DarkflameServer/dGame/dComponents/PhantomPhysicsComponent.h

/*
 * Darkflame Universe
 * Copyright 2018
 */

#pragma once

#include "NiPoint3.h"
#include "NiQuaternion.h"
#include "BitStream.h"
#include <vector>
#include "CppScripts.h"
#include "InvalidScript.h"
#include "Component.h"

class LDFBaseData;
class Entity;
class dpEntity;

/**
 * Allows the creation of phantom physics for an entity: a physics object that is generally invisible but can be
 * collided with using various shapes to detect collision on certain points in the map. Generally these are used to
 * trigger gameplay events, for example the bus in Avant Gardens that moves around when the player touches its physics
 * body. Optionally this object can also have effects, like the fans in AG.
 */
class PhantomPhysicsComponent : public Component {
public:
    static const uint32_t ComponentType = COMPONENT_TYPE_PHANTOM_PHYSICS;
	
    PhantomPhysicsComponent(Entity* parent);
    ~PhantomPhysicsComponent() override;
	void Update(float deltaTime) override;
    void Serialize(RakNet::BitStream* outBitStream, bool bIsInitialUpdate, unsigned int& flags);
    void ResetFlags();

    /**
     * Creates the physics shape for this entity based on LDF data
     */
	void CreatePhysics();

    /**
     * Sets the direction this physics object is pointed at
     * @param pos the direction to set
     */
    void SetDirection(const NiPoint3& pos);

    /**
     * Returns the direction this physics object is pointed at
     * @return the direction this physics object is pointed at
     */
    const NiPoint3& GetDirection() const { return m_Direction; }

    /**
     * Returns the multiplier by which the direction coordinates are multiplied
     * @return the multiplier by which the direction coordinates are multiplied
     */
    float GetDirectionalMultiplier() const { return m_DirectionalMultiplier; }

    /**
     * Sets the multiplier by which direction coordinates are multiplied
     * @param mul the multiplier to set
     */
    void SetDirectionalMultiplier(float mul);

    /**
     * Returns whether or not there's currently an effect active
     * @return true if there's an effect active, false otherwise
     */
    bool GetPhysicsEffectActive() const { return m_IsPhysicsEffectActive; }

    /**
     * Sets whether or not there's a physics effect active
     * @param val whether or not there's an effect active
     */
    void SetPhysicsEffectActive(bool val) { m_IsPhysicsEffectActive = val; m_EffectInfoDirty = true; }

    /**
     * Returns the position of this physics object
     * @return the position of this physics object
     */
    const NiPoint3& GetPosition() const { return m_Position; }

    /**
     * Sets the position of this physics object
     * @param pos the position to set
     */
    void SetPosition(const NiPoint3& pos);

    /**
     * Returns the rotation of this physics object
     * @return the rotation of this physics object
     */
    const NiQuaternion& GetRotation() const { return m_Rotation; }

    /**
     * Sets the rotation of this physics object
     * @param rot the rotation to set
     */
    void SetRotation(const NiQuaternion& rot);

    /**
     * Returns the effect that's currently active, defaults to 0
     * @return the effect that's currently active
     */
    uint32_t GetEffectType() const { return m_EffectType; }

    /**
     * Sets the effect that's currently active
     * @param type the effect to set
     */
    void SetEffectType(uint32_t type);

    /**
     * Returns the Physics entity for the component 
     * @return Physics entity for the component
     */

    dpEntity* GetdpEntity() const { return m_dpEntity; }

    /**
     * Spawns an object at each of the vertices for debugging purposes
     */
    void SpawnVertices();

    /**
     * Legacy stuff no clue what this does
     */
    void SetMin(uint32_t min);

    /**
     * Legacy stuff no clue what this does
     */
    void SetMax(uint32_t max);
    
private:

    /**
     * The position of the physics object
     */
    NiPoint3 m_Position;

    /**
     * The rotation of the physics object
     */
    NiQuaternion m_Rotation;

    /**
     * A scale to apply to the size of the physics object
     */
	float m_Scale;

    /**
     * Whether or not the position has changed and needs to be serialized
     */
    bool m_PositionInfoDirty;

    /**
     * Whether or not the effect has changed and needs to be serialized
     */
    bool m_EffectInfoDirty;

    /**
     * Whether or not there's currently a physics effect active
     */
    bool m_IsPhysicsEffectActive;

    /**
     * The physics effect that's currently active, defaults to 0
     */
    uint32_t m_EffectType;

    /**
     * A scaling multiplier to add to the directional vector
     */
    float m_DirectionalMultiplier;
    
    bool m_MinMax;
    uint32_t m_Min;
    uint32_t m_Max;

    /**
     * Whether or not this physics object is pointed in some direction
     */
    bool m_IsDirectional;

    /**
     * The direction this physics object is pointed in, if any
     */
    NiPoint3 m_Direction;

    /**
     * The parent entity of this component
     */
    dpEntity* m_dpEntity;

    /**
     * Whether or not the physics object has been created yet
     */
	bool m_HasCreatedPhysics = false;

    /**
     * Whether or not this physics object represents an object that updates the respawn pos of an entity that crosses it
     */
	bool m_IsRespawnVolume = false;

    /**
     * If this is a respawn volume, the exact position an entity will respawn
     */
	NiPoint3 m_RespawnPos;

    /**
     * If this is a respawn volume, the exact rotation an entity will respawn
     */
	NiQuaternion m_RespawnRot;
};