// Calculate where the enemy should move based on player position and nearby enemies
private void CalculateMovement()
{
var selfPosition = transform.position;
var selfVector = new Vector2(selfPosition.x, selfPosition.y);
var playerPosition = _player.transform.position;
var targetVector = new Vector2(playerPosition.x, playerPosition.y) - selfVector;
targetVector.Normalize();
targetVector *= DefaultSpeed * Time.fixedDeltaTime;
// Distance self from other enemies
var enemies = GameObject.FindGameObjectsWithTag("Enemy");
var force = Vector2.zero;
foreach (var enemy in enemies)
{
if (enemy == this.gameObject)
{
continue;
}
var position = enemy.transform.position;
var enemyVector = new Vector2(position.x, position.y);
var deltaVector = selfVector - enemyVector;
if (deltaVector.magnitude > 10f)
{
continue;
}
// Avoid 0 issues by adding random offset
if (Math.Abs(deltaVector.magnitude) < 0.001)
{
enemy.transform.position += new Vector3(
UnityEngine.Random.Range(1, 2) / 1000f,
UnityEngine.Random.Range(1, 2) / 1000f,
0);
deltaVector = selfVector - enemyVector;
}
force += 0.1f / (deltaVector.magnitude * deltaVector.magnitude) * deltaVector;
}
targetVector += force;
var topSpeed = TopSpeed;
var speed = Math.Min(targetVector.magnitude, topSpeed);
targetVector.Normalize();
targetVector.Scale(new Vector2(speed, speed));
if (float.IsNaN(targetVector.x) || float.IsNaN(targetVector.y))
{
return;
}
transform.position += new Vector3(targetVector.x, targetVector.y, 0);
}
void FixedUpdate()
{
float moveHorz = Input.GetAxis("Horizontal"); //Gets "A" or "D" inputs
float moveVert = Input.GetAxis("Vertical"); //Gets "W" or "S" inputs
Vector2 movement = new Vector2(moveHorz, moveVert);
movement.Normalize();
rb2d.AddForce(movement * speed); //Pushes the play object
if (Input.GetMouseButtonDown(0)) //Checks to see if mouse is being clicked and if it hasn't been thrown
{
if (currWeapon.Equals(boomerangPrefab) && !thrown)
{
throwBoomerang();
}
else if (currWeapon.Equals(swordPrefab) && !swung)
{
swordAttack();
}
}
if (Input.GetKeyDown(KeyCode.Alpha2))
{
currWeapon = boomerangPrefab;
}
else if (Input.GetKeyDown(KeyCode.Alpha1))
{
currWeapon = swordPrefab;
}
}
void FixedUpdate()
{
//if (PushOnce)
//{
// Vector2 randomDir = new Vector2(Random.Range(-1.0f, 1.0f), Random.Range(-1.0f, 1.0f));
// randomDir.Normalize();
// _rb2D.AddForce(randomDir * Time.fixedDeltaTime * 100.0f, ForceMode2D.Impulse);
// pushOnce = false;
//}
Vector2 normVel = _rb2D.velocity.normalized;
if ((Mathf.Abs(normVel.x) != 1.0f && Mathf.Abs(normVel.y) != 1.0f))
{
if (normVel.magnitude == 0.0f && _initiallyHit)
{
Vector2 newDir = new Vector2(14.5f - transform.position.x, 10.5f - transform.position.y);
newDir.Normalize();
_rb2D.AddForce(newDir * Time.fixedDeltaTime * 50.0f, ForceMode2D.Impulse);
}
_lastDirectionChangeTime = Time.time;
}
//cap the velocity magnitude
_rb2D.velocity = Vector2.ClampMagnitude(_rb2D.velocity, MaxSpeed);
}
public void CmdSpawnBullet(Vector3 finalSpawnPosition, Vector2 dir)
{
GameObject go = Instantiate(bulletPrefab, finalSpawnPosition, bulletPrefab.transform.rotation) as GameObject;
var bul = go.GetComponent<Net>();
dir.Normalize();
bul.Initialize(dir, firePower);
NetworkServer.Spawn(go);
}
private void run()
{
if (checkDistance() <= _control.Settings.DistanceToRun)
{
_direction = _control.transform.position - _control.Settings.Monster.transform.position;
_direction.Normalize();
}
}
public static Vector2 Truncate(Vector2 v, float magnitude)
{
if (v.sqrMagnitude > magnitude * magnitude)
{
v.Normalize();
v *= magnitude;
}
return(v);
}
private void SetTrajectory(Vector2 startPosition, Vector3 targetPosition)
{
_transform.position = new Vector3(startPosition.x, startPosition.y + Gate_To_Player_Vertical_Offset, _transform.position.z);
_targetPosition = new Vector3(targetPosition.x, targetPosition.y + Gate_To_Player_Vertical_Offset);
Vector2 trajectory = new Vector2(targetPosition.x - startPosition.x, targetPosition.y - startPosition.y);
trajectory.Normalize();
_rigidBody2D.velocity = trajectory * Movement_Speed;
}
private void UpdateMovementOnKeyboardInput()
{
Vector2 movementInput = new Vector2(Input.GetAxisRaw("Horizontal"), Input.GetAxisRaw("Vertical"));
movementInput.Normalize();
Vector3 velocity = (transform.forward * movementInput.y + transform.right * movementInput.x) * _movementSpeed;
_characterController.Move(velocity * Time.deltaTime);
}
// Start is called before the first frame update
void Start()
{
state = MovementState.IDLE;
rb = GetComponent <Rigidbody2D>();
//anim = GetComponent<Animator>();
sprite = GetComponent <SpriteRenderer>();
wallJumpDirection.Normalize();
gravityScale = rb.gravityScale;
dashChargeHoldMax += dashChargeTimeMax;
}
void AttackOnPlayer()
{
if (Time.time >= nextShoot) {
nextShoot = Time.time + fireRate;
GameObject go = Instantiate (EnemyBullet, transform.position, transform.rotation) as GameObject;
//go.transform.SetParent(gameObject.transform);
Vector2 toTarget = new Vector2 (target.position.x - transform.position.x, target.position.y - transform.position.y);
toTarget.Normalize ();
go.GetComponent<Rigidbody2D> ().AddForce (toTarget * 20000, ForceMode2D.Force);
}
}
/** Reads public properties and stores them in internal fields.
* This is required because multithreading is used and if another script
* updated the fields at the same time as this class used them in another thread
* weird things could happen.
*
* Will also set CalculatedTargetPoint and CalculatedSpeed to the result
* which was last calculated.
*/
public void BufferSwitch()
{
// <== Read public properties
radius = Radius;
height = Height;
maxSpeed = nextMaxSpeed;
desiredSpeed = nextDesiredSpeed;
agentTimeHorizon = AgentTimeHorizon;
obstacleTimeHorizon = ObstacleTimeHorizon;
maxNeighbours = MaxNeighbours;
// Manually controlled overrides the agent being locked
// (if one for some reason uses them at the same time)
locked = Locked && !manuallyControlled;
position = Position;
elevationCoordinate = ElevationCoordinate;
collidesWith = CollidesWith;
layer = Layer;
if (locked)
{
// Locked agents do not move at all
desiredTargetPointInVelocitySpace = position;
desiredVelocity = currentVelocity = Vector2.zero;
}
else
{
desiredTargetPointInVelocitySpace = nextTargetPoint - position;
// Estimate our current velocity
// This is necessary because other agents need to know
// how this agent is moving to be able to avoid it
currentVelocity = (CalculatedTargetPoint - position).normalized * CalculatedSpeed;
// Calculate the desired velocity from the point we want to reach
desiredVelocity = desiredTargetPointInVelocitySpace.normalized * desiredSpeed;
if (collisionNormal != Vector2.zero)
{
collisionNormal.Normalize();
var dot = Vector2.Dot(currentVelocity, collisionNormal);
// Check if the velocity is going into the wall
if (dot < 0)
{
// If so: remove that component from the velocity
currentVelocity -= collisionNormal * dot;
}
// Clear the normal
collisionNormal = Vector2.zero;
}
}
}
static bool Vector2_Normalize(JSVCall vc, int argc)
{
int len = argc;
if (len == 0)
{
UnityEngine.Vector2 argThis = (UnityEngine.Vector2)vc.csObj; argThis.Normalize();
JSMgr.changeJSObj(vc.jsObjID, argThis);
}
return(true);
}
static public int Normalize(IntPtr l)
{
try{
UnityEngine.Vector2 self = (UnityEngine.Vector2)checkSelf(l);
self.Normalize();
setBack(l, self);
return(0);
}
catch (Exception e) {
LuaDLL.luaL_error(l, e.ToString());
return(0);
}
}
static int Normalize(IntPtr L)
{
try
{
ToLua.CheckArgsCount(L, 1);
UnityEngine.Vector2 obj = (UnityEngine.Vector2)ToLua.CheckObject(L, 1, typeof(UnityEngine.Vector2));
obj.Normalize();
ToLua.SetBack(L, 1, obj);
return(0);
}
catch (Exception e)
{
return(LuaDLL.toluaL_exception(L, e));
}
}
/// <summary>
/// Finds the direction to get from currentVector to nextVector.
/// </summary>
/// <param name="currentVector">The current position.</param>
/// <param name="nextVector">The position to get to.</param>
/// <param name="normalized">Whether or not the return result should be normalized.</param>
/// <returns>The normalized vector2 pointing where to go to get to nextVector from currentVector, or "Vector2.zero" if the two points are equal..</returns>
static public Vector2 FindDirection(Vector2 currentVector, Vector2 nextVector)
{
if (currentVector == nextVector)
{
return(Vector2.zero);
}
Vector2 returnVector = nextVector - currentVector;
if (true && returnVector != Vector2.zero)
{
returnVector.Normalize();
}
return(returnVector);
}
public void PlayerMovesAtNormalizedSpeedWhenMovingDiagonal()
{
//Arrange
inputHelper.mockAxisRaw = new Vector2 (1, 1);
//Act
testHelper.Update(testObject);
//Assert
Vector2 expectedResult = new Vector2 (1, 1);
expectedResult.Normalize ();
expectedResult = expectedResult * testObject.movementSpeed;
var rb = testObject.GetComponent<Rigidbody2D> ();
Assert.AreEqual (expectedResult, rb.velocity);
}
public void PlayerMovesAtNormalizedSpeedWhenMovingDiagonal()
{
//Arrange
inputHelper.mockAxisRaw = new Vector2 (1, 1);
inputHelper.customDeltaTime = 1.0f;
//Act
testHelper.Update(testObject);
//Assert
Vector2 expectedResult = new Vector2 (1, 1);
expectedResult.Normalize ();
expectedResult = expectedResult * testObject.movementSpeed;
Assert.AreEqual (new Vector3(expectedResult.x, expectedResult.y, 0), testObject.transform.position);
}
public void CastSkill()
{
castingSkill = true;
//cast skill with target is player
Vector3 difference = player.position - base.transform.position;
float distance = difference.magnitude;
Vector2 direction = difference / distance;
direction.Normalize();
GameObject skill = Instantiate(skillPrefab) as GameObject;
skill.transform.position = skillStart.transform.position;
skill.GetComponent <Rigidbody2D>().velocity = direction * skillSpeed;
canCastSkill = false;
}
private void Move(float horizontalSpeed, float verticalSpeed)
{
_horizontalSpeed = horizontalSpeed;
_verticalSpeed = verticalSpeed;
var move = new Vector2(_horizontalSpeed, _verticalSpeed);
if (!Mathf.Approximately(move.x, 0.0f) || !Mathf.Approximately(move.y, 0.0f))
{
_lookDirection.Set(move.x, move.y);
_lookDirection.Normalize();
}
_animator.SetFloat(AnimationPropertyLookX, _lookDirection.x);
_animator.SetFloat(AnimationPropertyLookY, _lookDirection.y);
_animator.SetFloat(AnimationPropertySpeed, move.magnitude);
}
public static Vector2 Clamp(Vector2 v, float minValue, float maxValue)
{
if (v.sqrMagnitude > maxValue * maxValue)
{
v.Normalize();
v *= maxValue;
return(v);
}
if (v.sqrMagnitude < minValue * minValue)
{
v.Normalize();
v *= minValue;
return(v);
}
return(v);
}
public float getAngleOfVector(Vector2 vector)
{
Vector2 newVector = new Vector2(vector.x, -vector.y);
newVector.Normalize();
float angle = (float)Math.Acos(newVector.y);
if (newVector.x < 0.0f)
{
angle = -angle;
angle += Angles.DEG_360;
}
if (float.IsNaN(angle))
{
return 0.0f;
}
return angle;
}
public void OnCollisionStay2D()
{
var enemyPosition = new Vector3 (10, 10, 0);
collider2D.transform.position = enemyPosition;
var damageToDeal = 20.0f;
testObject.damageToDeal = damageToDeal;
var yourPosition = new Vector3(9, 9, 0);
testObject.transform.position = yourPosition;
//Act
testHelper.OnCollisionStay2D (testObject, collider2D);
//Assert
var expectedKnockbackDir = (enemyPosition - yourPosition);
var expectedKnockbackDir2D = new Vector2 (expectedKnockbackDir.x, expectedKnockbackDir.y);
expectedKnockbackDir2D.Normalize ();
Assert.AreEqual (expectedKnockbackDir2D, playerMovement.KnockedBackDirection);
Assert.AreEqual (damageToDeal, playerStatus.DamageDelt);
}
/// <summary>
/// tests if ray intersects AABB
/// </summary>
/// <param name="aabb"></param>
/// <returns></returns>
public static bool RayCastAABB(AABB aabb, Vector2 p1, Vector2 p2)
{
AABB segmentAABB = new AABB();
{
VectorMath.Min(ref p1, ref p2, out segmentAABB.LowerBound);
VectorMath.Max(ref p1, ref p2, out segmentAABB.UpperBound);
}
if (!AABB.TestOverlap(aabb, segmentAABB))
{
return(false);
}
Vector2 rayDir = p2 - p1;
Vector2 rayPos = p1;
Vector2 norm = new Vector2(-rayDir.y, rayDir.x); //normal to ray
if (norm.magnitude == 0.0)
{
return(true); //if ray is just a point, return true (iff point is within aabb, as tested earlier)
}
norm.Normalize();
float dPos = Vector2.Dot(rayPos, norm);
Vector2[] verts = aabb.GetVertices();
float d0 = Vector2.Dot(verts[0], norm) - dPos;
for (int i = 1; i < 4; i++)
{
float d = Vector2.Dot(verts[i], norm) - dPos;
if (Math.Sign(d) != Math.Sign(d0))
{
//return true if the ray splits the vertices (ie: sign of dot products with normal are not all same)
return(true);
}
}
return(false);
}
public bool MovingInSameDirection(float tolerance)
{
if (Count < 2)
{
return(true);
}
float minDOT = UnityEngine.Mathf.Max(0.1f, 1.0f - tolerance);
UnityEngine.Vector2 refDir = this[0].Position - this[0].StartPosition;
refDir.Normalize();
for (int i = 1; i < Count; ++i)
{
UnityEngine.Vector2 dir = this[i].Position - this[i].StartPosition;
dir.Normalize();
if (UnityEngine.Vector2.Dot(refDir, dir) < minDOT)
{
return(false);
}
}
return(true);
}
public Vector2 TransformToPosition(Vector2 position)
{
position.x = Mathf.Clamp(position.x, _paddedZone.xMin, _paddedZone.xMax) - _paddedZone.xMin - (_paddedZone.width / 2.0f);
position.y = Mathf.Clamp(position.y, _paddedZone.yMin, _paddedZone.yMax) - _paddedZone.yMin - (_paddedZone.height / 2.0f);
position.x = (2.0f * position.x) / _paddedZone.width;
position.y = (2.0f * position.y) / _paddedZone.height;
if (normalize && position.magnitude > 1.0f)
position.Normalize();
if (useMotionCurve) {
position.x *= motionCurve.Evaluate(Mathf.Abs(position.x));
position.y *= motionCurve.Evaluate(Mathf.Abs(position.y));
}
if (Mathf.Abs(position.x) < 0.01f)
position.x = 0.0f;
if (Mathf.Abs(position.y) < 0.01f)
position.y = 0.0f;
return position;
}
public override Vector2 Compute()
{
//The jitter is time dependent
float jitter = wanderJitter * Time.deltaTime;
wanderTarget += Random.insideUnitCircle * jitter;
wanderTarget.Normalize();
wanderTarget *= wanderRadius;
Vector3 localTarget = wanderTarget + new Vector2(0.0f, wanderDistance);
//Gets the world position of the target
trick.transform.localPosition = localTarget;
Vector3 worldTarget = trick.transform.position;
//Trying to build a transformation matrix from local to world
//Matrix4x4 transform = Matrix4x4.TRS(
// agent.transform.position,
// Quaternion.LookRotation(agent.transform.up, agent.transform.right),
// Vector3.one);
//target = transform.MultiplyVector(target);
Debug.DrawLine(Vector2.zero, worldTarget);
return worldTarget - agent.transform.position;
}
void Start()
{
waterTiles.Clear ();
Nplus1 = N+1;
waterTilesMax = (m_numGridsX * m_numGridsZ);
m_fourier = new FourierCPU(N);
m_windDirection = new Vector2(m_windSpeed.x, m_windSpeed.y);
m_windDirection.Normalize();
m_dispersionTable = new float[Nplus1*Nplus1];
for (int m_prime = 0; m_prime < Nplus1; m_prime++)
{
for (int n_prime = 0; n_prime < Nplus1; n_prime++)
{
int index = m_prime * Nplus1 + n_prime;
m_dispersionTable[index] = Dispersion(n_prime,m_prime);
}
}
m_heightBuffer = new Vector2[2,N*N];
m_slopeBuffer = new Vector4[2,N*N];
m_displacementBuffer = new Vector4[2,N*N];
m_spectrum = new Vector2[Nplus1*Nplus1];
m_spectrum_conj = new Vector2[Nplus1*Nplus1];
m_position = new Vector3[Nplus1*Nplus1];
m_vertices = new Vector3[Nplus1*Nplus1];
m_normals = new Vector3[Nplus1*Nplus1];
m_mesh = MakeMesh(Nplus1);
//m_mesh.Optimize();
m_oceanGrid = new GameObject[m_numGridsX*m_numGridsZ];
if (waterTiles.Count < (m_numGridsX * m_numGridsZ)) {
for (int x = 0; x < m_numGridsX; x++) {
for (int z = 0; z < m_numGridsZ; z++) {
int idx = x + z * m_numGridsX;
m_oceanGrid [idx] = new GameObject ("Ocean grid " + idx.ToString ());
m_oceanGrid [idx].AddComponent<MeshFilter> ();
m_oceanGrid [idx].AddComponent<MeshRenderer> ();
m_oceanGrid [idx].GetComponent<Renderer> ().material = m_mat;
m_oceanGrid [idx].GetComponent<MeshFilter> ().mesh = m_mesh;
m_oceanGrid [idx].transform.Translate (new Vector3 (x * m_length - m_numGridsX * m_length / 2, 0.0f, z * m_length - m_numGridsZ * m_length / 2));
m_oceanGrid [idx].transform.parent = this.transform;
waterTiles.Add (m_oceanGrid [idx]);
m_oceanGrid [idx].transform.position = new Vector3 (m_oceanGrid [idx].transform.position.x + m_oceanGrid [idx].transform.parent.position.x, m_oceanGrid [idx].transform.position.y + m_oceanGrid [idx].transform.parent.position.y, m_oceanGrid [idx].transform.position.z + m_oceanGrid [idx].transform.parent.position.z);
m_oceanGrid [idx].AddComponent<MeshCollider>();
}
}
}
UnityEngine.Random.seed = 0;
Vector3[] vertices = m_mesh.vertices;
for (int m_prime = 0; m_prime < Nplus1; m_prime++)
{
for (int n_prime = 0; n_prime < Nplus1; n_prime++)
{
int index = m_prime * Nplus1 + n_prime;
m_spectrum[index] = GetSpectrum( n_prime, m_prime);
m_spectrum_conj[index] = GetSpectrum(-n_prime, -m_prime);
m_spectrum_conj[index].y *= -1.0f;
m_position[index].x = vertices[index].x = n_prime * m_length/N;
m_position[index].y = vertices[index].y = 0.0f;
m_position[index].z = vertices[index].z = m_prime * m_length/N;
}
}
m_mesh.vertices = vertices;
m_mesh.RecalculateBounds();
CreateFresnelLookUp();
}
/// <summary>
/// Gets the spectrum vaule for grid position n,m.
/// </summary>
float PhillipsSpectrum(int n_prime, int m_prime)
{
Vector2 k = new Vector2(Mathf.PI * (2 * n_prime - N) / m_length, Mathf.PI * (2 * m_prime - N) / m_length);
float k_length = k.magnitude;
if (k_length < 0.000001f) return 0.0f;
float k_length2 = k_length * k_length;
float k_length4 = k_length2 * k_length2;
k.Normalize();
float k_dot_w = Vector2.Dot(k, m_windDirection);
float k_dot_w2 = k_dot_w * k_dot_w * k_dot_w * k_dot_w * k_dot_w * k_dot_w;
float w_length = m_windSpeed.magnitude;
float L = w_length * w_length / GRAVITY;
float L2 = L * L;
float damping = 0.001f;
float l2 = L2 * damping * damping;
return m_waveAmp * Mathf.Exp(-1.0f / (k_length2 * L2)) / k_length4 * k_dot_w2 * Mathf.Exp(-k_length2 * l2);
}
public virtual void OnDrag(PointerEventData eventData)
{
// Unity remote multitouch related thing
// When we feed fake PointerEventData we can't really provide a camera,
// it has a lot of private setters via not created objects, so even the Reflection magic won't help a lot here
// Instead, we just provide an actual event camera as a public property so we can easily set it in the Input Helper class
CurrentEventCamera = eventData.pressEventCamera ?? CurrentEventCamera;
// We get the local position of the joystick
Vector3 worldJoystickPosition;
RectTransformUtility.ScreenPointToWorldPointInRectangle(_stickTransform, eventData.position,
CurrentEventCamera, out worldJoystickPosition);
// Then we change it's actual position so it snaps to the user's finger
_stickTransform.position = worldJoystickPosition;
// We then query it's anchored position. It's calculated internally and quite tricky to do from scratch here in C#
var stickAnchoredPosition = _stickTransform.anchoredPosition;
// Some bitwise logic for constraining the joystick along one of the axis
// If the "Both" option was selected, non of these two checks will yield "true"
if ((JoystickMoveAxis & ControlMovementDirection.Horizontal) == 0)
{
stickAnchoredPosition.x = _intermediateStickPosition.x;
}
if ((JoystickMoveAxis & ControlMovementDirection.Vertical) == 0)
{
stickAnchoredPosition.y = _intermediateStickPosition.y;
}
_stickTransform.anchoredPosition = stickAnchoredPosition;
// Find current difference between the previous central point of the joystick and it's current position
Vector2 difference = new Vector2(stickAnchoredPosition.x, stickAnchoredPosition.y) - _intermediateStickPosition;
// Normalisation stuff
var diffMagnitude = difference.magnitude;
var normalizedDifference = difference / diffMagnitude;
// If the joystick is being dragged outside of it's range
if (diffMagnitude > MovementRange)
{
if (MoveBase && SnapsToFinger)
{
// We move the base so it maps the new joystick center position
var baseMovementDifference = difference.magnitude - MovementRange;
var addition = normalizedDifference * baseMovementDifference;
_baseTransform.anchoredPosition += addition;
_intermediateStickPosition += addition;
}
else
{
_stickTransform.anchoredPosition = _intermediateStickPosition + normalizedDifference * MovementRange;
}
}
// 这种做法会导致数值丢失，当x、y都大于1时无法区分大小。弃用！
// We don't need any values that are greater than 1 or less than -1
//var horizontalValue = Mathf.Clamp(difference.x * _oneOverMovementRange, -1f, 1f);
//var verticalValue = Mathf.Clamp(difference.y * _oneOverMovementRange, -1f, 1f);
// 将最终向量标准化，保留了xy和差异和方向性
var axis = new Vector2(difference.x * _oneOverMovementRange, difference.y * _oneOverMovementRange);
axis.Normalize();
// Finally, we update our virtual axis
HorizintalAxis.Value = axis.x;
VerticalAxis.Value = axis.y;
}
private void WriteHull()
{
// Perpendicular vector
float[] lengths = { (p1 - p0).magnitude, (p2 - p1).magnitude, (p3 - p2).magnitude };
float sum = lengths.Sum();
Vector2 norm = new Vector2(length, (bottomDiameter - topDiameter) / 2f);
norm.Normalize();
WriteMeshes(
new ProfilePoint(p0.x, p0.y, 0f, Vector2.right),
new ProfilePoint(p1.x, p1.y, lengths[0] / sum, Vector2.right),
new ProfilePoint(p2.x, p2.y, (lengths[0] + lengths[1]) / sum, Vector2.right),
new ProfilePoint(p3.x, p3.y, 1f, Vector2.right)
);
}
public static Vector2 SetLengthOnAxis(this Vector2 v, Vector2 axis, float len)
{
//var n = new Vector2(-axis.y, axis.x);
//n.Normalize();
//var d = Vector2.Dot(v, n);
//v -= n * d;
//v = v.normalized * len;
//v += n * d;
//return v;
axis.Normalize();
var d = len - Vector2.Dot(v, axis);
return v + axis * d;
}
private void GetInput(out float speed)
{
// Read input
float horizontal = CrossPlatformInputManager.GetAxis("Horizontal");
float vertical = CrossPlatformInputManager.GetAxis("Vertical");
bool waswalking = m_IsWalking;
#if !MOBILE_INPUT
// On standalone builds, walk/run speed is modified by a key press.
// keep track of whether or not the character is walking or running
m_IsWalking = !CrossPlatformInputManager.GetButton("Course");
//Si le joueur marche. Il reprend de l'énergie
if(m_IsWalking && !Input.GetButton("StopRespire"))
{
m_Stamina += 5;
if(m_Stamina >= 500)
canSprint=true;
if(m_Stamina >= 1000)
m_Stamina = 1000;
}
//Sinon il court, mais il perd de l'énergie
else if(!m_IsWalking || Input.GetButton("StopRespire"))
{
m_Stamina -= 10;
if(m_Stamina < 0)
{
canSprint=false;
m_Stamina=0;
}
}
//Si il n'a pas d'energie il doit marcher
if(!canSprint)
m_IsWalking=true;
#endif
// set the desired speed to be walking or running
speed = m_IsWalking ? m_WalkSpeed : m_RunSpeed;
m_Input = new Vector2(horizontal, vertical);
// normalize input if it exceeds 1 in combined length:
if (m_Input.sqrMagnitude > 1)
{
m_Input.Normalize();
}
// handle speed change to give an fov kick
// only if the player is going to a run, is running and the fovkick is to be used
if (m_IsWalking != waswalking && m_UseFovKick && m_CharacterController.velocity.sqrMagnitude > 0)
{
StopAllCoroutines();
StartCoroutine(!m_IsWalking ? m_FovKick.FOVKickUp() : m_FovKick.FOVKickDown());
}
}
public bool RenderHUD(RenderTexture screen, float cameraAspect)
{
if (screen == null || !startupComplete || HighLogic.LoadedSceneIsEditor)
return false;
// Clear the background, if configured.
GL.Clear(true, true, backgroundColorValue);
// Configure the camera, if configured.
// MOARdV: Might be worthwhile to refactor the flying camera so
// it is created in Start (like new FlyingCamera(part, cameraTransform)),
// and pass the screen, FoV, and aspect ratio (or just screen and
// FoV) as Render parameters, so there's no need to test if the
// camera's been created every render call.
if (cameraObject == null && !string.IsNullOrEmpty(cameraTransform)) {
cameraObject = new FlyingCamera(part, screen, cameraAspect);
cameraObject.PointCamera(cameraTransform, hudFov);
}
// Draw the camera's view, if configured.
if (cameraObject != null) {
cameraObject.Render();
}
// Configure the matrix so that the origin is the center of the screen.
GL.PushMatrix();
// Draw the HUD ladder
// MOARdV note, 2014/03/19: swapping the y values, to invert the
// coordinates so the prograde icon is right-side up.
GL.LoadPixelMatrix(-horizonSize.x * 0.5f, horizonSize.x * 0.5f, horizonSize.y * 0.5f, -horizonSize.y * 0.5f);
GL.Viewport(new Rect((screen.width - horizonSize.x) * 0.5f, (screen.height - horizonSize.y) * 0.5f, horizonSize.x, horizonSize.y));
Vector3 coM = vessel.findWorldCenterOfMass();
Vector3 up = (coM - vessel.mainBody.position).normalized;
Vector3 forward = vessel.GetTransform().up;
Vector3 right = vessel.GetTransform().right;
Vector3 top = Vector3.Cross(right, forward);
Vector3 north = Vector3.Exclude(up, (vessel.mainBody.position + (Vector3d)vessel.mainBody.transform.up * vessel.mainBody.Radius) - coM).normalized;
Vector3d velocityVesselSurface = vessel.orbit.GetVel() - vessel.mainBody.getRFrmVel(coM);
Vector3 velocityVesselSurfaceUnit = velocityVesselSurface.normalized;
if (ladderMaterial) {
// Figure out the texture coordinate scaling for the ladder.
float ladderTextureOffset = horizonTextureSize.y / ladderMaterial.mainTexture.height;
float cosUp = Vector3.Dot(forward, up);
float cosRoll = Vector3.Dot(top, up);
float sinRoll = Vector3.Dot(right, up);
var normalizedRoll = new Vector2(cosRoll, sinRoll);
normalizedRoll.Normalize();
if (normalizedRoll.magnitude < 0.99f) {
// If we're hitting +/- 90 nearly perfectly, the sin and cos will
// be too far out of whack to normalize. Arbitrarily pick
// a roll of 0.0.
normalizedRoll.x = 1.0f;
normalizedRoll.y = 0.0f;
}
cosRoll = normalizedRoll.x;
sinRoll = normalizedRoll.y;
// Mihara: I'm pretty sure this was negative of what it should actually be, at least according to my mockup.
float pitch = -(Mathf.Asin(cosUp) * Mathf.Rad2Deg);
float ladderMidpointCoord;
if (use360horizon) {
// Straight up is texture coord 0.75;
// Straight down is TC 0.25;
ladderMidpointCoord = JUtil.DualLerp(0.25f, 0.75f, -90f, 90f, pitch);
} else {
// Straight up is texture coord 1.0;
// Straight down is TC 0.0;
ladderMidpointCoord = JUtil.DualLerp(0.0f, 1.0f, -90f, 90f, pitch);
}
ladderMaterial.SetPass(0);
GL.Begin(GL.QUADS);
// transform -x -y
GL.TexCoord2(0.5f + horizonTextureSize.x, ladderMidpointCoord - ladderTextureOffset);
GL.Vertex3(cosRoll * horizonSize.x + sinRoll * horizonSize.y, -sinRoll * horizonSize.x + cosRoll * horizonSize.y, 0.0f);
// transform +x -y
GL.TexCoord2(0.5f - horizonTextureSize.x, ladderMidpointCoord - ladderTextureOffset);
GL.Vertex3(-cosRoll * horizonSize.x + sinRoll * horizonSize.y, sinRoll * horizonSize.x + cosRoll * horizonSize.y, 0.0f);
// transform +x +y
GL.TexCoord2(0.5f - horizonTextureSize.x, ladderMidpointCoord + ladderTextureOffset);
GL.Vertex3(-cosRoll * horizonSize.x - sinRoll * horizonSize.y, sinRoll * horizonSize.x - cosRoll * horizonSize.y, 0.0f);
// transform -x +y
GL.TexCoord2(0.5f + horizonTextureSize.x, ladderMidpointCoord + ladderTextureOffset);
GL.Vertex3(cosRoll * horizonSize.x - sinRoll * horizonSize.y, -sinRoll * horizonSize.x - cosRoll * horizonSize.y, 0.0f);
GL.End();
float AoA = velocityVesselSurfaceUnit.AngleInPlane(right, forward);
float AoATC;
if (use360horizon) {
// Straight up is texture coord 0.75;
// Straight down is TC 0.25;
AoATC = JUtil.DualLerp(0.25f, 0.75f, -90f, 90f, pitch + AoA);
} else {
// Straight up is texture coord 1.0;
// Straight down is TC 0.0;
AoATC = JUtil.DualLerp(0.0f, 1.0f, -90f, 90f, pitch + AoA);
}
float Ypos = JUtil.DualLerp(
-horizonSize.y, horizonSize.y,
ladderMidpointCoord - ladderTextureOffset, ladderMidpointCoord + ladderTextureOffset,
AoATC);
// Placing the icon on the (0, Ypos) location, so simplify the transform.
DrawIcon(-sinRoll * Ypos, -cosRoll * Ypos, GizmoIcons.GetIconLocation(GizmoIcons.IconType.PROGRADE), progradeColorValue);
}
// Draw the rest of the HUD stuff (0,0) is the top left corner of the screen.
GL.LoadPixelMatrix(0, screen.width, screen.height, 0);
GL.Viewport(new Rect(0, 0, screen.width, screen.height));
if (headingMaterial != null) {
Quaternion rotationSurface = Quaternion.LookRotation(north, up);
Quaternion rotationVesselSurface = Quaternion.Inverse(Quaternion.Euler(90, 0, 0) * Quaternion.Inverse(vessel.GetTransform().rotation) * rotationSurface);
float headingTexture = JUtil.DualLerp(0f, 1f, 0f, 360f, rotationVesselSurface.eulerAngles.y);
float headingTextureOffset = (headingBarWidth / headingMaterial.mainTexture.width) / 2;
headingMaterial.SetPass(0);
GL.Begin(GL.QUADS);
GL.TexCoord2(headingTexture - headingTextureOffset, 1.0f);
GL.Vertex3(headingBarPosition.x, headingBarPosition.y, 0.0f);
GL.TexCoord2(headingTexture + headingTextureOffset, 1.0f);
GL.Vertex3(headingBarPosition.x + headingBarPosition.z, headingBarPosition.y, 0.0f);
GL.TexCoord2(headingTexture + headingTextureOffset, 0.0f);
GL.Vertex3(headingBarPosition.x + headingBarPosition.z, headingBarPosition.y + headingBarPosition.w, 0.0f);
GL.TexCoord2(headingTexture - headingTextureOffset, 0.0f);
GL.Vertex3(headingBarPosition.x, headingBarPosition.y + headingBarPosition.w, 0.0f);
GL.End();
if (showHeadingBarPrograde) {
float slipAngle = velocityVesselSurfaceUnit.AngleInPlane(up, forward);
float slipTC = JUtil.DualLerp(0f, 1f, 0f, 360f, rotationVesselSurface.eulerAngles.y + slipAngle);
float slipIconX = JUtil.DualLerp(headingBarPosition.x, headingBarPosition.x + headingBarPosition.z, headingTexture - headingTextureOffset, headingTexture + headingTextureOffset, slipTC);
DrawIcon(slipIconX, headingBarPosition.y + headingBarPosition.w * 0.5f, GizmoIcons.GetIconLocation(GizmoIcons.IconType.PROGRADE), progradeColorValue);
}
}
if (vertBar1Material != null) {
float value = comp.ProcessVariable(vertBar1Variable).MassageToFloat();
if (float.IsNaN(value)) {
value = 0.0f;
}
if (vertBar1UseLog10) {
value = JUtil.PseudoLog10(value);
}
float vertBar1TexCoord = JUtil.DualLerp(vertBar1TextureLimit.x, vertBar1TextureLimit.y, vertBar1Limit.x, vertBar1Limit.y, value);
vertBar1Material.SetPass(0);
GL.Begin(GL.QUADS);
GL.TexCoord2(0.0f, vertBar1TexCoord + vertBar1TextureSize);
GL.Vertex3(vertBar1Position.x, vertBar1Position.y, 0.0f);
GL.TexCoord2(1.0f, vertBar1TexCoord + vertBar1TextureSize);
GL.Vertex3(vertBar1Position.x + vertBar1Position.z, vertBar1Position.y, 0.0f);
GL.TexCoord2(1.0f, vertBar1TexCoord - vertBar1TextureSize);
GL.Vertex3(vertBar1Position.x + vertBar1Position.z, vertBar1Position.y + vertBar1Position.w, 0.0f);
GL.TexCoord2(0.0f, vertBar1TexCoord - vertBar1TextureSize);
GL.Vertex3(vertBar1Position.x, vertBar1Position.y + vertBar1Position.w, 0.0f);
GL.End();
}
if (vertBar2Material != null) {
float value = comp.ProcessVariable(vertBar2Variable).MassageToFloat();
if (float.IsNaN(value)) {
value = 0.0f;
}
if (vertBar2UseLog10) {
value = JUtil.PseudoLog10(value);
}
float vertBar2TexCoord = JUtil.DualLerp(vertBar2TextureLimit.x, vertBar2TextureLimit.y, vertBar2Limit.x, vertBar2Limit.y, value);
vertBar2Material.SetPass(0);
GL.Begin(GL.QUADS);
GL.TexCoord2(0.0f, vertBar2TexCoord + vertBar2TextureSize);
GL.Vertex3(vertBar2Position.x, vertBar2Position.y, 0.0f);
GL.TexCoord2(1.0f, vertBar2TexCoord + vertBar2TextureSize);
GL.Vertex3(vertBar2Position.x + vertBar2Position.z, vertBar2Position.y, 0.0f);
GL.TexCoord2(1.0f, vertBar2TexCoord - vertBar2TextureSize);
GL.Vertex3(vertBar2Position.x + vertBar2Position.z, vertBar2Position.y + vertBar2Position.w, 0.0f);
GL.TexCoord2(0.0f, vertBar2TexCoord - vertBar2TextureSize);
GL.Vertex3(vertBar2Position.x, vertBar2Position.y + vertBar2Position.w, 0.0f);
GL.End();
}
if (overlayMaterial != null) {
overlayMaterial.SetPass(0);
GL.Begin(GL.QUADS);
GL.TexCoord2(0.0f, 1.0f);
GL.Vertex3(0.0f, 0.0f, 0.0f);
GL.TexCoord2(1.0f, 1.0f);
GL.Vertex3(screen.width, 0.0f, 0.0f);
GL.TexCoord2(1.0f, 0.0f);
GL.Vertex3(screen.width, screen.height, 0.0f);
GL.TexCoord2(0.0f, 0.0f);
GL.Vertex3(0.0f, screen.height, 0.0f);
GL.End();
}
GL.PopMatrix();
return true;
}
private void GetInput(out float speed)
{
// Read input
float horizontal = CrossPlatformInputManager.GetAxis("Horizontal");
float vertical = CrossPlatformInputManager.GetAxis("Vertical");
bool waswalking = m_IsWalking;
#if !MOBILE_INPUT
// On standalone builds, walk/run speed is modified by a key press.
// keep track of whether or not the character is walking or running
m_IsWalking = !Input.GetKey(KeyCode.LeftShift);
#endif
// set the desired speed to be walking or running
speed = m_IsWalking ? m_WalkSpeed : m_RunSpeed;
m_Input = new Vector2(horizontal, vertical);
// normalize input if it exceeds 1 in combined length:
if (m_Input.sqrMagnitude > 1)
{
m_Input.Normalize();
}
// handle speed change to give an fov kick
// only if the player is going to a run, is running and the fovkick is to be used
if (m_IsWalking != waswalking && m_UseFovKick && m_CharacterController.velocity.sqrMagnitude > 0)
{
StopAllCoroutines();
StartCoroutine(!m_IsWalking ? m_FovKick.FOVKickUp() : m_FovKick.FOVKickDown());
}
if (Input.GetMouseButtonDown (0)) {
gun.GetComponent<Animation> ().Play ("Shooting animation");
RaycastHit hit;
Ray ray = new Ray (transform.position, m_Camera.transform.forward);
if (Physics.Raycast (ray, out hit, 100)) {
Debug.DrawLine (transform.position, hit.point, Color.white, 5f);
if (hit.collider.tag == "Enemy") {
GameObject e = hit.transform.gameObject;
e.GetComponent<ParticleSystem>().Emit(100);
}
}
}
if (Input.GetKeyDown (KeyCode.Escape)) {
Application.Quit();
}
}
public static Matrix2D Look(Vector2 dir, Vector2 up)
{
up = com.spacepuppy.Utils.VectorUtil.RotateToward(dir, up, Mathf.PI / 2.0f, true).normalized;
dir.Normalize();
return new Matrix2D(dir.x, dir.y, up.x, up.y, 0f, 0f);
}
private void GetInput(out float speed)
{
// Read input
float horizontal = CrossPlatformInputManager.GetAxis("Horizontal");
float vertical = CrossPlatformInputManager.GetAxis("Vertical");
bool doOnce = false;
bool waswalking = _isWalking;
#if !MOBILE_INPUT
// On standalone builds, walk/run speed is modified by a key press.
// keep track of whether or not the character is walking or running
_isWalking = !Input.GetKey(KeyCode.LeftShift) || stamina <= staminaDrain;
bool aim = false;
if(_isWalking)
aim = Input.GetButton("Fire2");
_isCrouching = Input.GetKey(KeyCode.LeftControl);
//Need this hear to set animations to proper weapon
bool qSwapping = Input.GetKeyDown(KeyCode.Q);
if (qSwapping)
{
//SwapWeapons();
}
WeaponInput();
//Slow mouse movement when aiming by 45 percent
if(aim && !doOnce){
_isWalking = true;
doOnce = true;
if(GameObject.Find("Crosshair") != null)
GameObject.Find("Crosshair").GetComponent<RawImage>().enabled = false;
_mouseLook.XSensitivity = mouseTempX - (mouseTempX * 0.45f);
_mouseLook.YSensitivity = mouseTempY - (mouseTempY * 0.45f);
Debug.Log (_mouseLook.YSensitivity);
}
//Return Mouse movement values to default
if (!aim)
{
doOnce = false;
_mouseLook.XSensitivity = PlayerPrefs.GetFloat("xAxis");
_mouseLook.YSensitivity = PlayerPrefs.GetFloat("yAxis");
if (GameObject.Find("Crosshair") != null) {
GameObject.Find("Crosshair").GetComponent<RawImage>().enabled = true;
}
}
//Player Movement Animation Logic
AnimationLogic(vertical, horizontal);
//Weapon Animations
anim.SetBool("Sprint", !_isWalking);
anim.SetBool ("Aim", aim);
//Drain Stamina if we are sprinting and moving
if (!_isWalking && _characterController.velocity != Vector3.zero && stamina >= staminaDrain)
{// && _characterController.velocity.x > 0.1f){
stamina = stamina - staminaDrain;
useHeadBob = true;
//Debug.Log(stamina);
}
else if(_isWalking && useHeadBob) {
//if sound not playing play it
if (!gameObject.GetComponents<AudioSource>()[3].isPlaying)
{
gameObject.GetComponents<AudioSource>()[3].Play();
}
useHeadBob = false;
//gameObject.GetComponents<AudioSource>()[3].Stop();
}
//Stamina Regen conditions, regen only when they are not trying to run
if (stamina <= 10 && !Input.GetKey(KeyCode.LeftShift) && !gameObject.GetComponents<AudioSource>()[3].isPlaying) {
StaminaRegenCoroutine = StaminaRegen(3.0f);
StartCoroutine(StaminaRegenCoroutine);
}
else if (stamina > 10 && stamina < 50 && !Input.GetKey(KeyCode.LeftShift))
{
StaminaRegenCoroutine = StaminaRegen(2.5f);
StartCoroutine(StaminaRegenCoroutine);
}
else if (stamina >= 50 && stamina < 100 && !Input.GetKey(KeyCode.LeftShift))
{
StaminaRegenCoroutine = StaminaRegen(1.5f);
StartCoroutine(StaminaRegenCoroutine);
}
#endif
// set the desired speed to be walking or running
speed = walkSpeed;
if (!_isWalking) {
speed = runSpeed;
}
if (_isCrouching) {
speed = crouchSpeed;
}
//speed = _isWalking ? walkSpeed : runSpeed;
_input = new Vector2(horizontal, vertical);
// normalize input if it exceeds 1 in combined length:
if (_input.sqrMagnitude > 1) _input.Normalize();
// handle speed change to give an fov kick
// only if the player is going to a run, is running and the fovkick is to be used
if (_isWalking != waswalking && useFOVKick && _characterController.velocity.sqrMagnitude > 0)
{
StopAllCoroutines();
StartCoroutine(!_isWalking ? _fovKick.FOVKickUp() : _fovKick.FOVKickDown());
}
}
/// <summary>
/// Find some projected angle measure off some forward around some axis.
/// </summary>
/// <param name="v"></param>
/// <param name="forward"></param>
/// <param name="axis"></param>
/// <returns></returns>
public static float AngleOffAroundAxis(Vector3 v, Vector3 forward, Vector3 axis)
{
v.Normalize();
Vector3 right = Vector3.Cross(axis, forward).normalized;
forward = Vector3.Cross(right, axis).normalized;
Vector2 v2 = new Vector2(Vector3.Dot(v, forward), Vector3.Dot(v, right));
v2.Normalize();
return VectorUtil.Angle(v2);
}
//ドラッグによるログを記録
void AddDragLog(Vector2 point)
{
const int dragPointMax = 10;
dragPointNum = Mathf.Min(dragPointNum + 1, dragPointMax);
for (int i = 0; i < dragPointNum - 1; ++i)
{
dragPointLogs[i + 1] = dragPointLogs[i];
}
dragPointLogs[0].point = startOffset + point;
dragPointLogs[0].deltaTime = Time.deltaTime;
if (dragPointNum > 1)
{
dragPointLogs[0].InitDirection(dragPointLogs[1].point);
}
else
{
dragPointLogs[0].ClearDirection();
}
dragDirection = Vector2.zero;
dragSpeed = 0;
int num = dragPointNum - 1;
if (num > 0)
{
for (int i = 0; i < num; ++i)
{
dragDirection += dragPointLogs[i].direction * dragPointLogs[i].speed * dragPointLogs[i].deltaTime;
dragSpeed += dragPointLogs[i].speed;
}
dragDirection.Normalize();
dragSpeed /= num;
}
}
/// <summary>
/// 方向を初期化
/// </summary>
/// <param name="lastPoint"></param>
public void InitDirection(Vector2 lastPoint)
{
direction = point - lastPoint;
speed = direction.magnitude / deltaTime;
direction.Normalize();
}
private void GetInput()
{
// Read input
float horizontal = controlOverride.GetAxis("Horizontal");
float vertical = controlOverride.GetAxis("Vertical");
#if !MOBILE_INPUT
// On standalone builds, walk/run speed is modified by a key press.
// keep track of whether or not the character is walking or running
//m_IsWalking = !Input.GetKey(KeyCode.LeftShift);
#endif
m_Input = new Vector2(horizontal, vertical);
// normalize input if it exceeds 1 in combined length:
if (m_Input.sqrMagnitude > 1)
{
m_Input.Normalize();
}
}
/// <summary>
/// Angle in degrees off some axis in the counter-clockwise direction. Think of like 'Angle' or 'Atan2' where you get to control
/// which axis as opposed to only measuring off of <1,0>.
/// </summary>
/// <param name="v"></param>
/// <param name="axis"></param>
/// <returns></returns>
public static float AngleOff(Vector2 v, Vector2 axis)
{
if (axis.sqrMagnitude < 0.0001f) return float.NaN;
axis.Normalize();
var tang = new Vector2(-axis.y, axis.x);
return AngleBetween(v, axis) * Mathf.Sign(Vector2.Dot(v, tang));
}
private void createVisionCone()
{
List <UnityEngine.Vector2> endPoints = new List <UnityEngine.Vector2>();
endPoints.Add(this.transform.position);
GameObject[] corners = GameObject.FindGameObjectsWithTag("verticies");
SortedList <float, UnityEngine.Vector2> cornerList = new SortedList <float, UnityEngine.Vector2>();
foreach (GameObject corner in corners)
{
float polarCoordinateTheta = (float)Math.Atan(System.Convert.ToDouble(corner.transform.position.y / corner.transform.position.x));
try {
cornerList.Add(polarCoordinateTheta, new UnityEngine.Vector2(corner.transform.position.x, corner.transform.position.y));
} catch (ArgumentException exception) {
cornerList.Add(polarCoordinateTheta + UnityEngine.Random.Range(0.0001f, 0.001f), new UnityEngine.Vector2(corner.transform.position.x, corner.transform.position.y));
}
}
foreach (KeyValuePair <float, UnityEngine.Vector2> corner in cornerList)
{
UnityEngine.Vector2 raycastTarget = new UnityEngine.Vector2(corner.Value.x - this.transform.position.x, corner.Value.y - this.transform.position.y);
raycastTarget.Normalize();
RaycastHit2D endPoint = Physics2D.Raycast(this.transform.position, raycastTarget);
if (endPoint.collider != null)
{
endPoints.Add(endPoint.point);
Debug.DrawLine(this.transform.position, endPoint.point, Color.red);
}
else
{
Debug.DrawLine(this.transform.position, corner.Value, Color.green);
}
}
UnityEngine.Vector2[] vertices2D = endPoints.ToArray();
if (vertices2D.Length > 2)
{
for (int i = 1; i < vertices2D.Length; i++)
{
Debug.DrawLine(endPoints[i - 1], endPoints[i], Color.blue);
}
}
UnityEngine.Vector3[] vertices3D = new UnityEngine.Vector3[vertices2D.Length];
for (int i = 0; i < vertices3D.Length; i++)
{
vertices3D[i] = new UnityEngine.Vector3(vertices2D[i].x, vertices2D[i].y, 0);
}
Triangulator triangulator = new Triangulator(vertices2D);
int[] indices = triangulator.Triangulate();
MeshFilter visionCone = this.GetComponentInChildren <MeshFilter>();
var visionConeMesh = visionCone.mesh;
visionConeMesh.Clear();
visionConeMesh.vertices = vertices3D;
visionConeMesh.uv = vertices2D;
visionConeMesh.triangles = indices;
}
public static Vector2 ClampToAxis(this Vector2 v, Vector2 axis)
{
var n = new Vector2(-axis.y, axis.x);
n.Normalize();
return v - n * Vector2.Dot(v, n);
}
private void GetInput(out float speed)
{
float horizontal = CrossPlatformInputManager.GetAxis(SingletonNames.Input.HORIZONTAL);
float vertical = CrossPlatformInputManager.GetAxis(SingletonNames.Input.VERTICAL);
bool waswalking = isWalking;
if (Input.GetMouseButton(0))
attackController.startAttack();
#if !MOBILE_INPUT
isWalking = !Input.GetKey(KeyCode.LeftShift) && GamePlayer.states.energy > energyDec;
if (!isWalking) {
GamePlayer.states.energy -= energyDec;
energyTimeStamp = Time.time;
} else {
if(Time.time-energyTimeStamp>1.5f && GamePlayer.states.energy!=GamePlayer.states.maxEnergy) // восстанавливаем энергию после простоя в 1,5 сек.
if(GamePlayer.states.energy<GamePlayer.states.maxEnergy)
GamePlayer.states.energy += energyInc;
else
GamePlayer.states.energy = GamePlayer.states.maxEnergy;
}
#endif
speed = isWalking ? playerWalkSpeed : playerRunSpeed;
speed *= isSitdown ? 0.5f : 1.0f;
if (isWalking) {
headBob.HorizontalBobRange = bobRangeWalk;
headBob.VerticalBobRange = bobRangeWalk;
} else {
headBob.HorizontalBobRange = bobRangeRun;
headBob.VerticalBobRange = bobRangeRun;
}
input = new Vector2(horizontal, vertical);
if (input.sqrMagnitude > 1)
input.Normalize();
if (isWalking != waswalking && characterController.velocity.sqrMagnitude > 0) {
StopAllCoroutines();
StartCoroutine(!isWalking ? fovKick.FOVKickUp() : fovKick.FOVKickDown());
}
}
private void GetInput(out float speed)
{
// Read input
float horizontal = CrossPlatformInputManager.GetAxis("Horizontal");
float vertical = CrossPlatformInputManager.GetAxis("Vertical");
bool waswalking = m_IsWalking;
#if !MOBILE_INPUT
// On standalone builds, walk/run speed is modified by a key press.
// keep track of whether or not the character is walking or running
m_IsWalking = !Input.GetKey(KeyCode.LeftShift);
#endif
// set the desired speed to be walking or running
speed = m_IsWalking ? m_WalkSpeed : m_RunSpeed;
m_Input = new Vector2(horizontal, vertical);
// normalize input if it exceeds 1 in combined length:
if (m_Input.sqrMagnitude > 1)
{
m_Input.Normalize();
}
// handle speed change to give an fov kick
// only if the player is going to a run, is running and the fovkick is to be used
if (m_IsWalking != waswalking && m_UseFovKick && m_CharacterController.velocity.sqrMagnitude > 0)
{
StopAllCoroutines();
StartCoroutine(!m_IsWalking ? m_FovKick.FOVKickUp() : m_FovKick.FOVKickDown());
}
}
/// <summary>
/// Collides and edge and a polygon, taking into account edge adjacency.
/// </summary>
/// <param name="manifold">The manifold.</param>
/// <param name="edgeA">The edge A.</param>
/// <param name="xfA">The xf A.</param>
/// <param name="polygonB">The polygon B.</param>
/// <param name="xfB">The xf B.</param>
public static void CollideEdgeAndPolygon(ref Manifold manifold,
EdgeShape edgeA, ref Transform xfA,
PolygonShape polygonB, ref Transform xfB)
{
MathUtils.MultiplyT(ref xfA, ref xfB, out _xf);
// Edge geometry
_edgeA.V0 = edgeA.Vertex0;
_edgeA.V1 = edgeA.Vertex1;
_edgeA.V2 = edgeA.Vertex2;
_edgeA.V3 = edgeA.Vertex3;
Vector2 e = _edgeA.V2 - _edgeA.V1;
// Normal points outwards in CCW order.
_edgeA.Normal = new Vector2(e.y, -e.x);
_edgeA.Normal.Normalize();
_edgeA.HasVertex0 = edgeA.HasVertex0;
_edgeA.HasVertex3 = edgeA.HasVertex3;
// Proxy for edge
_proxyA.Vertices[0] = _edgeA.V1;
_proxyA.Vertices[1] = _edgeA.V2;
_proxyA.Normals[0] = _edgeA.Normal;
_proxyA.Normals[1] = -_edgeA.Normal;
_proxyA.Centroid = 0.5f * (_edgeA.V1 + _edgeA.V2);
_proxyA.Count = 2;
// Proxy for polygon
_proxyB.Count = polygonB.Vertices.Count;
_proxyB.Centroid = MathUtils.Multiply(ref _xf, ref polygonB.MassData.Centroid);
for (int i = 0; i < polygonB.Vertices.Count; ++i)
{
_proxyB.Vertices[i] = MathUtils.Multiply(ref _xf, polygonB.Vertices[i]);
_proxyB.Normals[i] = MathUtils.Multiply(ref _xf.R, polygonB.Normals[i]);
}
_radius = 2.0f * Settings.PolygonRadius;
_limit11 = Vector2.zero;
_limit12 = Vector2.zero;
_limit21 = Vector2.zero;
_limit22 = Vector2.zero;
//Collide(ref manifold); inline start
manifold.PointCount = 0;
//ComputeAdjacency(); inline start
Vector2 v0 = _edgeA.V0;
Vector2 v1 = _edgeA.V1;
Vector2 v2 = _edgeA.V2;
Vector2 v3 = _edgeA.V3;
// Determine allowable the normal regions based on adjacency.
// Note: it may be possible that no normal is admissable.
Vector2 centerB = _proxyB.Centroid;
if (_edgeA.HasVertex0)
{
Vector2 e0 = v1 - v0;
Vector2 e1 = v2 - v1;
Vector2 n0 = new Vector2(e0.y, -e0.x);
Vector2 n1 = new Vector2(e1.y, -e1.x);
n0.Normalize();
n1.Normalize();
bool convex = MathUtils.Cross(n0, n1) >= 0.0f;
bool front0 = Vector2.Dot(n0, centerB - v0) >= 0.0f;
bool front1 = Vector2.Dot(n1, centerB - v1) >= 0.0f;
if (convex)
{
if (front0 || front1)
{
_limit11 = n1;
_limit12 = n0;
}
else
{
_limit11 = -n1;
_limit12 = -n0;
}
}
else
{
if (front0 && front1)
{
_limit11 = n0;
_limit12 = n1;
}
else
{
_limit11 = -n0;
_limit12 = -n1;
}
}
}
else
{
_limit11 = Vector2.zero;
_limit12 = Vector2.zero;
}
if (_edgeA.HasVertex3)
{
Vector2 e1 = v2 - v1;
Vector2 e2 = v3 - v2;
Vector2 n1 = new Vector2(e1.y, -e1.x);
Vector2 n2 = new Vector2(e2.y, -e2.x);
n1.Normalize();
n2.Normalize();
bool convex = MathUtils.Cross(n1, n2) >= 0.0f;
bool front1 = Vector2.Dot(n1, centerB - v1) >= 0.0f;
bool front2 = Vector2.Dot(n2, centerB - v2) >= 0.0f;
if (convex)
{
if (front1 || front2)
{
_limit21 = n2;
_limit22 = n1;
}
else
{
_limit21 = -n2;
_limit22 = -n1;
}
}
else
{
if (front1 && front2)
{
_limit21 = n1;
_limit22 = n2;
}
else
{
_limit21 = -n1;
_limit22 = -n2;
}
}
}
else
{
_limit21 = Vector2.zero;
_limit22 = Vector2.zero;
}
//ComputeAdjacency(); inline end
//EPAxis edgeAxis = ComputeEdgeSeparation(); inline start
EPAxis edgeAxis = ComputeEdgeSeparation();
// If no valid normal can be found than this edge should not collide.
// This can happen on the middle edge of a 3-edge zig-zag chain.
if (edgeAxis.Type == EPAxisType.Unknown)
{
return;
}
if (edgeAxis.Separation > _radius)
{
return;
}
EPAxis polygonAxis = ComputePolygonSeparation();
if (polygonAxis.Type != EPAxisType.Unknown && polygonAxis.Separation > _radius)
{
return;
}
// Use hysteresis for jitter reduction.
const float k_relativeTol = 0.98f;
const float k_absoluteTol = 0.001f;
EPAxis primaryAxis;
if (polygonAxis.Type == EPAxisType.Unknown)
{
primaryAxis = edgeAxis;
}
else if (polygonAxis.Separation > k_relativeTol * edgeAxis.Separation + k_absoluteTol)
{
primaryAxis = polygonAxis;
}
else
{
primaryAxis = edgeAxis;
}
EPProxy proxy1;
EPProxy proxy2;
FixedArray2<ClipVertex> incidentEdge = new FixedArray2<ClipVertex>();
if (primaryAxis.Type == EPAxisType.EdgeA)
{
proxy1 = _proxyA;
proxy2 = _proxyB;
manifold.Type = ManifoldType.FaceA;
}
else
{
proxy1 = _proxyB;
proxy2 = _proxyA;
manifold.Type = ManifoldType.FaceB;
}
int edge1 = primaryAxis.Index;
FindIncidentEdge(ref incidentEdge, proxy1, primaryAxis.Index, proxy2);
int count1 = proxy1.Count;
int iv1 = edge1;
int iv2 = edge1 + 1 < count1 ? edge1 + 1 : 0;
Vector2 v11 = proxy1.Vertices[iv1];
Vector2 v12 = proxy1.Vertices[iv2];
Vector2 tangent = v12 - v11;
tangent.Normalize();
Vector2 normal = MathUtils.Cross(tangent, 1.0f);
Vector2 planePoint = 0.5f * (v11 + v12);
// Face offset.
float frontOffset = Vector2.Dot(normal, v11);
// Side offsets, extended by polytope skin thickness.
float sideOffset1 = -Vector2.Dot(tangent, v11) + _radius;
float sideOffset2 = Vector2.Dot(tangent, v12) + _radius;
// Clip incident edge against extruded edge1 side edges.
FixedArray2<ClipVertex> clipPoints1;
FixedArray2<ClipVertex> clipPoints2;
int np;
// Clip to box side 1
np = ClipSegmentToLine(out clipPoints1, ref incidentEdge, -tangent, sideOffset1, iv1);
if (np < Settings.MaxManifoldPoints)
{
return;
}
// Clip to negative box side 1
np = ClipSegmentToLine(out clipPoints2, ref clipPoints1, tangent, sideOffset2, iv2);
if (np < Settings.MaxManifoldPoints)
{
return;
}
// Now clipPoints2 contains the clipped points.
if (primaryAxis.Type == EPAxisType.EdgeA)
{
manifold.LocalNormal = normal;
manifold.LocalPoint = planePoint;
}
else
{
manifold.LocalNormal = MathUtils.MultiplyT(ref _xf.R, ref normal);
manifold.LocalPoint = MathUtils.MultiplyT(ref _xf, ref planePoint);
}
int pointCount = 0;
for (int i1 = 0; i1 < Settings.MaxManifoldPoints; ++i1)
{
float separation = Vector2.Dot(normal, clipPoints2[i1].V) - frontOffset;
if (separation <= _radius)
{
ManifoldPoint cp = manifold.Points[pointCount];
if (primaryAxis.Type == EPAxisType.EdgeA)
{
cp.LocalPoint = MathUtils.MultiplyT(ref _xf, clipPoints2[i1].V);
cp.Id = clipPoints2[i1].ID;
}
else
{
cp.LocalPoint = clipPoints2[i1].V;
cp.Id.Features.TypeA = clipPoints2[i1].ID.Features.TypeB;
cp.Id.Features.TypeB = clipPoints2[i1].ID.Features.TypeA;
cp.Id.Features.IndexA = clipPoints2[i1].ID.Features.IndexB;
cp.Id.Features.IndexB = clipPoints2[i1].ID.Features.IndexA;
}
manifold.Points[pointCount] = cp;
++pointCount;
}
}
manifold.PointCount = pointCount;
//Collide(ref manifold); inline end
}