void ShootAnyway(Vector2 lastCorrectPoint)
{
float distance = Vector2.Distance(ball.transform.position, lastCorrectPoint);
Vector2 q = new Vector2(lastCorrectPoint.x - ball.transform.position.x, lastCorrectPoint.y - ball.transform.position.y).normalized;
float skaleOfFails = 0.001f;
float random = Random.Range(1, 100) * skaleOfFails;
if (q.x > 0)
{
q.x += random;
}
else
{
q.x += -random;
}
if (q.y > 0)
{
q.y += random;
}
else
{
q.y += -random;
}
float velocity = Vector2.Distance(ball.transform.position, lastCorrectPoint) * Random.Range(2.4f, 5f);
SwitchColider.Invoke();
RaycastHit2D hit = Physics2D.Raycast(new Vector2(ball.transform.position.x, ball.transform.position.y), q, distance);
if (hit.collider != null && (hit.collider.tag == "Sand" || hit.collider.tag == "Ramp"))
{
velocity = maxVelocity;
}
if (velocity > maxVelocity)
{
velocity = maxVelocity;
}
ball.Shoot(velocity, q);
ball.ballColider.enabled = true;
return;
}
public void OnPathComplete(Path p)
{
if (p.error)
{
Debug.Log("No path: " + p.errorLog);
}
else
{
Path path = ball.seeker.GetCurrentPath();
Vector3 lastCorrectPoint = new Vector3(1, 1, 0);
if (path.vectorPath.Count <= 2)
{
Vector2 vec = new Vector2(path.vectorPath[1].x - ball.transform.position.x, path.vectorPath[1].y - ball.transform.position.y).normalized;
ball.Shoot(Vector2.Distance(ball.transform.position, path.vectorPath[3]) * Random.Range(1.8f, 3f), vec);
}
else
{
SwitchColider.Invoke();
ball.ballColider.enabled = false;
foreach (var item in path.vectorPath)
{
// dla kazdego punku na trasie do dolka szuka najodleglejszej mozliwej kolizji
Vector2 q = new Vector2(item.x - ball.transform.position.x, item.y - ball.transform.position.y).normalized;
float distance = Vector2.Distance(ball.transform.position, item);
RaycastHit2D hit = Physics2D.Raycast(new Vector2(ball.transform.position.x, ball.transform.position.y), q, distance);
if (hit.collider != null)
{
Debug.Log("Ball angle: " + Vector2.Angle(new Vector2(ball.transform.position.x, ball.transform.position.y), hit.point));
Debug.DrawLine(new Vector2(ball.transform.position.x, ball.transform.position.y), hit.point, Color.white, 10f);
Vector2 bounceDir = bounceDirection(q);
Debug.DrawLine(hit.point, bounceDir, Color.red, 10f);
// Debug.DrawLine(hit.point, bounceDir, Color.red, 10f);
// Debug.DrawLine(hit.point, bounceDir, Color.red, 10f);
// Vector2.Angle()
// Vector3 rayPosition = new Vector3(transform.position.x, headHeight, transform.position.z);
// Vector2 leftRayRotation = Vector2.AngleAxis(10, hit.point);
// Vector3 rightRayRotation = Quaternion.AngleAxis(fovAngle, transform.up) * transform.forward;
// //Constructing rays
// Ray rayCenter = new Ray(rayPosition, transform.forward);
// Ray rayLeft = new Ray(hit.point, leftRayRotation);
// Ray rayRight = new Ray(rayPosition, rightRayRotation);
// ustawia kierunek uderzenia, uwzgledaniajac losowy blad celuje w punkt ostatniego "widzianego przez pilke" miejsca bez kolizji
q = new Vector2(lastCorrectPoint.x - ball.transform.position.x, lastCorrectPoint.y - ball.transform.position.y).normalized;
float skaleOfFails = 0.001f;
float random = Random.Range(1, 100) * skaleOfFails;
if (q.x > 0)
{
q.x += random;
}
else
{
q.x += -random;
}
if (q.y > 0)
{
q.y += random;
}
else
{
q.y += -random;
}
// ustawia sile uderzenia, uwzgledaniajac losowy blad
float velocity = Vector2.Distance(ball.transform.position, lastCorrectPoint) * Random.Range(2.4f, 5f);
// jesli pilka znajduje sie na piasku, ustaw sile udezenia na maksymalna
SwitchColider.Invoke();
hit = Physics2D.Raycast(new Vector2(ball.transform.position.x, ball.transform.position.y), q, distance);
if (hit.collider != null && (hit.collider.tag == "Sand" || hit.collider.tag == "Ramp"))
{
velocity = maxVelocity;
}
// jesli wartosc predkosci przekroczy wartosc max dla gracza, ustaw maksymalna wartosc na sztywno
if (velocity > maxVelocity)
{
velocity = maxVelocity;
}
ball.Shoot(velocity, q);
ball.ballColider.enabled = true;
return;
}
lastCorrectPoint = item;
}
ShootAnyway(lastCorrectPoint);
}
}
}
