/usr/include/OTB-6.4/otbSoilIndicesFunctor.h is in libotb-dev 6.4.0+dfsg-1.
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* Copyright (C) 2005-2017 Centre National d'Etudes Spatiales (CNES)
*
* This file is part of Orfeo Toolbox
*
* https://www.orfeo-toolbox.org/
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#ifndef otbSoilIndicesFunctor_h
#define otbSoilIndicesFunctor_h
#include "otbMath.h"
#include "itkVariableLengthVector.h"
#include "otbBandName.h"
namespace otb
{
namespace Functor
{
/**
* \class GAndRIndexBase
*
* \brief Base class for Green And Red channels of Spot Images
* XS1 corresponds to the green channel
* XS2 corresponds to the red channel
* XS3 corresponds to the Nir channel
* XS4 corresponds to the Mir channel (for Spot 4 & 5)
* Implement operators for UnaryFunctorImageFilter templated with a
* VectorImage and BinaryFunctorImageFilter templated with single
* images.
* Subclasses should NOT overload operators, they must re-implement
* the Evaluate() method.
*
* \ingroup Radiometry
*
* \ingroup OTBIndices
*/
template<class TInput1, class TInput2, class TOutput>
class GAndRIndexBase
{
public:
/// Vector pixel type used to support both vector images and multiple
/// input images
typedef itk::VariableLengthVector<TInput1> InputVectorType;
//operators !=
bool operator !=(const GAndRIndexBase&) const
{
return true;
}
//operator ==
bool operator ==(const GAndRIndexBase& other) const
{
return !(*this != other);
}
// Operator on vector pixel type
inline TOutput operator ()(const InputVectorType& inputVector) const
{
return this->Evaluate(inputVector[m_GreenIndex - 1], static_cast<TInput2>(inputVector[m_RedIndex - 1]));
}
// Binary operator
inline TOutput operator ()(const TInput1& g, const TInput2& r) const
{
return this->Evaluate(g, r);
}
/// Constructor
GAndRIndexBase() : m_EpsilonToBeConsideredAsZero(0.0000001), m_GreenIndex(1), m_RedIndex(2) {}
/// Desctructor
virtual ~GAndRIndexBase() {}
/// Set Green Index
void SetGreenIndex(unsigned int channel)
{
m_GreenIndex = channel;
}
/// Get Green Index
unsigned int GetGreenIndex() const
{
return m_GreenIndex;
}
/// Set Red Index
void SetRedIndex(unsigned int channel)
{
m_RedIndex = channel;
}
/// Get Red Index
unsigned int GetRedIndex() const
{
return m_RedIndex;
}
/** Set index, generic method */
void SetIndex(BandName::BandName band, unsigned int channel)
{
if (band == BandName::RED)
{
m_RedIndex = channel;
}
if (band == BandName::GREEN)
{
m_GreenIndex = channel;
}
}
/** Get index, generic method */
unsigned int GetIndex(BandName::BandName band) const
{
if (band == BandName::RED)
{
return m_RedIndex;
}
if (band == BandName::GREEN)
{
return m_GreenIndex;
}
}
/** Return the index name */
virtual std::string GetName() const = 0;
protected:
// This method must be reimplemented in subclasses to actually
// compute the index value
virtual TOutput Evaluate(const TInput1& g, const TInput2& r) const = 0;
double m_EpsilonToBeConsideredAsZero;
private:
unsigned int m_GreenIndex;
unsigned int m_RedIndex;
};
/**
* \class GAndRAndNirIndexBase
* \brief Base class for Green And Red And NIR channels of Spot Images
*
*
* \ingroup Radiometry
*
* \ingroup OTBIndices
*/
template<class TInput1, class TInput2, class TInput3, class TOutput>
class GAndRAndNirIndexBase
{
public:
/// Vector pixel type used to support both vector images and multiple
/// input images
typedef itk::VariableLengthVector<TInput1> InputVectorType;
//operators !=
bool operator !=(const GAndRAndNirIndexBase&) const
{
return true;
}
//operator ==
bool operator ==(const GAndRAndNirIndexBase& other) const
{
return !(*this != other);
}
// Operator on vector pixel type
inline TOutput operator ()(const InputVectorType& inputVector) const
{
return this->Evaluate(static_cast<TInput1>(inputVector[m_GreenIndex - 1]),
static_cast<TInput2>(inputVector[m_RedIndex - 1]),
static_cast<TInput3>(inputVector[m_NIRIndex - 1]));
}
// Binary operator
inline TOutput operator ()(const TInput1& g, const TInput2& r, const TInput2& nir) const
{
return this->Evaluate(g, r, nir);
}
/// Constructor
GAndRAndNirIndexBase() : m_EpsilonToBeConsideredAsZero(0.0000001), m_GreenIndex(1), m_RedIndex(2), m_NIRIndex(3) {}
/// Desctructor
virtual ~GAndRAndNirIndexBase() {}
/// Set Green Index
void SetGreenIndex(unsigned int channel)
{
m_GreenIndex = channel;
}
/// Get Green Index
unsigned int GetGreenIndex() const
{
return m_GreenIndex;
}
/// Set Red Index
void SetRedIndex(unsigned int channel)
{
m_RedIndex = channel;
}
/// Get Red Index
unsigned int GetRedIndex() const
{
return m_RedIndex;
}
/// Set Nir Index
void SetNIRIndex(unsigned int channel)
{
m_NIRIndex = channel;
}
/// Get Nir Index
unsigned int GetNIRIndex() const
{
return m_NIRIndex;
}
/** Set index, generic method */
void SetIndex(BandName::BandName band, unsigned int channel)
{
if (band == BandName::RED)
{
m_RedIndex = channel;
}
if (band == BandName::GREEN)
{
m_GreenIndex = channel;
}
if (band == BandName::NIR)
{
m_NIRIndex = channel;
}
}
/** Get index, generic method */
unsigned int GetIndex(BandName::BandName band) const
{
if (band == BandName::RED)
{
return m_RedIndex;
}
if (band == BandName::GREEN)
{
return m_GreenIndex;
}
if (band == BandName::NIR)
{
return m_NIRIndex;
}
}
/** Return the index name */
virtual std::string GetName() const = 0;
protected:
// This method must be reimplemented in subclasses to actually
// compute the index value
virtual TOutput Evaluate(const TInput1& g, const TInput2& r, const TInput2& nir) const = 0;
double m_EpsilonToBeConsideredAsZero;
private:
unsigned int m_GreenIndex;
unsigned int m_RedIndex;
unsigned int m_NIRIndex;
};
/** \class IR
* \brief This functor computes the Redness Index (IR)
*
* [Pouget et al., "Caracteristiques spectrales des surfaces sableuses
* de la region cotiere nord-ouest de l'Egypte: application aux donnees
* satellitaires Spot, In: 2eme Journeees de Teledetection: Caracterisation
* et suivi des milieux terrestres en regions arides et tropicales. 4-6/12/1990
* Ed. ORSTOM, Collection Colloques et Seminaires, Paris, pp. 27-38]
*
* \ingroup Functor
* \ingroup Radiometry
*
* \ingroup OTBIndices
*/
template <class TInput1, class TInput2, class TOutput>
class IR : public GAndRIndexBase<TInput1, TInput2, TOutput>
{
public:
/** Return the index name */
std::string GetName() const ITK_OVERRIDE
{
return "IR";
}
/// Constructor
IR() {}
/// Desctructor
~IR() ITK_OVERRIDE {}
// Operator on r and nir single pixel values
protected:
inline TOutput Evaluate(const TInput1& pGreen, const TInput2& pRed) const ITK_OVERRIDE
{
double dGreen = static_cast<double>(pGreen);
double dRed = static_cast<double>(pRed);
if (vcl_abs(dGreen) < this->m_EpsilonToBeConsideredAsZero)
{
return static_cast<TOutput>(0.);
}
return static_cast<TOutput>(dRed * dRed / (dGreen * dGreen * dGreen));
}
};
/** \class IC
* \brief This functor computes the Color Index (IC)
*
* [Pouget et al., "Caracteristiques spectrales des surfaces sableuses
* de la region cotiere nord-ouest de l'Egypte: application aux donnees
* satellitaires Spot, In: 2eme Journeees de Teledetection: Caracterisation
* et suivi des milieux terrestres en regions arides et tropicales. 4-6/12/1990
* Ed. ORSTOM, Collection Colloques et Seminaires, Paris, pp. 27-38]
*
* \ingroup Functor
* \ingroup Radiometry
*
* \ingroup OTBIndices
*/
template <class TInput1, class TInput2, class TOutput>
class IC : public GAndRIndexBase<TInput1, TInput2, TOutput>
{
public:
/** Return the index name */
std::string GetName() const ITK_OVERRIDE
{
return "IC";
}
/// Constructor
IC() {}
/// Desctructor
~IC() ITK_OVERRIDE {}
// Operator on r and nir single pixel values
protected:
inline TOutput Evaluate(const TInput1& pGreen, const TInput2& pRed) const ITK_OVERRIDE
{
double dGreen = static_cast<double>(pGreen);
double dRed = static_cast<double>(pRed);
if (vcl_abs(dGreen + dRed) < this->m_EpsilonToBeConsideredAsZero)
{
return static_cast<TOutput>(0.);
}
return (static_cast<TOutput>((dRed - dGreen) / (dRed + dGreen)));
}
};
/** \class IB
* \brief This functor computes the Brilliance Index (IB)
*
* [ ]
*
* \ingroup Functor
* \ingroup Radiometry
*
* \ingroup OTBIndices
*/
template <class TInput1, class TInput2, class TOutput>
class IB : public GAndRIndexBase<TInput1, TInput2, TOutput>
{
public:
/** Return the index name */
std::string GetName() const ITK_OVERRIDE
{
return "IB";
}
/// Constructor
IB() {}
/// Desctructor
~IB() ITK_OVERRIDE {}
// Operator on r and nir single pixel values
protected:
inline TOutput Evaluate(const TInput1& pGreen, const TInput2& pRed) const ITK_OVERRIDE
{
double dGreen = static_cast<double>(pGreen);
double dRed = static_cast<double>(pRed);
return (static_cast<TOutput>(vcl_sqrt((dRed * dRed + dGreen * dGreen) / 2.)));
}
};
/** \class IB2
* \brief This functor computes the Brilliance Index (IB2)
*
* [ ]
*
* \ingroup Functor
* \ingroup Radiometry
*
* \ingroup OTBIndices
*/
template <class TInput1, class TInput2, class TInput3, class TOutput>
class IB2 : public GAndRAndNirIndexBase<TInput1, TInput2, TInput3, TOutput>
{
public:
/** Return the index name */
std::string GetName() const ITK_OVERRIDE
{
return "IB2";
}
/// Constructor
IB2() {}
/// Desctructor
~IB2() ITK_OVERRIDE {}
// Operator on r and nir single pixel values
protected:
inline TOutput Evaluate(const TInput1& pGreen, const TInput2& pRed, const TInput2& pNir) const ITK_OVERRIDE
{
double dGreen = static_cast<double>(pGreen);
double dRed = static_cast<double>(pRed);
double dNir = static_cast<double>(pNir);
return (static_cast<TOutput>(vcl_sqrt((dRed * dRed + dGreen * dGreen + dNir * dNir) / 3.)));
}
};
} // namespace Functor
} // namespace otb
#endif
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