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| Current Path : /proc/self/root/usr/include/CLAM/ |
| Current File : //proc/self/root/usr/include/CLAM/SpectrumProduct.hxx |
/*
* Copyright (c) 2001-2004 MUSIC TECHNOLOGY GROUP (MTG)
* UNIVERSITAT POMPEU FABRA
*
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 2 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 General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef _SPECTRUM_PRODUCT_
#define _SPECTRUM_PRODUCT_
#include "Processing.hxx"
#include "DynamicType.hxx"
#include "InPort.hxx"
#include "OutPort.hxx"
#include "Spectrum.hxx"
namespace CLAM {
/** This class performs the product of two Spectrum processing data
* objects. Its primary use will be to allow frecuency domain
* filtering, by taking the frecuency response as one of its inputs.
* (It implements the funcionality provided in the old
* CCLAMApplyFDFilter class).
* <p>
* It Allows any possible attribute configuration in its inputs and in
* its output, but it performs faster when prototype configuration of
* the data is specified using SetPrototypes(...), in certain
* situations:
* <ul>
* <li> When all the inputs and the outputs have a common attribute
* (not the BPF), and the same scale.
* <li> When one of the inputs has just a BPF attribute, and both the
* other input and the output have a common (non-BPF) attribute
* with the same scale in both objects.
* <li> In other cases, at least a vector conversion will be executed
* in one of the involved processing data objects. In some bad
* situations two conversions might be needed.
* </ul><p>
* @todo
* Possible optimisations (which require more states):
* <ul>
* <li> Implement direct product routines with inputs/outpust in
* different formats, and add the corresponding prototype states.
* <li> Expand the state space to avoid checking if the attribute to be
* used in the computation is instantiated in each of the objects.
* Right now the same state is used when the three objects have a
* common attribute, and when a common attribute is to be used, but
* some of the objects lack it (and need format conversion).
* </ul>
* <p>
* The BPFxBPF product is being thought. If both BPFs have the same
* range and point possition, the way to go is obvious, but in other
* situations it is not so simple. Whe should probably merge both
* BPFs, into a new BPF. */
class SpectrumProduct: public Processing
{
/** Size of the input/output vectors */
int mSize;
/** Possible configuration/prototype states */
typedef enum {
// Type states in with the same attribute is used for all
// of the inputs and the outputs (it may or may not be
// present; in the second case it will be added at Do(...)
// time.
SMagPhase, SComplex, SPolar,
// BPF output product
SBPF,
// Type states with only a BPF attribute in one of the
// inputs, other type in the other input and the
// output. The non-BPF attribute may or may not be
// instantiated. In the second case it will be added at
// Do(...) time.
SBPFMagPhase, SBPFComplex, SBPFPolar, SMagPhaseBPF,
SComplexBPF, SPolarBPF,
// State in which nothing is known about prototypes.
SOther
} PrototypeState;
/** Possible scale combinations */
typedef enum { Slinlin, Sloglog, Slinlog, Sloglin} ScaleState;
/** Config/Prototype state */
PrototypeState mProtoState;
/** Scale combination state */
ScaleState mScaleState;
const char *GetClassName() const {return "SpectrumProduct";}
public:
InPort<Spectrum> mInput1;
InPort<Spectrum> mInput2;
OutPort<Spectrum> mOutput;
SpectrumProduct(const Config &c=Config());
virtual ~SpectrumProduct();
bool Do();
bool Do(Spectrum& in1, Spectrum& in2, Spectrum& out);
// Port interfaces.
/** Change the internal type state.
* Apart from prototype configuration, the Size, Scale and
* SpectralRange attributes of each Spectrum are also
* checked.
*/
bool SetPrototypes(const Spectrum& in1,const Spectrum& in2,const Spectrum& out);
bool SetPrototypes();
bool UnsetPrototypes();
bool MayDisableExecution() const {return true;}
private:
/** Unoptimised internal multiplication method, when
* prototypes are not known (state SOther)
*/
inline void Multiply(Spectrum& in1, Spectrum& in2, Spectrum& out);
// Product methods for optimized configurations of the inputs/output
// Direct products
inline void MultiplyMagPhase(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyMagPhaseLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyMagPhaseLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyMagPhaseLinLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyComplex(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyComplexLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyComplexLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyComplexLinLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyPolar(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyPolarLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyPolarLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyPolarLinLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
// BPF Product
inline void MultiplyBPF(Spectrum& in1, Spectrum& in2, Spectrum& out);
// BPF filters application
inline void MultiplyBPFLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFLinLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFMagPhase(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyMagPhaseBPF(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFMagPhaseLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFMagPhaseLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFMagPhaseLinLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFMagPhaseLogLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFComplex(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyComplexBPF(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFComplexLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFComplexLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFComplexLinLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFComplexLogLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFPolar(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyPolarBPF(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFPolarLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFPolarLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFPolarLinLog(Spectrum& in1, Spectrum& in2, Spectrum& out);
inline void MultiplyBPFPolarLogLin(Spectrum& in1, Spectrum& in2, Spectrum& out);
};
}
#endif // _SPECTRUM_PRODUCT_
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