FiE-Game/Assets/CircularGravityForce/Effects/CGF_AlignToForce.cs

214 lines
8 KiB
C#
Raw Normal View History

2023-07-24 21:52:50 +02:00
/*******************************************************************************************
* Author: Lane Gresham, AKA LaneMax
* Websites: http://resurgamstudios.com
* Description: Used for cgf effects, enables align to force effect.
*******************************************************************************************/
using System;
using System.Linq;
using System.Collections;
using System.Collections.Generic;
using UnityEngine;
namespace CircularGravityForce
{
[RequireComponent(typeof(CGF))]
public class CGF_AlignToForce : MonoBehaviour
{
#region Events
public delegate void ApplyAlignToForceEvent(CGF cgf, Rigidbody rigid, Collider coll, Vector3 transPos);
public static event ApplyAlignToForceEvent OnApplyAlignToForceEvent;
#endregion
public enum AlignDirection
{
Up,
Down,
Left,
Right,
Forward,
Backward
}
[SerializeField, Tooltip("Enables align to force.")]
private bool enable = true;
public bool Enable
{
get { return enable; }
set { enable = value; }
}
[SerializeField, Tooltip("If alignToForce is enabled, lets you pick the align direction of the GameObjects.")]
private AlignDirection alignDirection = AlignDirection.Down;
public AlignDirection _alignDirection
{
get { return alignDirection; }
set { alignDirection = value; }
}
[SerializeField, Tooltip("Rotation speed.")]
private float rotateSpeed = 1f;
public float RotateSpeed
{
get { return rotateSpeed; }
set { rotateSpeed = value; }
}
[SerializeField, Tooltip("The maximimum angular velocity of the rigidbody.")]
private float maxAngularVelocity = 7f;
public float MaxAngularVelocity
{
get { return maxAngularVelocity; }
set { maxAngularVelocity = value; }
}
[SerializeField, Tooltip("Angular velocity damping.")]
private float angularVelocityDamping = 1f;
public float AngularVelocityDamping
{
get { return angularVelocityDamping; }
set { angularVelocityDamping = value; }
}
[SerializeField, Tooltip("Use closest collider height offset.")]
private bool useClosestColliderHeightOffset = false;
public bool UseClosestColliderHeightOffset
{
get { return useClosestColliderHeightOffset; }
set { useClosestColliderHeightOffset = value; }
}
[SerializeField, Tooltip("Filter properties options.")]
private CGF.FilterProperties filterProperties;
public CGF.FilterProperties _filterProperties
{
get { return filterProperties; }
set { filterProperties = value; }
}
private CGF cgf;
void Awake()
{
CGF.OnApplyCGFEvent += CGF_OnApplyCGFEvent;
cgf = this.GetComponent<CGF>();
}
void OnDestroy()
{
CGF.OnApplyCGFEvent -= CGF_OnApplyCGFEvent;
}
private void CGF_OnApplyCGFEvent(CGF cgf, Rigidbody rigid, Collider coll)
{
if (this.cgf == cgf)
{
ApplyAlignment(cgf, rigid, coll);
}
}
//Applys the alignment
private void ApplyAlignment(CGF cgf, Rigidbody rigid, Collider coll)
{
if (_filterProperties == null)
return;
if (Enable)
{
if (_filterProperties.ValidateFilters(rigid, coll))
{
var transPos = this.transform.position;
switch (cgf._forcePositionProperties.ForcePosition)
{
case CGF.ForcePosition.ThisTransform:
break;
case CGF.ForcePosition.ClosestCollider:
if (cgf._forcePositionProperties.ClosestColliders != null)
{
if (cgf._forcePositionProperties.ClosestColliders.Count > 0)
{
float heightOffset = 0f;
if (UseClosestColliderHeightOffset)
heightOffset = cgf._forcePositionProperties.HeightOffset;
if (!cgf._forcePositionProperties.UseEffectedClosestPoint)
{
var point = cgf.FindClosestPoints(rigid.position, cgf._forcePositionProperties.ClosestColliders);
transPos = cgf.GetVectorHeightOffset(point, rigid.position, heightOffset);
}
else
{
Vector3 pointA = cgf.FindClosestPoints(coll.transform.position, cgf._forcePositionProperties.ClosestColliders);
Vector3 pointB = cgf.FindClosestPoints(pointA, coll);
float distanceThisA = Vector3.Distance(coll.transform.position, pointA);
float distanceAB = Vector3.Distance(pointA, pointB);
transPos = cgf.GetVectorHeightOffset(pointA, coll.transform.position, Mathf.Abs(distanceThisA - distanceAB) + heightOffset);
}
}
}
break;
}
Vector3 newLocal = Vector3.zero;
switch (_alignDirection)
{
case AlignDirection.Up:
newLocal = -rigid.transform.up;
break;
case AlignDirection.Down:
newLocal = rigid.transform.up;
break;
case AlignDirection.Left:
newLocal = rigid.transform.right;
break;
case AlignDirection.Right:
newLocal = -rigid.transform.right;
break;
case AlignDirection.Forward:
newLocal = -rigid.transform.forward;
break;
case AlignDirection.Backward:
newLocal = rigid.transform.forward;
break;
}
Quaternion targetRotation = Quaternion.FromToRotation(newLocal, rigid.position - transPos) * rigid.rotation;
Quaternion deltaRotation = Quaternion.Inverse(rigid.rotation) * targetRotation;
Vector3 deltaAngles = GetRelativeAngles(deltaRotation.eulerAngles);
Vector3 worldDeltaAngles = rigid.transform.TransformDirection(deltaAngles);
rigid.maxAngularVelocity = MaxAngularVelocity;
rigid.AddTorque((RotateSpeed * worldDeltaAngles) - ((AngularVelocityDamping * rigid.angularVelocity)));
if (OnApplyAlignToForceEvent != null)
{
OnApplyAlignToForceEvent.Invoke(cgf, rigid, coll, transPos);
}
}
}
}
// Convert angles above 180 degrees into negative/relative angles
Vector3 GetRelativeAngles(Vector3 angles)
{
Vector3 relativeAngles = angles;
if (relativeAngles.x > 180f)
relativeAngles.x -= 360f;
if (relativeAngles.y > 180f)
relativeAngles.y -= 360f;
if (relativeAngles.z > 180f)
relativeAngles.z -= 360f;
return relativeAngles;
}
}
}