * 0.9f),
Filter = new CollisionFilter()
{
GroupIndex = 0,
BelongsTo = 1u << 1, //bitmasks, so using bitshifts
CollidesWith = 1u << 2
}
};
var hit = pw.CastRay(ray, out Unity.Physics.RaycastHit closestHit);
return(hit); // ? math.length((closestHit.Position - pos)) : null;
}
public bool CheckRay(float3 pos, float3 direction, float3 currentDirection)
{
if (direction.Equals(-currentDirection))
{
return(true);
}
var ray = new RaycastInput
{
Start = pos,
End = pos + direction * .9f,
Filter = new CollisionFilter
{
GroupIndex = 0,
BelongsTo = 1u << 1,
CollidesWith = 1u << 2
}
};
var ret = pw.CastRay(ray);
return(pw.CastRay(ray));
}
public void Execute([ReadOnly] ref CharacterMovementData movementData, [ReadOnly] ref CharacterInputData inputs, ref Rotation rotation, [ReadOnly] ref Translation translation)
{
if (physicsWorld.CastRay(input, out var hit))
{
float3 hitPos = new float3(hit.Position.x, translation.Value.y, hit.Position.z);
var target = quaternion.LookRotationSafe(math.normalize(hitPos - translation.Value), math.up());
var newRot = new Rotation()
{
Value = math.slerp(rotation.Value, target, 1f - math.exp(-movementData.rotationSharpness * deltaTime * movementData.rotationSpeed))
};
rotation = newRot;
}
}
void Update()
{
if (Input.GetMouseButtonDown(0))
{
Ray ray = Camera.ScreenPointToRay(Input.mousePosition);
var world = World.DefaultGameObjectInjectionWorld;
PhysicsWorld physicsWorld = world.GetExistingSystem <BuildPhysicsWorld>().PhysicsWorld;
var raycastInput = new RaycastInput
{
Start = ray.origin,
End = ray.origin + ray.direction * int.MaxValue,
Filter = CollisionFilter.Default
};
if (!physicsWorld.CastRay(raycastInput, out var result))
{
return;
}
EntityManager manager = world.EntityManager;
//Search path
var buffer = manager.GetBuffer <PathBufferElement>(DOTSLocator.AgentEntity);
var pathData = manager.GetComponentData <FollowPathData>(DOTSLocator.AgentEntity);
if (pathData.PathStatus == PathStatus.EndOfPathReached)
{
buffer.Clear();
manager.SetComponentData(DOTSLocator.AgentEntity, new FollowPathData {
PathIndex = 0, PathStatus = PathStatus.Calculated
});
}
var translation = manager.GetComponentData <Translation>(DOTSLocator.AgentEntity);
var requestEntity = manager.CreateEntity();
manager.AddComponentData(requestEntity, new NavMeshPathfindingRequestData
{
Start = translation.Value,
Destination = result.Position,
Status = PathSearchStatus.Requested,
Agent = DOTSLocator.AgentEntity,
Extents = Vector3.one * 2,
AgentTypeId = 0
});
}
}
public void Execute([ReadOnly] ref Translation pos, [ReadOnly] ref Rotation rot, ref Move move)
{
float3 dirNormal = Math.normalize(Math.mul(rot.Value, new float3(0, 0, 1)));
RaycastInput input = new RaycastInput()
{
Ray = new Ray()
{
Origin = pos.Value + dirNormal * 0.51f,
Direction = dirNormal * 1.1f
},
Filter = new CollisionFilter()
{
CategoryBits = ~0u, // all 1s, so all layers, collide with everything
MaskBits = ~0u,
GroupIndex = 0
}
};
RaycastHit hit = new RaycastHit();
if (World.CastRay(input, out hit))
{
// see hit.Position
move.isHit = 1;
// Debug.Log(hit.Position);
}
else
{
move.isHit = 0;
}
//检测碰撞，重设目标，移动。
if (move.isHit == 0)
{
if (Math.distancesq(move.targetPos, pos.Value) < 0.01)
{
move.targetPos = GetRandomTarget();
rot.Value = quaternion.LookRotation(move.targetPos - pos.Value, new float3(0, 1, 0));
}
pos.Value += Math.normalize(move.targetPos - pos.Value) * time;
}
else
{
move.targetPos = GetRandomTarget();
rot.Value = quaternion.LookRotation(move.targetPos - pos.Value, new float3(0, 1, 0));
}
}
public void Execute()
{
for (int i = 0; i < Projectiles.Length; i++)
{
CollisionFilter filter = CollisionFilter.Default;
filter.CollidesWith = 4;
RaycastInput raycastInput = new RaycastInput
{
Start = Projectiles[i].PreviousPosition,
End = ProjectileTranslations[i].Value,
Filter = filter
};
MaxHitsCollector <RaycastHit> collector = new MaxHitsCollector <RaycastHit>(1.0f, ref RaycastHits);
if (PhysicsWorld.CastRay(raycastInput, ref collector))
{
if (collector.NumHits > 0)
{
RaycastHit closestHit = new RaycastHit();
closestHit.Fraction = 2f;
for (int j = 0; j < collector.NumHits; j++)
{
if (RaycastHits[j].Fraction < closestHit.Fraction)
{
closestHit = RaycastHits[j];
}
}
// Apply damage to hit rigidbody/collider
Entity hitEntity = PhysicsWorld.Bodies[closestHit.RigidBodyIndex].Entity;
if (HealthsFromEntity.Exists(hitEntity))
{
Health h = HealthsFromEntity[hitEntity];
h.Value -= Projectiles[i].Damage;
HealthsFromEntity[hitEntity] = h;
}
// Destroy projectile
entityCommandBuffer.DestroyEntity(ProjectileEntities[i]);
}
}
}
}
public bool CheckRay(float3 position, float3 direction, float3 currentDirection)
{
if (direction.Equals(-currentDirection))
{
return(true);
}
var ray = new RaycastInput()
{
Start = position,
End = position + direction * DistanceDelta,
Filter = new CollisionFilter()
{
GroupIndex = 0,
BelongsTo = 1u << 1,
CollidesWith = 1u << 2
}
};
return(PhysicsWorld.CastRay(ray));
}
/// <summary>Extension method for PhysicsWorld, checking for a valid
/// position by raycasting onto the surface layer from the passed
/// position. Returns true if the raycast is successful and a position
/// via out.</summary>
public static bool GetPointOnSurfaceLayer(this PhysicsWorld physicsWorld, LocalToWorld localToWorld, float3 position, out float3 pointOnSurface)
{
var rayInput = new RaycastInput()
{
Start = position + localToWorld.Up * NavConstants.OBSTACLE_RAYCAST_DISTANCE_MAX,
End = position - localToWorld.Up * NavConstants.OBSTACLE_RAYCAST_DISTANCE_MAX,
Filter = new CollisionFilter()
{
BelongsTo = ToBitMask(NavConstants.COLLIDER_LAYER),
CollidesWith = ToBitMask(NavConstants.SURFACE_LAYER)
}
};
pointOnSurface = float3.zero;
if (physicsWorld.CastRay(rayInput, out var hit))
{
pointOnSurface = hit.Position;
return(true);
}
return(false);
}
public bool CheckRay(float3 position, float3 direction, float3 currentDirection)
{
if (direction.Equals(-currentDirection))
{
return(true);
}
RaycastInput ray = new RaycastInput()
{
Start = position,
End = position + (direction) * 0.9f,
Filter = new CollisionFilter()
{
BelongsTo = 1u << 1,
CollidesWith = 1u << 2,
GroupIndex = 0
}
};
return(physicsWorld.CastRay(ray));
}
public void Execute()
{
var raycastInput = new RaycastInput
{
Start = input[0].RaycastStart,
End = input[0].RaycastEnd,
Filter = new CollisionFilter
{
BelongsTo = 1 << 8,
CollidesWith = (1 << 4) | (1 << 0),
GroupIndex = 0
}
};
physicsWorld.CastRay(raycastInput, out Unity.Physics.RaycastHit closestHit);
output[0] = new Output
{
Visible = (closestHit.RigidBodyIndex == physicsWorld.GetRigidBodyIndex(input[0].TargetEntity))
};
}
public bool RaycastCheck(float3 position, float3 direction, float3 currentDirection)
{
if (direction.Equals(-currentDirection))
{
return(true);
}
var ray = new RaycastInput()
{
Start = position,
End = position + (direction * 0.9f),
Filter = new CollisionFilter()
{
GroupIndex = 0,
BelongsTo = 1u << 1,
CollidesWith = 1u << 2
}
};
return(pw.CastRay(ray));
}
public bool GetInputPos(out float3 resultPos)
{
resultPos = new float3(0, 0, 0);
Ray ray = Camera.ScreenPointToRay(Input.mousePosition);
var world = World.DefaultGameObjectInjectionWorld;
PhysicsWorld physicsWorld = world.GetExistingSystem <BuildPhysicsWorld>().PhysicsWorld;
var raycastInput = new RaycastInput
{
Start = ray.origin,
End = ray.origin + ray.direction * int.MaxValue,
Filter = CollisionFilter.Default
};
if (!physicsWorld.CastRay(raycastInput, out var result))
{
return(false);
}
resultPos = result.Position;
return(true);
}
private Entity Raycast(float3 fromPosition, float3 toPosition)
{
PhysicsWorld physicsWorld = World.DefaultGameObjectInjectionWorld.GetExistingSystem <BuildPhysicsWorld>().PhysicsWorld;
RaycastInput raycastInput = new RaycastInput()
{
Start = fromPosition,
End = toPosition,
Filter = CollisionFilter.Default
};
Unity.Physics.RaycastHit raycastHit;
if (physicsWorld.CastRay(raycastInput, out raycastHit))
{
Entity hitEntity = raycastHit.Entity;
return(hitEntity);
}
else
{
return(Entity.Null);
}
}
/// <summary>Extension method for PhysicsWorld, checking for a valid
/// position by raycasting onto the surface layer from the passed
/// position. Returns true if the raycast is successful and a position
/// via out.</summary>
public static bool GetPointOnSurfaceLayer(this PhysicsWorld physicsWorld, LocalToWorld localToWorld, float3 position, out float3 pointOnSurface, float obstacleRaycastDistanceMax, int colliderLayer, int surfaceLayer)
{
var rayInput = new RaycastInput()
{
Start = position + localToWorld.Up * obstacleRaycastDistanceMax,
End = position - localToWorld.Up * obstacleRaycastDistanceMax,
Filter = new CollisionFilter()
{
BelongsTo = ToBitMask(colliderLayer),
CollidesWith = ToBitMask(surfaceLayer)
}
};
pointOnSurface = float3.zero;
if (physicsWorld.CastRay(rayInput, out var hit))
{
pointOnSurface = hit.Position;
return(true);
}
return(false);
}
protected override void OnUpdate()
{
RaycastHit rayCastInfos;
PhysicsWorld pw = physicSystem.PhysicsWorld;
//Get Player InputsComponents
InputComponent input = entityManager.GetComponentData <InputComponent>(GameVariables.Player.Entity);
//Create ray cast
UnityEngine.Ray camRay = GameVariables.MainCamera.ScreenPointToRay(input.Mouse);
RaycastInput rayInfo = new RaycastInput
{
Start = camRay.origin,
End = camRay.GetPoint(2000),
Filter = new CollisionFilter
{
BelongsTo = 1u << 31,
CollidesWith = 1u << 30,
GroupIndex = 0
}
};
//Create TargetData
TargetData target = new TargetData();
//Do ray cast
if (pw.CastRay(rayInfo, out rayCastInfos))
{
var newPos = rayCastInfos.Position;
newPos.x += 0.5f;
newPos.y = 0f;
target.Value = newPos;
}
//Set Player new TargetData
entityManager.SetComponentData(GameVariables.Player.Entity, target);
}
private void HandleUserInput(CharacterControllerComponentData ccComponentData, float3 up, float3 surfaceVelocity, float3 position, quaternion rotation,
ref CharacterControllerInternalData ccInternalData, ref float3 linearVelocity)
{
// Reset jumping state and unsupported velocity
if (ccInternalData.SupportedState == CharacterSupportState.Supported)
{
ccInternalData.IsJumping = false;
ccInternalData.UnsupportedVelocity = float3.zero;
}
// Movement and jumping
bool shouldJump = false;
float3 requestedMovementDirection = float3.zero;
{
float3 forward = math.forward(quaternion.identity);
float3 right = math.cross(up, forward);
float horizontal = ccInternalData.Input.Movement.x;
float vertical = ccInternalData.Input.Movement.y;
bool jumpRequested = ccInternalData.Input.Jumped > 0;
bool haveInput = (math.abs(horizontal) > float.Epsilon) || (math.abs(vertical) > float.Epsilon);
if (haveInput)
{
float3 localSpaceMovement = forward * vertical + right * horizontal;
float3 worldSpaceMovement = math.rotate(quaternion.AxisAngle(up, ccInternalData.CurrentRotationAngle), localSpaceMovement);
requestedMovementDirection = math.normalize(worldSpaceMovement);
}
shouldJump = jumpRequested && ccInternalData.SupportedState == CharacterSupportState.Supported;
}
// Turning
{
var raycastInput = new RaycastInput
{
Start = cameraWorldPoint,
End = cameraWorldPoint + new float3(0, -20f, 0f),
Filter = new CollisionFilter()
{
BelongsTo = ~0u,
CollidesWith = 1u << 5,
GroupIndex = 0
}
};
if (!PhysicsWorld.CastRay(raycastInput, out var hit))
{
return;
}
var playerToMouse = hit.Position - position;
playerToMouse.y = 0f;
playerToMouse = math.normalize(playerToMouse);
var forward = math.mul(rotation, new float3(0, 0, 1));
var angle = MathHelper.SignedAngle(forward, playerToMouse, new float3(0, 1, 0));
var horizontal = math.clamp(math.remap(-180f, 180f, -ccComponentData.RotationSpeed, ccComponentData.RotationSpeed, angle), -1f, 1f);
var haveInput = (math.abs(horizontal) > 0.01f);
if (haveInput)
{
ccInternalData.CurrentRotationAngle += horizontal * ccComponentData.RotationSpeed * DeltaTime;
}
}
// Apply input velocities
{
if (shouldJump)
{
// Add jump speed to surface velocity and make character unsupported
ccInternalData.IsJumping = true;
ccInternalData.SupportedState = CharacterSupportState.Unsupported;
ccInternalData.UnsupportedVelocity = surfaceVelocity + ccComponentData.JumpUpwardsSpeed * up;
}
else if (ccInternalData.SupportedState != CharacterSupportState.Supported)
{
// Apply gravity
ccInternalData.UnsupportedVelocity += ccComponentData.Gravity * DeltaTime;
}
// If unsupported then keep jump and surface momentum
linearVelocity = requestedMovementDirection * ccComponentData.MovementSpeed +
(ccInternalData.SupportedState != CharacterSupportState.Supported ? ccInternalData.UnsupportedVelocity : float3.zero);
}
}
protected override unsafe void OnUpdate()
{
Entities.ForEach(
(ref CharacterControllerBody ccBodyComponentData,
ref PhysicsCollider collider,
ref PhysicsVelocity velocity,
ref Translation position,
ref Rotation rotation) =>
{
float3 up = math.up();
ref PhysicsWorld world = ref World.Active.GetExistingSystem <BuildPhysicsWorld>().PhysicsWorld;
// movement and firing
{
float x = Input.GetAxis("Horizontal");
float z = Input.GetAxis("Vertical");
ccBodyComponentData.IsJumping = Input.GetButtonDown("Jump") && ccBodyComponentData.IsSupported;
bool haveInput = (Mathf.Abs(x) > Mathf.Epsilon) || (Mathf.Abs(z) > Mathf.Epsilon);
if (!haveInput)
{
ccBodyComponentData.MovementVector = float3.zero;
}
else
{
float3 movement = math.rotate(quaternion.RotateY(ccBodyComponentData.RotationAngle), new float3(x, 0, z));
ccBodyComponentData.MovementVector = math.normalize(movement);
}
if ((ccBodyComponentData.GunArmEntity != Entity.Null) && EntityManager.HasComponent <Rotation>(ccBodyComponentData.GunArmEntity))
{
float a = -Input.GetAxis("ShootY");
Rotation gunRot = EntityManager.GetComponentData <Rotation>(ccBodyComponentData.GunArmEntity);
gunRot.Value = math.mul(gunRot.Value, quaternion.Euler(math.radians(a), 0, 0));
EntityManager.SetComponentData(ccBodyComponentData.GunArmEntity, gunRot);
if (EntityManager.HasComponent <PhysicsGun>(ccBodyComponentData.GunArmEntity))
{
var gunFire = EntityManager.GetComponentData <PhysicsGun>(ccBodyComponentData.GunArmEntity);
gunFire.isFiring = Input.GetButton("Fire1")? 1 : 0;
EntityManager.SetComponentData(ccBodyComponentData.GunArmEntity, gunFire);
}
}
}
// Rotate
{
float x = Input.GetAxis("ShootX");
bool haveInput = (Mathf.Abs(x) > Mathf.Epsilon);
if (haveInput)
{
ccBodyComponentData.RotationAngle += x * ccBodyComponentData.RotationSpeed * Time.deltaTime;
}
rotation.Value = quaternion.AxisAngle(math.up(), ccBodyComponentData.RotationAngle);
}
// check supported
{
float3 rayStart = position.Value;
float3 rayEnd = rayStart + (ccBodyComponentData.CharacterHeight * -math.up());
float3 rayDir = rayEnd - rayStart; // math.normalize(rayEnd - rayStart);
var rayInput = new RaycastInput();
rayInput.Ray.Origin = rayStart;
rayInput.Ray.Direction = rayDir;
rayInput.Filter = collider.Value.Value.Filter;
Unity.Physics.RaycastHit rayHit;
bool hit = (world.CastRay(rayInput, out rayHit) && rayHit.SurfaceNormal.y > 0.5);
if (ccBodyComponentData.IsSupported && !hit)
{
ccBodyComponentData.InitialUnsupportedVelocity = velocity.Linear;
}
ccBodyComponentData.IsSupported = hit;
}
// tweak velocity
//this.MovementVector = new float3(1, 0, 0);
//this.IsJumping = true;
{
float3 lv = velocity.Linear;
lv *= ccBodyComponentData.MovementDamping;
bool bHaveMovement = ccBodyComponentData.IsJumping || (math.lengthsq(ccBodyComponentData.MovementVector) > (ccBodyComponentData.DeadZone * ccBodyComponentData.DeadZone));
if (bHaveMovement)
{
float y = lv.y;
if (ccBodyComponentData.IsSupported)
{
lv = ccBodyComponentData.MovementSpeed * ccBodyComponentData.MovementVector;
lv.y = y;
if (ccBodyComponentData.IsJumping)
{
lv.y += ccBodyComponentData.JumpSpeed;
ccBodyComponentData.IsJumping = false;
}
}
else
{
ccBodyComponentData.InitialUnsupportedVelocity *= ccBodyComponentData.MovementDamping;
ccBodyComponentData.InitialUnsupportedVelocity.y = y;
lv = ccBodyComponentData.InitialUnsupportedVelocity + (ccBodyComponentData.MovementSpeed * ccBodyComponentData.MovementVector);
}
}
velocity.Linear = lv;
velocity.Angular = float3.zero;
}
}); // ForEach
protected override void OnUpdate()
{
var commandBuffer = new EntityCommandBuffer(Allocator.TempJob);
Entities
.WithName("InitializeCameraOldPositionsJob")
.WithBurst()
.WithNone <Initialized>()
.ForEach((Entity entity, ref CameraSmoothTrackSettings cameraSmoothTrack, in LocalToWorld localToWorld) =>
{
commandBuffer.AddComponent <Initialized>(entity);
cameraSmoothTrack.OldPositionTo = HasComponent <LocalToWorld>(cameraSmoothTrack.LookTo)
? GetComponent <LocalToWorld>(cameraSmoothTrack.LookTo).Position
: localToWorld.Position + new float3(0f, 0f, 1f);
}).Run();
commandBuffer.Playback(EntityManager);
commandBuffer.Dispose();
PhysicsWorld world = m_BuildPhysicsWorld.PhysicsWorld;
var timestep = (float)m_RecordMostRecentFixedTime.MostRecentDeltaTime;
var timeAhead = Time.DeltaTime / timestep;
Entities
.WithName("SmoothlyTrackCameraTargetsJob")
.WithoutBurst()
.WithAll <Initialized>()
.WithReadOnly(world)
.ForEach((CameraSmoothTrack monoBehaviour, ref CameraSmoothTrackSettings cameraSmoothTrack, in LocalToWorld localToWorld) =>
{
var worldPosition = (float3)monoBehaviour.transform.position;
float3 newPositionFrom = HasComponent <LocalToWorld>(cameraSmoothTrack.LookFrom)
? GetComponent <LocalToWorld>(cameraSmoothTrack.LookFrom).Position
: worldPosition;
float3 newPositionTo = HasComponent <LocalToWorld>(cameraSmoothTrack.LookTo)
? GetComponent <LocalToWorld>(cameraSmoothTrack.LookTo).Position
: worldPosition + localToWorld.Forward;
// check barrier
var rayInput = new RaycastInput
{
Start = newPositionFrom,
End = newPositionTo,
Filter = CollisionFilter.Default
};
if (world.CastRay(rayInput, out RaycastHit rayResult))
{
newPositionFrom = rayResult.Position;
}
if (cameraSmoothTrack.Target != Entity.Null)
{
// add velocity
float3 lv = world.GetLinearVelocity(world.GetRigidBodyIndex(cameraSmoothTrack.Target));
lv *= timeAhead;
newPositionFrom += lv;
newPositionTo += lv;
}
newPositionFrom = math.lerp(worldPosition, newPositionFrom, cameraSmoothTrack.LookFromInterpolateFactor);
newPositionTo = math.lerp(cameraSmoothTrack.OldPositionTo, newPositionTo, cameraSmoothTrack.LookToInteroplateFactor);
float3 newForward = newPositionTo - newPositionFrom;
newForward = math.normalizesafe(newForward);
quaternion newRotation = quaternion.LookRotation(newForward, math.up());
monoBehaviour.transform.SetPositionAndRotation(newPositionFrom, newRotation);
cameraSmoothTrack.OldPositionTo = newPositionTo;
}).Run();
}
/// <summary>Gets a point on a navigable surface (either the current surface or a jumpable one) for the provided agent entity via the out hit parameter. Returns true if there is a navigable surface, false if not.</summary>
public static bool GetPointOnNavigableSurface(Vector3 point, Entity agentEntity, Camera cam, PhysicsWorld physicsWorld, float raycastDistance, EntityManager entityManager, CollisionFilter filter, out Unity.Physics.RaycastHit hit)
{
var screenPointToRay = cam.ScreenPointToRay(point);
var rayInput = new RaycastInput
{
Start = screenPointToRay.origin,
End = screenPointToRay.GetPoint(raycastDistance),
Filter = filter
};
if (!physicsWorld.CastRay(rayInput, out hit) || hit.RigidBodyIndex == -1)
{
return(false);
}
if (!NavMesh.SamplePosition(hit.Position, out var navMeshHit, 1, NavMesh.AllAreas))
{
return(false);
}
var hitSurfaceEntity = physicsWorld.Bodies[hit.RigidBodyIndex].Entity;
if (hitSurfaceEntity == Entity.Null)
{
return(false);
}
if (!entityManager.HasComponent <Parent>(agentEntity))
{
return(false);
}
var surfaceEntity = entityManager.GetComponentData <Parent>(agentEntity).Value;
if (surfaceEntity == Entity.Null)
{
return(false);
}
if (surfaceEntity == hitSurfaceEntity)
{
return(true);
}
if (!entityManager.HasComponent <NavJumpableBufferElement>(surfaceEntity))
{
return(false);
}
var jumpableSurfaces = entityManager.GetBuffer <NavJumpableBufferElement>(surfaceEntity);
for (var i = 0; i < jumpableSurfaces.Length; ++i)
{
if (hitSurfaceEntity == jumpableSurfaces[i])
{
return(true);
}
}
return(false);
}