khanat-opennel-code/code/nel/include/nel/3d/ps_emitter.h
2010-06-12 12:17:29 +02:00

723 lines
28 KiB
C++

// NeL - MMORPG Framework <http://dev.ryzom.com/projects/nel/>
// Copyright (C) 2010 Winch Gate Property Limited
//
// This program is free software: you can redistribute it and/or modify
// it under the terms of the GNU Affero General Public License as
// published by the Free Software Foundation, either version 3 of the
// License, or (at your option) any later version.
//
// This program is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
// GNU Affero General Public License for more details.
//
// You should have received a copy of the GNU Affero General Public License
// along with this program. If not, see <http://www.gnu.org/licenses/>.
#ifndef NL_PS_EMITTER_H
#define NL_PS_EMITTER_H
#include "nel/misc/types_nl.h"
#include "nel/3d/ps_located.h"
#include "nel/3d/ps_attrib_maker.h"
#include "nel/3d/ps_edit.h"
#include "nel/3d/ps_plane_basis.h"
#include "nel/3d/ps_direction.h"
#include "nel/3d/particle_system.h"
namespace NL3D {
/**
* Base class for all emitters in a particle system.
* Derivers should at least define the emit method which is called each time an emission is needed.
* Not sharable accross systems.
*
* \author Nicolas Vizerie
* \author Nevrax France
* \date 2001
*/
class CPSEmitter : public CPSLocatedBindable
{
public:
/// \name Object
//@{
/// Constructor
CPSEmitter();
// dtor
virtual ~CPSEmitter();
//@}
/// Return this bindable type
uint32 getType(void) const { return PSEmitter; }
/// Return priority for emitters
virtual uint32 getPriority(void) const { return 500; }
/// Return true if this located bindable derived class holds alive emitters
virtual bool hasEmitters(void) { nlassert(_Owner); return _Owner->getSize() != 0; }
virtual void step(TPSProcessPass pass);
/**
* Process the emissions.
* The standard behaviour will call "emit" each time is needed.
* So you don't need to redefine this most of the time
*
*/
void computeSpawns(uint firstInstanceIndex);
/// This is called inside the sim step, and triggers emitter that where flagged as 'emit once'
void doEmitOnce(uint firstInstanceIndex);
/// Display the emitter in edition mode
virtual void showTool(void);
/** Set the type of located to be emitted. The default is NULL which mean that no emission will occur
* \return true if the operation could be performed. It can fail when this cause the system the system to last forever,
* which is incompatible with the 'BypassMaxNumIntegrationSteps' flag in CParticleSystem
*/
bool setEmittedType(CPSLocated *et);
/** Inherited from CPSLocatedBindable
* We register to the emitted type (when setEmittedType is called), so, this, this will be called when it is destroyed
*/
virtual void notifyTargetRemoved(CPSLocated *ptr);
/// Get emitted type.
CPSLocated *getEmittedType(void) { return _EmittedType; }
/// Get const ptr on emitted type
const CPSLocated *getEmittedType(void) const { return _EmittedType; }
/** The type of emission.
* regular : means use Period, and generation number (the number of particle to generate when an emission occurs)
* onDeath : emit when the emitter is destroyed
* once : emit when the emitter is created
* onBounce : emit when the emitter bounce
* externEmit : emitted explicitly by the system user. A 4 letters ID must be used to identify this kind of emitters
* the default ID is NONE
*/
enum TEmissionType { regular = 0, onDeath = 1, once = 2, onBounce = 3, externEmit = 4, numEmissionType };
/** Set the emission type. Please note that if the type is externEmit, this located need to have been attached to the system (the system is holding the ID-Located map)
* \return true if the operation could be performed. It can fail when this cause the system the system to last forever,
* which is incompatible with the 'BypassMaxNumIntegrationSteps' in CParticleSystem
*/
bool setEmissionType(TEmissionType freqType);
/// Get the frequency type
TEmissionType getEmissionType(void) const { return _EmissionType; }
/** Set a constant period for emission (expressed in second)
* any previous period scheme is discarded
*/
void setPeriod(float period);
/// Retrieve the period for emission, valid only if a period scheme is used
float getPeriod(void) const { return _Period; }
/// Indicate whether a period scheme is used or not
bool usePeriodScheme(void) { return _PeriodScheme != NULL; }
/// Set a period scheme
void setPeriodScheme(CPSAttribMaker<float> *scheme);
// Retrieve the period scheme, or null, if there'isnt
CPSAttribMaker<float> *getPeriodScheme(void) { return _PeriodScheme; }
// Retrieve the period scheme, or null, if there'isnt (const version)
const CPSAttribMaker<float> *getPeriodScheme(void) const { return _PeriodScheme; }
/// Set a delay in seconds before the first emission (regular emitter only)
void setEmitDelay(float delay);
/// Get the delay in seconds before the first emission (regular emitter only)
float getEmitDelay() const { return _EmitDelay; }
/** Set a max. number of particle emission (0 means no limit and is the default). Applies with regular emitter only.
* NB : the emitter should be inserted in a system for this call to work
* \return true if the operation could be performed. It can fail when this cause the system the system to last forever,
* which is incompatible with the 'BypassMaxNumIntegrationSteps' in CParticleSystem
*/
bool setMaxEmissionCount(uint8 count);
/// Get the max. number of particle emission (0 means no limit and is the default). Applies with regular emitter only.
uint8 getMaxEmissionCount() const { return _MaxEmissionCount; }
/** Set a constant number of particle to be generated at once
* any previous scheme is discarded
*/
void setGenNb(uint32 GenNb);
/// Retrieve the GenNb for emission, valid only if a GenNb scheme is used
uint getGenNb(void) const { return _GenNb; }
/// Indicate whether a GenNb scheme is used or not
bool useGenNbScheme(void) { return _GenNbScheme != NULL; }
/// Set a GenNb scheme
void setGenNbScheme(CPSAttribMaker<uint32> *scheme);
/// Retrieve the GenNb scheme, or null, if there'isnt
CPSAttribMaker<uint32> *getGenNbScheme(void) { return _GenNbScheme; }
/// Retrieve the GenNb scheme, or null, if there'isnt (const version)
const CPSAttribMaker<uint32> *getGenNbScheme(void) const { return _GenNbScheme; }
/// Serialization
void serial(NLMISC::IStream &f) throw(NLMISC::EStream);
///\name Speed vector options
//@{
/** Set a factor, to add the emitter speed to the emittee creation speed. this can be < 0
* The default is 0
*/
void setSpeedInheritanceFactor(float fact)
{
_SpeedInheritanceFactor = fact;
}
/// Get the Speed Inheritance factor
float getSpeedInheritanceFactor(void) const
{
return _SpeedInheritanceFactor;
}
/** Align the direction of emission on the emitter speed.
* NB This also implies that the coord. system in which the speed vector is expressed if the same than the one of the emitter
* so the calls to enableUserMatrixModeForEmissionDirection() & setUserMatrixModeForEmissionDirection() have no effects (but their value is retained)
*/
void enableSpeedBasisEmission(bool enabled = true);
/** Check if the direction of emission is aligned on the emitter speed.
* \see enableSpeedBasisEmission()
*/
bool isSpeedBasisEmissionEnabled(void) const { return _SpeedBasisEmission; }
/** By default, the direction of emission is supposed to be expressed in the same coordinate system than the one of the emitter.
* Enabling a user matrix mode for the direction of emission allows to change that behaviour.
* example of use :
* A fire p.s is linked to a torch, but the torch doesn't point to the top. So particles are emitted in the axis aligned to the torch
* If matrix mode for direction emission is set to PSIdentityMatrix, then the direction is interpreted to be in world, and is thus independant from
* the torch orientation : particles are always spawned in the +K direction.
*
* NB : if isSpeedBasisEmissionEnabled() == true then this flag is meaningless
*/
void enableUserMatrixModeForEmissionDirection(bool enable = true);
bool isUserMatrixModeForEmissionDirectionEnabled() const { return _UserMatrixModeForEmissionDirection; }
/** Set the coord. system in with the direction is expressed. This value is taken in account only
* if enableUserMatrixModeForEmissionDirection(true) has been called.
* NB : if isSpeedBasisEmissionEnabled() == true then this value is meaningless
*/
void setUserMatrixModeForEmissionDirection(TPSMatrixMode matrixMode);
TPSMatrixMode getUserMatrixModeForEmissionDirection() const { return _UserDirectionMatrixMode; }
//@}
/// Process a single emission. For external use (in the user interface layer)
void singleEmit(uint32 index, uint quantity);
/** Enable consistent emission. The default is false. This try to keep the number of emitted particle constant, by allowing
* more than one emission cycle per iteration. This is useful to deal with poor frmerate. This has several drawbacks though :
* - collisions are not properly supported in this case (may be resolved later). RESOLVED
* - The motion is in straight lines.
* - It assumes that emitter has no motion (for now). RESOLVED
* NB nico : this is the default now ...
* In fact, this should be used when there can't be collisions with the emitted particles, and with main emitters only.
* NB : this has no effect if the emission period is 0 (which mean emit at each frame)
*/
void enableConsistenEmission(bool enable) { _ConsistentEmission = enable; }
bool isConsistentEmissionEnabled() const { return _ConsistentEmission; }
/** Release any reference this obj may have on the given process.
* For example, this is used when detaching a located bindable from a system.
*/
virtual void releaseRefTo(const CParticleSystemProcess *other);
/** Release any reference this obj may have to other process of the system
* For example, this is used when detaching a located bindable from a system.
*/
virtual void releaseAllRef();
// bypass the auto-LOD : no auto-LOD will be applied to that emitter
void setBypassAutoLOD(bool bypass) { _BypassAutoLOD = bypass; }
bool getBypassAutoLOD() const { return _BypassAutoLOD; }
/** For edition only : avoid that a call to CPSLocated::deleteElement() causes emitters flagged with 'emitOnDeath' to emit
*/
static void setBypassEmitOnDeath(bool bypass) { _BypassEmitOnDeath = bypass; }
static bool getBypassEmitOnDeath() { return _BypassEmitOnDeath; }
/** check if there's a loop with that emitter e.g. A emit B emit A
* NB : the emitter should be inserted in a system, otherwise -> assert
*/
bool checkLoop() const;
/** Test is the emitter will emit an infinite amount of particles (e.g it doesn't stop after a while)
* NB : If the emitter isn't inserted in a CPSLocated instance, an assertion will be reaised
*/
bool testEmitForever() const;
// from CPSLocated
virtual void setOwner(CPSLocated *psl);
// from from CPSLocated
virtual bool getUserMatrixUsageCount() const;
// Set the emit trigger. At the next sim step, all particles will emit at the start of the step.
void setEmitTrigger() { _EmitTrigger = true; }
// Update emit trigger. To Be called at the start of the sim step.
// If emit trigger is set, all emitter emit a single time, and then the falg is cleared
void updateEmitTrigger();
protected:
friend class CPSLocated;
/// This will call emit, and will add additionnal features (speed addition and so on). This must be called inside the sim loop.
void processEmit(uint32 index, sint nbToGenerate);
// The same than process emit, but can be called outside the sim loop.
void processEmitOutsideSimLoop(uint32 index, sint nbToGenerate);
/// The same as processEmit, but can also add a time delta. This must be called inside the sim loop.
void processEmitConsistent(const NLMISC::CVector &emitterPos,
uint32 emitterIndex,
sint nbToGenerate,
TAnimationTime deltaT);
/// Regular emission processing
void processRegularEmission(uint firstInstanceIndex, float emitLOD);
void processRegularEmissionWithNoLOD(uint firstInstanceIndex);
/** Regular emission processing, with low-framrate compensation
*/
void processRegularEmissionConsistent(uint firstInstanceIndex, float emitLOD, float inverseEmitLOD);
void processRegularEmissionConsistentWithNoLOD(uint firstInstanceIndex);
// test if user matrix is needed to compute direction of emission
bool isUserMatrixUsed() const;
/** The particle system maintains a ref counter to see how many object requires the user matrix for their computation
* (if it isn't required, a significant amount of memory used for maintenance can be saved)
* This tool function helps increasing / decreasing that count by seeing if the matrix is still required or not
*/
void updatePSRefCountForUserMatrixUsage(bool matrixIsNeededNow, bool matrixWasNeededBefore);
/** This method is called each time one (and only one) located must be emitted.
* DERIVERS MUST DEFINE THIS
* \param srcPos the source position of the emitter (with eventually a correction)
* \param index the index of the emitter in the tab that generated a located
* \param pos the resulting pos of the particle, expressed in the emitter basis
* \param speed the reulting speed of the emitter, expressed in the emitter basis
*/
virtual void emit(const NLMISC::CVector &srcPos, uint32 index, NLMISC::CVector &pos, NLMISC::CVector &speed) = 0;
/** Generate a new element for this bindable. They are generated according to the propertie of the class
*/
virtual void newElement(const CPSEmitterInfo &info);
/** Delete an element given its index
* Attributes of the located that hold this bindable are still accessible for of the index given
* index out of range -> nl_assert
*/
virtual void deleteElement(uint32 index);
// version of delete element that is called by the sim loop
virtual void deleteElement(uint32 index, TAnimationTime timeUntilNextSimStep);
/** Resize the bindable attributes containers. DERIVERS SHOULD CALL THEIR PARENT VERSION
* should not be called directly. Call CPSLocated::resize instead
*/
virtual void resize(uint32 size);
virtual void bounceOccured(uint32 index, TAnimationTime timeToNextSimStep);
void updateMaxCountVect();
/// A pointer on the type to be emitted.
CPSLocated *_EmittedType;
/** The phase ( 0 < phase < period of emission). This is the time ellapsed since the last emission
*/
TPSAttribFloat _Phase;
TPSAttribUInt8 _NumEmission; // used only if MaxEmissionCount is != 0
float _SpeedInheritanceFactor;
TEmissionType _EmissionType;
float _Period;
CPSAttribMaker<float> *_PeriodScheme;
uint32 _GenNb;
CPSAttribMaker<uint32> *_GenNbScheme;
float _EmitDelay;
uint8 _MaxEmissionCount;
bool _SpeedBasisEmission : 1;
bool _ConsistentEmission : 1;
bool _BypassAutoLOD : 1;
bool _UserMatrixModeForEmissionDirection : 1; // true when the direction of emission is expressed in a user defined coordinate system (otherwise it is expressed in this object coordinate system, as specified by setMatrixMode)
bool _EmitTrigger : 1;
TPSMatrixMode _UserDirectionMatrixMode;
static bool _BypassEmitOnDeath; // for edition only
private:
// common op of both versions of deleteElement
void deleteElementBase(uint32 index);
};
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
/** This class helps tuning the emission strenght.
* It modulate the speed of emitted particle by a coeeficient produced by an attribute maker
*/
class CPSModulatedEmitter
{
public:
/// ctor : the default doesn't alter speed
CPSModulatedEmitter() : _EmitteeSpeed(1.f), _EmitteeSpeedScheme(NULL)
{
}
/// dtor
virtual ~CPSModulatedEmitter()
{
delete _EmitteeSpeedScheme;
}
/** Set a new scheme for speed modulation.
* It must have been allocated with new, and will be destriyed by this object
*/
void setEmitteeSpeedScheme(CPSAttribMaker<float> *scheme)
{
delete _EmitteeSpeedScheme;
_EmitteeSpeedScheme = scheme;
if (getModulatedEmitterOwner() && scheme->hasMemory())
scheme->resize(getModulatedEmitterOwner()->getMaxSize(), getModulatedEmitterOwner()->getSize());
}
/// set a constant speed modulation for emittee
void setEmitteeSpeed(float speed)
{
delete _EmitteeSpeedScheme;
_EmitteeSpeedScheme = NULL;
_EmitteeSpeed = speed;
}
/// get the modulation speed (valid only if no scheme is used)
float getEmitteeSpeed(void) const { return _EmitteeSpeed; }
/// get the speed modulation shceme, or NULL if no one is set
CPSAttribMaker<float> *getEmitteeSpeedScheme(void) { return _EmitteeSpeedScheme; }
/// get the speed modulation shceme, or NULL if no one is set (const version)
const CPSAttribMaker<float> *getEmitteeSpeedScheme(void) const { return _EmitteeSpeedScheme; }
/// check whether a speed modulation scheme is being used
bool useEmitteeSpeedScheme(void) const { return _EmitteeSpeedScheme != NULL; }
/// serialization
void serialEmitteeSpeedScheme(NLMISC::IStream &f) throw(NLMISC::EStream);
protected:
// emitter must define this in order to allow this class to access the located owner
virtual CPSLocated *getModulatedEmitterOwner(void) = 0;
void newEmitteeSpeedElement(const CPSEmitterInfo &info)
{
if (_EmitteeSpeedScheme && _EmitteeSpeedScheme->hasMemory()) _EmitteeSpeedScheme->newElement(info);
}
void deleteEmitteeSpeedElement(uint32 index)
{
if (_EmitteeSpeedScheme && _EmitteeSpeedScheme->hasMemory()) _EmitteeSpeedScheme->deleteElement(index);
}
void resizeEmitteeSpeed(uint32 capacity)
{
if (_EmitteeSpeedScheme && _EmitteeSpeedScheme->hasMemory()) _EmitteeSpeedScheme->resize(capacity, getModulatedEmitterOwner()->getSize());
}
float _EmitteeSpeed;
CPSAttribMaker<float> *_EmitteeSpeedScheme;
};
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
/// Emit in one direction. This can be the 0, 0, 0 vector
class CPSEmitterDirectionnal : public CPSEmitter, public CPSModulatedEmitter
,public CPSDirection
{
public:
CPSEmitterDirectionnal() : _Dir(NLMISC::CVector::K)
{
if (CParticleSystem::getSerializeIdentifierFlag()) _Name = std::string("DirectionnalEmitter");
}
/// Serialisation
virtual void serial(NLMISC::IStream &f) throw(NLMISC::EStream);
NLMISC_DECLARE_CLASS(CPSEmitterDirectionnal);
virtual void emit(const NLMISC::CVector &srcPos, uint32 index, NLMISC::CVector &pos, NLMISC::CVector &speed);
void setDir(const NLMISC::CVector &v) { _Dir = v; }
NLMISC::CVector getDir(void) const { return _Dir; }
protected:
NLMISC::CVector _Dir;
virtual CPSLocated *getModulatedEmitterOwner(void) { return _Owner; }
virtual void newElement(const CPSEmitterInfo &info);
virtual void deleteElement(uint32 index);
void deleteElementBase(uint32 index);
virtual void deleteElement(uint32 index, TAnimationTime timeUntilNextSimStep);
virtual void resize(uint32 capacity);
};
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
/// A radial emitter. The direction gives the normal to the plane of emission
class CPSRadialEmitter : public CPSEmitterDirectionnal
{
public:
CPSRadialEmitter()
{
if (CParticleSystem::getSerializeIdentifierFlag()) _Name = std::string("RadialEmitter");
}
/// Serialisation
virtual void serial(NLMISC::IStream &f) throw(NLMISC::EStream);
NLMISC_DECLARE_CLASS(CPSRadialEmitter);
virtual void emit(const NLMISC::CVector &srcPos, uint32 index, NLMISC::CVector &pos, NLMISC::CVector &speed);
};
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
/// Emit randomly in all direction
class CPSEmitterOmni : public CPSEmitter, public CPSModulatedEmitter
{
public:
CPSEmitterOmni()
{
if (CParticleSystem::getSerializeIdentifierFlag()) _Name = std::string("EmitterOmni");
}
/// Serialisation
virtual void serial(NLMISC::IStream &f) throw(NLMISC::EStream);
NLMISC_DECLARE_CLASS(CPSEmitterOmni);
/// Emission of located
virtual void emit(const NLMISC::CVector &srcPos, uint32 index, NLMISC::CVector &pos, NLMISC::CVector &speed);
protected:
virtual CPSLocated *getModulatedEmitterOwner(void) { return _Owner; }
virtual void newElement(const CPSEmitterInfo &info);
virtual void deleteElement(uint32 index);
void deleteElementBase(uint32 index);
virtual void deleteElement(uint32 index, TAnimationTime timeUntilNextSimStep);
virtual void resize(uint32 capacity);
};
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
/// Emit directionnally in a rectangle (useful to produce snow, drop of water ...)
class CPSEmitterRectangle : public CPSEmitter, public CPSModulatedEmitter, public IPSMover, public CPSDirection
{
public:
// Ctor
CPSEmitterRectangle() : _Dir(-NLMISC::CVector::K)
{
if (CParticleSystem::getSerializeIdentifierFlag()) _Name = std::string("EmitterRectangle");
}
/// Serialisation
virtual void serial(NLMISC::IStream &f) throw(NLMISC::EStream);
NLMISC_DECLARE_CLASS(CPSEmitterRectangle);
/// Emission of located
virtual void emit(const NLMISC::CVector &srcPos, uint32 index, NLMISC::CVector &pos, NLMISC::CVector &speed);
virtual void setDir(const NLMISC::CVector &v) { _Dir = v; }
NLMISC::CVector getDir(void) const { return _Dir; }
void showTool(void);
// Inherited from IPSMover
virtual bool supportUniformScaling(void) const { return true; }
virtual bool supportNonUniformScaling(void) const { return true; }
virtual void setMatrix(uint32 index, const NLMISC::CMatrix &m);
virtual NLMISC::CMatrix getMatrix(uint32 index) const;
virtual void setScale(uint32 index, float scale);
virtual void setScale(uint32 index, const NLMISC::CVector &s);
NLMISC::CVector getScale(uint32 index) const;
protected:
virtual CPSLocated *getModulatedEmitterOwner(void) { return _Owner; }
CPSAttrib<CPlaneBasis> _Basis;
// Width
TPSAttribFloat _Width;
// Height
TPSAttribFloat _Height;
// Direction of emission (in each plane basis)
NLMISC::CVector _Dir;
/** Generate a new element for this bindable. They are generated according to the propertie of the class
*/
virtual void newElement(const CPSEmitterInfo &info);
/** Delete an element given its index
* Attributes of the located that hold this bindable are still accessible for of the index given
* index out of range -> nl_assert
*/
virtual void deleteElement(uint32 index);
void deleteElementBase(uint32 index);
virtual void deleteElement(uint32 index, TAnimationTime timeUntilNextSimStep);
/** Resize the bindable attributes containers. DERIVERS SHOULD CALL THEIR PARENT VERSION
* should not be called directly. Call CPSLocated::resize instead
*/
virtual void resize(uint32 size);
};
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
/// The same as a directionnel emitter, but you can also specify the radius for emission
class CPSEmitterConic : public CPSEmitterDirectionnal
{
public:
CPSEmitterConic() : _Radius(1.f)
{
if (CParticleSystem::getSerializeIdentifierFlag()) _Name = std::string("EmitterConic");
}
/// Serialisation
virtual void serial(NLMISC::IStream &f) throw(NLMISC::EStream);
NLMISC_DECLARE_CLASS(CPSEmitterConic);
/// Emission of located
virtual void emit(const NLMISC::CVector &srcPos, uint32 index, NLMISC::CVector &pos, NLMISC::CVector &speed);
/// Set a new radius for emission
void setRadius(float r) { _Radius = r; }
/// Get the emission radius
float getRadius(void) const { return _Radius; }
/// Set the direction for emission
virtual void setDir(const NLMISC::CVector &v);
protected:
// The radius for emission
float _Radius;
};
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// A spherical emitter
class CPSSphericalEmitter : public CPSEmitter, public CPSModulatedEmitter, public IPSMover
{
public:
// Ctor
CPSSphericalEmitter()
{
if (CParticleSystem::getSerializeIdentifierFlag()) _Name = std::string("spherical emitter");
}
/// Serialisation
virtual void serial(NLMISC::IStream &f) throw(NLMISC::EStream);
NLMISC_DECLARE_CLASS(CPSSphericalEmitter);
/// Emission of located
virtual void emit(const NLMISC::CVector &srcPos, uint32 index, NLMISC::CVector &pos, NLMISC::CVector &speed);
void showTool(void);
// Inherited from IPSMover
virtual bool supportUniformScaling(void) const { return true; }
virtual bool supportNonUniformScaling(void) const { return false; }
virtual void setMatrix(uint32 index, const NLMISC::CMatrix &m);
virtual NLMISC::CMatrix getMatrix(uint32 index) const;
virtual void setScale(uint32 index, float scale) { _Radius[index] = scale; }
NLMISC::CVector getScale(uint32 index) const { return NLMISC::CVector(_Radius[index], _Radius[index], _Radius[index]); }
protected:
virtual CPSLocated *getModulatedEmitterOwner(void) { return _Owner; }
TPSAttribFloat _Radius;
virtual void newElement(const CPSEmitterInfo &info);
virtual void deleteElement(uint32 index);
void deleteElementBase(uint32 index);
virtual void deleteElement(uint32 index, TAnimationTime timeUntilNextSimStep);
virtual void resize(uint32 size);
};
} // NL3D
namespace NLMISC
{
// toString implementation for NL3D::CPSEmitter::TEmissionType
std::string toString(NL3D::CPSEmitter::TEmissionType type);
}
#endif // NL_PS_EMITTER_H
/* End of ps_emitter.h */