multiGridDataAnalysisWrapper3D.hh

Go to the documentation of this file.

/* This file is part of the Palabos library.
 *
 * Copyright (C) 2011 FlowKit Sarl
 * Avenue de Chailly 23
 * 1012 Lausanne, Switzerland
 * E-mail contact: contact@flowkit.com
 *
 * The most recent release of Palabos can be downloaded at 
 * <http://www.palabos.org/>
 *
 * The library Palabos 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.
 *
 * The library 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/>.
*/

/* Main author: Daniel Lagrava
 **/


#ifndef MULTI_GRID_DATA_ANALYSIS_WRAPPER_3D_HH
#define MULTI_GRID_DATA_ANALYSIS_WRAPPER_3D_HH

#include "dataProcessors/dataAnalysisWrapper3D.h"
#include "multiGrid/multiGridDataProcessorWrapper3D.h"
#include "multiGrid/multiGridDataAnalysisWrapper3D.h"

namespace plb {
    
/* *************** Reductive functions ******************************* */

template<typename T>
T computeAverage(MultiGridScalarField3D<T>& scalarField, Box3D domain) {
    BoxScalarSumFunctional3D<T> functional;
    applyProcessingFunctional(functional, domain, scalarField, scalarField.getReferenceLevel());
    return functional.getSumScalar() / (T) domain.nCells();
}

template<typename T>
T computeAverage(MultiGridScalarField3D<T>& scalarField) {
    return computeAverage(scalarField, scalarField.getBoundingBox());
}


template<typename T>
T computeMin(MultiGridScalarField3D<T>& scalarField, Box3D domain) {
    BoxScalarMinFunctional3D<T> functional;
    applyProcessingFunctional(functional, domain, scalarField, scalarField.getReferenceLevel());
    return functional.getMinScalar();
}

template<typename T>
T computeMin(MultiGridScalarField3D<T>& scalarField) {
    return computeMin(scalarField, scalarField.getBoundingBox());
}


template<typename T>
T computeMax(MultiGridScalarField3D<T>& scalarField, Box3D domain) {
    BoxScalarMaxFunctional3D<T> functional;
    applyProcessingFunctional(functional, domain, scalarField,scalarField.getReferenceLevel());
    return functional.getMaxScalar();
}

template<typename T>
T computeMax(MultiGridScalarField3D<T>& scalarField) {
    return computeMax(scalarField, scalarField.getBoundingBox());
}


template<typename T>
T computeBoundedAverage(MultiGridScalarField3D<T>& scalarField, Box3D domain) {
    BoundedBoxScalarSumFunctional3D<T> functional;
    plint envelopeWidth=1;
    applyProcessingFunctional(functional, domain, scalarField, scalarField.getReferenceLevel(), envelopeWidth);
    return functional.getSumScalar() /
             (T) ( (domain.getNx()-1)*(domain.getNy()-1)*(domain.getNz()-1));
}

template<typename T>
T computeBoundedAverage(MultiGridScalarField3D<T>& scalarField) {
    return computeBoundedAverage(scalarField, scalarField.getBoundingBox());
}


template<typename T, class BoolMask> 
plint count(MultiGridScalarField3D<T>& field, Box3D domain, BoolMask boolMask)
{
    CountScalarElementsFunctional3D<T,BoolMask> functional(boolMask);
    applyProcessingFunctional(functional, domain, field, field.getReferenceLevel());
    return functional.getCount();
}

template<typename T, class BoolMask> 
plint count(MultiGridScalarField3D<T>& field, BoolMask boolMask)
{
    return count(field, field.getBoundingBox(), boolMask);
}

/* *************** Extract Sub-Lattice ******************************* */

template<typename T, template<typename U> class Descriptor>
void extractSubDomain( MultiGridLattice3D<T,Descriptor>& lattice,
                       MultiGridLattice3D<T,Descriptor>& extractedLattice,
                       Box3D domain)
{
    applyProcessingFunctional (
            new LatticeRegenerateFunctional3D<T,Descriptor>, domain, lattice, extractedLattice,
            lattice.getReferenceLevel() );
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridLattice3D<T,Descriptor> > extractSubDomain(
        MultiGridLattice3D<T,Descriptor>& lattice, Box3D domain )
{
    MultiGridLattice3D<T,Descriptor>* extractedLattice = new MultiGridLattice3D<T,Descriptor>(lattice, domain);
    extractSubDomain(lattice, *extractedLattice, domain);
    return std::auto_ptr<MultiGridLattice3D<T,Descriptor> >(extractedLattice);
}


/* *************** Density ******************************************* */

template<typename T, template<typename U> class Descriptor>
void computeDensity(MultiGridLattice3D<T,Descriptor>& lattice, MultiGridScalarField3D<T>& density, Box3D domain)
{
    applyProcessingFunctional (
            new BoxDensityFunctional3D<T,Descriptor>, domain, lattice, density,lattice.getReferenceLevel() );
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeDensity(MultiGridLattice3D<T,Descriptor>& lattice, Box3D domain)
{
    MultiGridScalarField3D<T>* density = new MultiGridScalarField3D<T>(lattice, domain);
    computeDensity(lattice, *density, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(density);
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeDensity(MultiGridLattice3D<T,Descriptor>& lattice) {
    return computeDensity(lattice, lattice.getBoundingBox());
}


/* *************** RhoBar ******************************************* */

template<typename T, template<typename U> class Descriptor>
void computeRhoBar(MultiGridLattice3D<T,Descriptor>& lattice, MultiGridScalarField3D<T>& rhoBar, Box3D domain)
{
    applyProcessingFunctional (
            new BoxRhoBarFunctional3D<T,Descriptor>, domain, lattice, rhoBar, lattice.getReferenceLevel() );
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeRhoBar(MultiGridLattice3D<T,Descriptor>& lattice, Box3D domain)
{
    MultiGridScalarField3D<T>* rhoBar = new MultiGridScalarField3D<T>(lattice, domain);
    computeRhoBar(lattice, *rhoBar, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(rhoBar);
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeRhoBar(MultiGridLattice3D<T,Descriptor>& lattice) {
    return computeRhoBar(lattice, lattice.getBoundingBox());
}


/* *************** Kinetic Energy ************************************ */

template<typename T, template<typename U> class Descriptor>
void computeKineticEnergy(MultiGridLattice3D<T,Descriptor>& lattice, MultiGridScalarField3D<T>& energy, Box3D domain)
{
    applyProcessingFunctional (
            new BoxKineticEnergyFunctional3D<T,Descriptor>, domain, lattice, energy, lattice.getReferenceLevel() );
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeKineticEnergy(MultiGridLattice3D<T,Descriptor>& lattice, Box3D domain)
{
    MultiGridScalarField3D<T>* energy = new MultiGridScalarField3D<T>(lattice, domain);
    computeKineticEnergy(lattice, *energy, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(energy);
}   

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeKineticEnergy(MultiGridLattice3D<T,Descriptor>& lattice) {
    return computeKineticEnergy(lattice, lattice.getBoundingBox());
}


/* *************** Velocity Norm ************************************* */

template<typename T, template<typename U> class Descriptor>
void computeVelocityNorm(
        MultiGridLattice3D<T,Descriptor>& lattice, MultiGridScalarField3D<T>& velocityNorm, Box3D domain )
{
    applyProcessingFunctional (
            new BoxVelocityNormFunctional3D<T,Descriptor>, domain, lattice, velocityNorm,
                               lattice.getReferenceLevel() );
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeVelocityNorm(MultiGridLattice3D<T,Descriptor>& lattice, Box3D domain)
{
    MultiGridScalarField3D<T>* velocityNorm = new MultiGridScalarField3D<T>(lattice, domain);
    computeVelocityNorm(lattice, *velocityNorm, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(velocityNorm);
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeVelocityNorm(MultiGridLattice3D<T,Descriptor>& lattice) {
    return computeVelocityNorm(lattice, lattice.getBoundingBox());
}


/* *************** Velocity Component ******************************** */

template<typename T, template<typename U> class Descriptor>
void computeVelocityComponent(MultiGridLattice3D<T,Descriptor>& lattice, MultiGridScalarField3D<T>& velocityComponent,
                              Box3D domain, plint iComponent)
{
    applyProcessingFunctional (
            new BoxVelocityComponentFunctional3D<T,Descriptor>(iComponent), domain, lattice, velocityComponent,
            lattice.getReferenceLevel() );
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeVelocityComponent(MultiGridLattice3D<T,Descriptor>& lattice,
                                                               Box3D domain, plint iComponent)
{
    MultiGridScalarField3D<T>* velocityComponent = new MultiGridScalarField3D<T>(lattice, domain);
    computeVelocityComponent(lattice, *velocityComponent, domain, iComponent);
    return std::auto_ptr<MultiGridScalarField3D<T> >(velocityComponent);
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeVelocityComponent(
                MultiGridLattice3D<T,Descriptor>& lattice, plint iComponent )
{
    return computeVelocityComponent(lattice, lattice.getBoundingBox(), iComponent);
}


/* *************** Velocity ****************************************** */

template<typename T, template<typename U> class Descriptor>
void computeVelocity( MultiGridLattice3D<T,Descriptor>& lattice,
                      MultiGridTensorField3D<T,Descriptor<T>::d>& velocity, Box3D domain )
{
    applyProcessingFunctional (
            new BoxVelocityFunctional3D<T,Descriptor>, domain, lattice, velocity, lattice.getReferenceLevel() );
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridTensorField3D<T,Descriptor<T>::d> > computeVelocity(MultiGridLattice3D<T,Descriptor>& lattice,
Box3D domain)
{
    MultiGridTensorField3D<T,Descriptor<T>::d>* velocity
        = new MultiGridTensorField3D<T,Descriptor<T>::d>(lattice, domain);
    computeVelocity(lattice, *velocity, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,Descriptor<T>::d> >(velocity);
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridTensorField3D<T,Descriptor<T>::d> >
    computeVelocity(MultiGridLattice3D<T,Descriptor>& lattice)
{
    return computeVelocity(lattice, lattice.getBoundingBox());
}


/* *************** Deviatoric Stress ********************************* */

template<typename T, template<typename U> class Descriptor>
void computeDeviatoricStress( MultiGridLattice3D<T,Descriptor>& lattice,
                              MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n>& PiNeq,
                              Box3D domain )
{
    applyProcessingFunctional (
            new BoxDeviatoricStressFunctional3D<T,Descriptor>, domain, lattice, PiNeq, lattice.getReferenceLevel() );
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n> >
    computeDeviatoricStress(MultiGridLattice3D<T,Descriptor>& lattice, Box3D domain)
{
    MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n>* PiNeq
        = new MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n>(lattice, domain);
    computeDeviatoricStress(lattice, *PiNeq, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n> >(PiNeq);
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n> >
    computeDeviatoricStress(MultiGridLattice3D<T,Descriptor>& lattice)
{
    return computeDeviatoricStress(lattice, lattice.getBoundingBox());
}


/* *************** Strain Rate from Stress *************************** */

template<typename T, template<typename U> class Descriptor>
void computeStrainRateFromStress( MultiGridLattice3D<T,Descriptor>& lattice,
                                  MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n>& S,
                                  Box3D domain )
{
    applyProcessingFunctional (
            new BoxStrainRateFromStressFunctional3D<T,Descriptor>, domain, lattice, S, lattice.getReferenceLevel() );
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n> >
    computeStrainRateFromStress(MultiGridLattice3D<T,Descriptor>& lattice, Box3D domain)
{
    MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n>* S
        = new MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n>(lattice, domain);
    computeStrainRateFromStress(lattice, *S, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n> >(S);
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridTensorField3D<T,SymmetricTensor<T,Descriptor>::n> >
    computeStrainRateFromStress(MultiGridLattice3D<T,Descriptor>& lattice)
{
    return computeStrainRateFromStress(lattice, lattice.getBoundingBox());
}

/* *************** Temperature ******************************************* */
//TODO

/* *************** SoundSpeed ******************************************* */
//TODO

/* *************** Population **************************************** */

template<typename T, template<typename U> class Descriptor>
void computePopulation(MultiGridLattice3D<T,Descriptor>& lattice, MultiGridScalarField3D<T>& population,
                       Box3D domain, plint iPop)
{
    applyProcessingFunctional (
        new BoxPopulationFunctional3D<T,Descriptor>(iPop), domain, lattice, population,lattice.getReferenceLevel());
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computePopulation(MultiGridLattice3D<T,Descriptor>& lattice,
                                                        Box3D domain, plint iPop)
{
    MultiGridScalarField3D<T>* population = new MultiGridScalarField3D<T>(lattice, domain);
    computePopulation(lattice, *population, domain, iPop);
    return std::auto_ptr<MultiGridScalarField3D<T> >(population);
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computePopulation(MultiGridLattice3D<T,Descriptor>& lattice, plint iPop)
{
    return computePopulation(lattice, lattice.getBoundingBox(), iPop);
}

template<typename T, template<typename U> class Descriptor>
void computeAllPopulations(MultiGridLattice3D<T,Descriptor>& lattice, 
                           MultiGridTensorField3D<T,Descriptor<T>::q>& populations,
                           Box3D domain)
{
    applyProcessingFunctional (
       new BoxAllPopulationsFunctional3D<T,Descriptor>(), domain, lattice, populations,lattice.getReferenceLevel());
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridScalarField3D<T> > computeAllPopulations(MultiGridLattice3D<T,Descriptor>& lattice,
                                                            Box3D domain)
{
    MultiGridTensorField3D<T,Descriptor<T>::q>* populations = 
            new MultiGridTensorField3D<T,Descriptor<T>::q>(lattice, domain);
    computeAllPopulations(lattice, *populations, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,Descriptor<T>::q> >(populations);
}

template<typename T, template<typename U> class Descriptor>
std::auto_ptr<MultiGridTensorField3D<T,Descriptor<T>::q> > computeAllPopulations(MultiGridLattice3D<T,Descriptor>&
lattice)
{
    return computeAllPopulations(lattice, lattice.getBoundingBox());
}

template<typename T, template<typename U> class Descriptor>
void copyPopulations(MultiGridLattice3D<T,Descriptor>& latticeFrom, MultiGridLattice3D<T,Descriptor>& latticeTo,
                     Box3D domain)
{
    applyProcessingFunctional (
            new CopyPopulationsFunctional3D<T,Descriptor>(), domain, latticeFrom, latticeTo );
}

/* *************** Extract Sub-ScalarField *************************** */

template<typename T>
void extractSubDomain( MultiGridScalarField3D<T>& field,
                       MultiGridScalarField3D<T>& extractedField,
                       Box3D domain)
{
    applyProcessingFunctional (
            new ExtractScalarSubDomainFunctional3D<T>, domain, field, extractedField, field.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > extractSubDomain(MultiGridScalarField3D<T>& field, Box3D domain)
{
    MultiGridScalarField3D<T>* extractedField = new MultiGridScalarField3D<T>(field, domain);
    extractSubDomain(field, *extractedField, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(extractedField);
}

/* *************** MultiScalarField - Scalar operations *************** */

template<typename T>
void add(MultiGridScalarField3D<T>& field, T scalar, MultiGridScalarField3D<T>& result, Box3D domain)
{
    applyProcessingFunctional (
            new A_plus_alpha_functional3D<T>(scalar), domain, field, result, field.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > add(MultiGridScalarField3D<T>& field, T scalar, Box3D domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(field, domain);
    add(field, scalar, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > add(MultiGridScalarField3D<T>& field, T scalar)
{
    return add(field, scalar, field.getBoundingBox());
}


template<typename T>
void add(T scalar, MultiGridScalarField3D<T>& field, MultiGridScalarField3D<T>& result, Box3D domain)
{
    applyProcessingFunctional (
            new A_plus_alpha_functional3D<T>(scalar), domain, field, result, field.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > add(T scalar, MultiGridScalarField3D<T>& field, Box3D domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(field, domain);
    add(scalar, field, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > add(T scalar, MultiGridScalarField3D<T>& field)
{
    return add(scalar, field, field.getBoundingBox());
}


template<typename T>
void subtract(MultiGridScalarField3D<T>& field, T scalar, MultiGridScalarField3D<T>& result, Box3D domain)
{
    applyProcessingFunctional (
            new A_minus_alpha_functional3D<T>(scalar), domain, field, result, field.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > subtract(MultiGridScalarField3D<T>& field, T scalar, Box3D domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(field, domain);
    subtract(field, scalar, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > subtract(MultiGridScalarField3D<T>& field, T scalar)
{
    return subtract(field, scalar, field.getBoundingBox());
}


template<typename T>
void subtract(T scalar, MultiGridScalarField3D<T>& field, MultiGridScalarField3D<T>& result, Box3D domain)
{
    applyProcessingFunctional (
            new Alpha_minus_A_functional3D<T>(scalar), domain, field, result, field.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > subtract(T scalar, MultiGridScalarField3D<T>& field, Box3D domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(field, domain);
    subtract(scalar, field, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > subtract(T scalar, MultiGridScalarField3D<T>& field)
{
    return subtract(scalar, field, field.getBoundingBox());
}


template<typename T>
void multiply(MultiGridScalarField3D<T>& field, T scalar, MultiGridScalarField3D<T>& result, Box3D domain)
{
    applyProcessingFunctional (
            new A_times_alpha_functional3D<T>(scalar), domain, field, result, field.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > multiply(MultiGridScalarField3D<T>& field, T scalar, Box3D domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(field, domain);
    multiply(field, scalar, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > multiply(MultiGridScalarField3D<T>& field, T scalar)
{
    return multiply(field, scalar, field.getBoundingBox());
}


template<typename T>
void multiply(T scalar, MultiGridScalarField3D<T>& field, MultiGridScalarField3D<T>& result, Box3D domain)
{
    applyProcessingFunctional (
            new A_times_alpha_functional3D<T>(scalar), domain, field, result, field.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > multiply(T scalar, MultiGridScalarField3D<T>& field, Box3D domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(field, domain);
    multiply(scalar, field, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > multiply(T scalar, MultiGridScalarField3D<T>& field)
{
    return multiply(scalar, field, field.getBoundingBox());
}


template<typename T>
void divide(MultiGridScalarField3D<T>& field, T scalar, MultiGridScalarField3D<T>& result, Box3D domain)
{
    applyProcessingFunctional (
            new A_dividedBy_alpha_functional3D<T>(scalar), domain, field, result, field.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > divide(MultiGridScalarField3D<T>& field, T scalar, Box3D domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(field, domain);
    divide(field, scalar, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > divide(MultiGridScalarField3D<T>& field, T scalar)
{
    return divide(field, scalar, field.getBoundingBox());
}


template<typename T>
void divide(T scalar, MultiGridScalarField3D<T>& field, MultiGridScalarField3D<T>& result, Box3D domain)
{
    applyProcessingFunctional (
            new Alpha_dividedBy_A_functional3D<T>(scalar), domain, field, result, field.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > divide(T scalar, MultiGridScalarField3D<T>& field, Box3D domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(field, domain);
    divide(scalar, field, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > divide(T scalar, MultiGridScalarField3D<T>& field)
{
    return divide(scalar, field, field.getBoundingBox());
}


/* *************** MultiScalarField - Scalar inplace operations *************** */

template<typename T>
void addInPlace(MultiGridScalarField3D<T>& field, T scalar, Box3D domain) {
    applyProcessingFunctional (
            new A_plus_alpha_inplace_functional3D<T>(scalar), domain, field, field.getReferenceLevel());
}

template<typename T>
void addInPlace(MultiGridScalarField3D<T>& field, T scalar) {
    addInPlace(field, scalar, field.getBoundingBox());
}


template<typename T>
void subtractInPlace(MultiGridScalarField3D<T>& field, T scalar, Box3D domain) {
    applyProcessingFunctional (
            new A_minus_alpha_inplace_functional3D<T>(scalar), domain, field, field.getReferenceLevel());
}

template<typename T>
void subtractInPlace(MultiGridScalarField3D<T>& field, T scalar) {
    subtractInPlace(field, scalar, field.getBoundingBox());
}


template<typename T>
void multiplyInPlace(MultiGridScalarField3D<T>& field, T scalar, Box3D domain) {
    applyProcessingFunctional (
            new A_times_alpha_inplace_functional3D<T>(scalar), domain, field, field.getReferenceLevel());
}

template<typename T>
void multiplyInPlace(MultiGridScalarField3D<T>& field, T scalar) {
    multiplyInPlace(field, scalar, field.getBoundingBox());
}


template<typename T>
void divideInPlace(MultiGridScalarField3D<T>& field, T scalar, Box3D domain) {
    applyProcessingFunctional (
            new A_dividedBy_alpha_inplace_functional3D<T>(scalar), domain, field, field.getReferenceLevel());
}

template<typename T>
void divideInPlace(MultiGridScalarField3D<T>& field, T scalar) {
    divideInPlace(field, scalar, field.getBoundingBox());
}


/* *************** MultiScalarField - MultiScalarField operations *************** */

template<typename T1, typename T2>
void copyConvert(MultiGridScalarField3D<T1>& field, MultiGridScalarField3D<T2>& convertedField, Box3D domain)
{
    applyProcessingFunctional (
            new CopyConvertScalarFunctional3D<T1,T2>, domain, field, convertedField, field.getReferenceLevel() );
}

template<typename T1, typename T2>
std::auto_ptr<MultiGridScalarField3D<T2> > copyConvert(MultiGridScalarField3D<T1>& field, Box3D domain)
{
    MultiGridScalarField3D<T2>* convertedField = new MultiGridScalarField3D<T2>(field, domain);
    copyConvert(field, *convertedField, domain);
    return std::auto_ptr<MultiGridScalarField3D<T2> >(convertedField);
}

template<typename T1, typename T2>
std::auto_ptr<MultiGridScalarField3D<T2> > copyConvert(MultiGridScalarField3D<T1>& field)
{
    return copyConvert<T1,T2>(field, field.getBoundingBox());
}

template<typename T>
void add(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, MultiGridScalarField3D<T>& result, Box3D domain)
{
    std::vector<MultiGridScalarField3D<T>* > fields;
    fields.push_back(&A);
    fields.push_back(&B);
    fields.push_back(&result);
    applyProcessingFunctional (
            new A_plus_B_functional3D<T>, domain, fields, A.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > add(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, Box3D domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(A, domain);
    add(A, B, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > add(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B)
{
    return add(A, B, A.getBoundingBox());
}


template<typename T>
void subtract(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, MultiGridScalarField3D<T>& result, Box3D
domain)
{
    std::vector<MultiGridScalarField3D<T>* > fields;
    fields.push_back(&A);
    fields.push_back(&B);
    fields.push_back(&result);
    applyProcessingFunctional (
            new A_minus_B_functional3D<T>, domain, fields, A.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > subtract(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, Box3D
domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(A, domain);
    subtract(A, B, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > subtract(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B)
{
    return subtract(A, B, A.getBoundingBox());
}


template<typename T>
void multiply(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, MultiGridScalarField3D<T>& result, Box3D
domain)
{
    std::vector<MultiGridScalarField3D<T>* > fields;
    fields.push_back(&A);
    fields.push_back(&B);
    fields.push_back(&result);
    applyProcessingFunctional (
            new A_times_B_functional3D<T>, domain, fields, A.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > multiply(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, Box3D
domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(A, domain);
    multiply(A, B, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > multiply(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B)
{
    return multiply(A, B, A.getBoundingBox());
}

template<typename T>
void divide(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, MultiGridScalarField3D<T>& result, Box3D domain)
{
    std::vector<MultiGridScalarField3D<T>* > fields;
    fields.push_back(&A);
    fields.push_back(&B);
    fields.push_back(&result);
    applyProcessingFunctional (
            new A_dividedBy_B_functional3D<T>, domain, fields, A.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > divide(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, Box3D
domain)
{
    MultiGridScalarField3D<T>* result = new MultiGridScalarField3D<T>(A, domain);
    divide(A, B, *result, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(result);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > divide(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B)
{
    return divide(A, B, A.getBoundingBox());
}


/* *************** ScalarField - ScalarField inplace operations *************** */

template<typename T>
void addInPlace(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, Box3D domain) {
    applyProcessingFunctional (
            new A_plus_B_inplace_functional3D<T>, domain, A, B, A.getReferenceLevel() );
}

template<typename T>
void addInPlace(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B) {
    addInPlace(A, B, A.getBoundingBox());
}


template<typename T>
void subtractInPlace(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, Box3D domain) {
    applyProcessingFunctional (
            new A_minus_B_inplace_functional3D<T>, domain, A, B, A.getReferenceLevel() );
}

template<typename T>
void subtractInPlace(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B) {
    subtractInPlace(A, B, A.getBoundingBox());
}


template<typename T>
void multiplyInPlace(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, Box3D domain) {
    applyProcessingFunctional (
            new A_times_B_inplace_functional3D<T>, domain, A, B, A.getReferenceLevel() );
}

template<typename T>
void multiplyInPlace(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B) {
    multiplyInPlace(A,B, A.getBoundingBox());
}


template<typename T>
void divideInPlace(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B, Box3D domain) {
    applyProcessingFunctional (
            new A_dividedBy_B_inplace_functional3D<T>, domain, A, B, A.getReferenceLevel() );
}

template<typename T>
void divideInPlace(MultiGridScalarField3D<T>& A, MultiGridScalarField3D<T>& B) {
    divideInPlace(A, B, A.getBoundingBox());
}


/* ******************************************************************* */
/* *************** PART VI : Multi-block wrappers: Tensor-field ****** */
/* ******************************************************************* */

/* *************** Reductive functions ******************************* */

template<typename T, plint nDim, class BoolMask> 
plint count(MultiGridTensorField3D<T,nDim>& field, Box3D domain, BoolMask boolMask)
{
    CountTensorElementsFunctional3D<T,nDim,BoolMask> functional(boolMask);
    applyProcessingFunctional(functional, domain, field, field.getReferenceLevel() );
    return functional.getCount();
}

template<typename T, plint nDim, class BoolMask> 
plint count(MultiGridTensorField3D<T,nDim>& field, BoolMask boolMask)
{
    return count(field, field.getBoundingBox(), boolMask);
}

/* *************** Extract Sub-TensorField *************************** */

template<typename T, int nDim>
void extractSubDomain( MultiGridTensorField3D<T,nDim>& field,
                       MultiGridTensorField3D<T,nDim>& extractedField,
                       Box3D domain)
{
    applyProcessingFunctional (
            new ExtractTensorSubDomainFunctional3D<T,nDim>, domain, field, extractedField,
            field.getReferenceLevel() );
}

template<typename T, int nDim>
std::auto_ptr<MultiGridTensorField3D<T,nDim> > extractSubDomain(MultiGridTensorField3D<T,nDim>& field, Box3D domain)
{
    MultiGridTensorField3D<T,nDim>* extractedField = new MultiGridTensorField3D<T,nDim>(field, domain);
    extractSubDomain(field, *extractedField, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,nDim> >(extractedField);
}


/* *************** Component (scalar-field) out of a tensor-field ****** */

template<typename T, int nDim>
void extractComponent(MultiGridTensorField3D<T,nDim>& tensorField, MultiGridScalarField3D<T>& component, Box3D domain,
int iComponent)
{
    applyProcessingFunctional (
            new ExtractTensorComponentFunctional3D<T,nDim>(iComponent),
            domain, component, tensorField, tensorField.getReferenceLevel() );
}

template<typename T, int nDim>
std::auto_ptr<MultiGridScalarField3D<T> > extractComponent(MultiGridTensorField3D<T,nDim>& tensorField, Box3D domain,
int iComponent)
{
    MultiGridScalarField3D<T>* component = new MultiGridScalarField3D<T>(tensorField, domain);
    extractComponent(tensorField, *component, domain, iComponent);
    return std::auto_ptr<MultiGridScalarField3D<T> >(component);
}

template<typename T, int nDim>
std::auto_ptr<MultiGridScalarField3D<T> > extractComponent(MultiGridTensorField3D<T,nDim>& tensorField, int iComponent)
{
    return extractComponent(tensorField, tensorField.getBoundingBox(), iComponent);
}


/* *************** Vector-norm of each cell in the field *************** */

template<typename T, int nDim>
void computeNorm(MultiGridTensorField3D<T,nDim>& tensorField, MultiGridScalarField3D<T>& component, Box3D domain)
{
    applyProcessingFunctional (
            new ComputeNormFunctional3D<T,nDim>, domain, component, tensorField, tensorField.getReferenceLevel() );
}

template<typename T, int nDim>
std::auto_ptr<MultiGridScalarField3D<T> > computeNorm(MultiGridTensorField3D<T,nDim>& tensorField, Box3D domain)
{
    MultiGridScalarField3D<T>* component = new MultiGridScalarField3D<T>(tensorField, domain);
    computeNorm(tensorField, *component, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(component);
}

template<typename T, int nDim>
std::auto_ptr<MultiGridScalarField3D<T> > computeNorm(MultiGridTensorField3D<T,nDim>& tensorField)
{
    return computeNorm(tensorField, tensorField.getBoundingBox());
}


/* *************** Squared vector-norm of each cell in the field ******** */

template<typename T, int nDim>
void computeNormSqr(MultiGridTensorField3D<T,nDim>& tensorField, MultiGridScalarField3D<T>& component, Box3D domain)
{
    applyProcessingFunctional (
            new ComputeNormSqrFunctional3D<T,nDim>, domain, component, tensorField, tensorField.getReferenceLevel() );
}

template<typename T, int nDim>
std::auto_ptr<MultiGridScalarField3D<T> > computeNormSqr(MultiGridTensorField3D<T,nDim>& tensorField, Box3D domain)
{
    MultiGridScalarField3D<T>* component = new MultiGridScalarField3D<T>(tensorField, domain);
    computeNormSqr(tensorField, *component, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(component);
}

template<typename T, int nDim>
std::auto_ptr<MultiGridScalarField3D<T> > computeNormSqr(MultiGridTensorField3D<T,nDim>& tensorField)
{
    return computeNormSqr(tensorField, tensorField.getBoundingBox());
}


/* *************** Tensor-norm of each symmetric tensor of a field ***** */

template<typename T>
void computeSymmetricTensorNorm(MultiGridTensorField3D<T,3>& tensorField, MultiGridScalarField3D<T>& norm, Box3D domain)
{
    applyProcessingFunctional (
            new ComputeSymmetricTensorNormFunctional3D<T>, domain, norm, tensorField, tensorField.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeSymmetricTensorNorm(MultiGridTensorField3D<T,3>& tensorField, Box3D
domain)
{
    MultiGridScalarField3D<T>* norm = new MultiGridScalarField3D<T>(tensorField, domain);
    computeSymmetricTensorNorm(tensorField, *norm, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(norm);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeSymmetricTensorNorm(MultiGridTensorField3D<T,3>& tensorField)
{
    return computeSymmetricTensorNorm(tensorField, tensorField.getBoundingBox());
}


/* *************** Squared Tensor-norm of each symmetric tensor of a field*/

template<typename T>
void computeSymmetricTensorNormSqr(MultiGridTensorField3D<T,3>& tensorField, MultiGridScalarField3D<T>& normSqr, Box3D
domain)
{
    applyProcessingFunctional (
            new ComputeSymmetricTensorNormSqrFunctional3D<T>, 
            domain, normSqr, tensorField, tensorField.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeSymmetricTensorNormSqr(MultiGridTensorField3D<T,3>& tensorField, Box3D
domain)
{
    MultiGridScalarField3D<T>* normSqr = new MultiGridScalarField3D<T>(tensorField, domain);
    computeSymmetricTensorNormSqr(tensorField, *normSqr, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(normSqr);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeSymmetricTensorNormSqr(MultiGridTensorField3D<T,3>& tensorField)
{
    return computeSymmetricTensorNormSqr(tensorField, tensorField.getBoundingBox());
}


/* *************** Trace of each symmetric tensor of a field ************ */

template<typename T>
void computeSymmetricTensorTrace(MultiGridTensorField3D<T,3>& tensorField, MultiGridScalarField3D<T>& trace, Box3D
domain)
{
    applyProcessingFunctional (
            new ComputeSymmetricTensorTraceFunctional3D<T>,
            domain, trace, tensorField, tensorField.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeSymmetricTensorTrace(MultiGridTensorField3D<T,3>& tensorField, Box3D
domain)
{
    MultiGridScalarField3D<T>* trace = new MultiGridScalarField3D<T>(tensorField, domain);
    computeSymmetricTensorTrace(tensorField, *trace, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(trace);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeSymmetricTensorTrace(MultiGridTensorField3D<T,3>& tensorField)
{
    return computeSymmetricTensorTrace(tensorField, tensorField.getBoundingBox());
}


/* *************** Vorticity from Velocity field *********************** */

template<typename T>
void computeVorticity(MultiGridTensorField3D<T,2>& velocity, MultiGridScalarField3D<T>& vorticity, Box3D domain)
{
    plint envelopeWidth=1;
    applyProcessingFunctional (
            new BoxVorticityFunctional3D<T,2>, 
            domain, vorticity, velocity, velocity.getReferenceLevel(), envelopeWidth );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeVorticity(MultiGridTensorField3D<T,2>& velocity, Box3D domain)
{
    MultiGridScalarField3D<T>* vorticity = new MultiGridScalarField3D<T>(velocity, domain);
    computeVorticity(velocity, *vorticity, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(vorticity);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeVorticity(MultiGridTensorField3D<T,2>& velocity)
{
    return computeVorticity(velocity, velocity.getBoundingBox());
}


/* *************** Vorticity, witout boundary treatment, from Velocity field  */

template<typename T>
void computeBulkVorticity(MultiGridTensorField3D<T,2>& velocity, MultiGridScalarField3D<T>& vorticity, Box3D domain)
{
    applyProcessingFunctional (
            new BoxBulkVorticityFunctional3D<T,2>, domain, vorticity, velocity, velocity.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeBulkVorticity(MultiGridTensorField3D<T,2>& velocity, Box3D domain)
{
    MultiGridScalarField3D<T>* vorticity = new MultiGridScalarField3D<T>(velocity, domain);
    computeBulkVorticity(velocity, *vorticity, domain);
    return std::auto_ptr<MultiGridScalarField3D<T> >(vorticity);
}

template<typename T>
std::auto_ptr<MultiGridScalarField3D<T> > computeBulkVorticity(MultiGridTensorField3D<T,2>& velocity)
{
    return computeBulkVorticity(velocity, velocity.getBoundingBox());
}



/* *************** Strain Rate from Velocity field ********************* */

template<typename T>
void computeStrainRate(MultiGridTensorField3D<T,2>& velocity, MultiGridTensorField3D<T,3>& S, Box3D domain)
{
    plint envelopeWidth=1;
    applyProcessingFunctional (
            new BoxStrainRateFunctional3D<T,2>, 
            domain, velocity, S, velocity.getReferenceLevel(), envelopeWidth );
}

template<typename T>
std::auto_ptr<MultiGridTensorField3D<T,3> > computeStrainRate(MultiGridTensorField3D<T,2>& velocity, Box3D domain)
{
    MultiGridTensorField3D<T,3>* S = new MultiGridTensorField3D<T,3>(velocity, domain);
    computeStrainRate(velocity, *S, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,3> >(S);
}

template<typename T>
std::auto_ptr<MultiGridTensorField3D<T,3> > computeStrainRate(MultiGridTensorField3D<T,2>& velocity)
{
    return computeStrainRate(velocity, velocity.getBoundingBox());
}


/* *************** Str. rate, witout boundary treatment, from Velocity field  */

template<typename T>
void computeBulkStrainRate(MultiGridTensorField3D<T,2>& velocity, MultiGridTensorField3D<T,3>& S, Box3D domain)
{
    plint envelopeWidth=1;
    applyProcessingFunctional (
            new BoxBulkStrainRateFunctional3D<T,2>, domain, velocity, S, velocity.getReferenceLevel() );
}

template<typename T>
std::auto_ptr<MultiGridTensorField3D<T,3> > computeBulkStrainRate(MultiGridTensorField3D<T,2>& velocity, Box3D domain)
{
    MultiGridTensorField3D<T,3>* S = new MultiGridTensorField3D<T,3>(velocity, domain);
    computeBulkStrainRate(velocity, *S, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,3> >(S);
}

template<typename T>
std::auto_ptr<MultiGridTensorField3D<T,3> > computeBulkStrainRate(MultiGridTensorField3D<T,2>& velocity)
{
    return computeBulkStrainRate(velocity, velocity.getBoundingBox());
}


/* *************** MultiTensorField - MultiTensorField operations *************** */


template<typename T1, typename T2, int nDim>
void copyConvert(MultiGridTensorField3D<T1,nDim>& field, MultiGridTensorField3D<T2,nDim>& convertedField, Box3D domain)
{
    applyProcessingFunctional (
            new CopyConvertTensorFunctional3D<T1,T2,nDim>, 
            domain, field, convertedField, field.getReferenceLevel() );
}

template<typename T1, typename T2, int nDim>
std::auto_ptr<MultiGridTensorField3D<T2,nDim> > copyConvert(MultiGridTensorField3D<T1,nDim>& field, Box3D domain)
{
    MultiGridTensorField3D<T2,nDim>* convertedField = new MultiGridTensorField3D<T2,nDim>(field, domain);
    copyConvert<T1,T2,nDim>(field, *convertedField, domain);
    return std::auto_ptr<MultiGridTensorField3D<T2,nDim> >(convertedField);
}

template<typename T1, typename T2, int nDim>
std::auto_ptr<MultiGridTensorField3D<T2,nDim> > copyConvert(MultiGridTensorField3D<T1,nDim>& field)
{
    return copyConvert<T1,T2,nDim>(field, field.getBoundingBox());
}

template<typename T, int nDim>
void add(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B, MultiGridTensorField3D<T,nDim>& result,
Box3D domain)
{
    std::vector<MultiGridTensorField3D<T,nDim>* > fields;
    fields.push_back(&A);
    fields.push_back(&B);
    fields.push_back(&result);
    applyProcessingFunctional (
            new Tensor_A_plus_B_functional3D<T,nDim>, domain, fields, A.getReferenceLevel() );
}

template<typename T, int nDim>
std::auto_ptr<MultiGridTensorField3D<T,nDim> > add(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B,
Box3D domain)
{
    MultiGridTensorField3D<T,nDim>* result = new MultiGridTensorField3D<T,nDim>(A, domain);
    add(A, B, *result, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,nDim> >(result);
}

template<typename T, int nDim>
std::auto_ptr<MultiGridTensorField3D<T,nDim> > add(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B)
{
    return add(A, B, A.getBoundingBox());
}


template<typename T, int nDim>
void subtract(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B, MultiGridTensorField3D<T,nDim>&
result, Box3D domain)
{
    std::vector<MultiGridTensorField3D<T,nDim>* > fields;
    fields.push_back(&A);
    fields.push_back(&B);
    fields.push_back(&result);
    applyProcessingFunctional (
            new Tensor_A_minus_B_functional3D<T,nDim>, domain, fields, A.getReferenceLevel() );
}

template<typename T, int nDim>
std::auto_ptr<MultiGridTensorField3D<T,nDim> > subtract(MultiGridTensorField3D<T,nDim>& A,
MultiGridTensorField3D<T,nDim>& B, Box3D domain)
{
    MultiGridTensorField3D<T,nDim>* result = new MultiGridTensorField3D<T,nDim>(A, domain);
    subtract(A, B, *result, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,nDim> >(result);
}

template<typename T, int nDim>
std::auto_ptr<MultiGridTensorField3D<T,nDim> > subtract(MultiGridTensorField3D<T,nDim>& A,
MultiGridTensorField3D<T,nDim>& B)
{
    return subtract(A, B, A.getBoundingBox());
}


template<typename T, int nDim>
void multiply(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B, MultiGridTensorField3D<T,nDim>&
result, Box3D domain)
{
    std::vector<MultiGridTensorField3D<T,nDim>* > fields;
    fields.push_back(&A);
    fields.push_back(&B);
    fields.push_back(&result);
    applyProcessingFunctional (
            new Tensor_A_times_B_functional3D<T,nDim>, domain, fields, A.getReferenceLevel() );
}

template<typename T, int nDim>
std::auto_ptr<MultiGridTensorField3D<T,nDim> > multiply(MultiGridTensorField3D<T,nDim>& A,
MultiGridTensorField3D<T,nDim>& B, Box3D domain)
{
    MultiGridTensorField3D<T,nDim>* result = new MultiGridTensorField3D<T,nDim>(A, domain);
    multiply(A, B, *result, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,nDim> >(result);
}

template<typename T, int nDim>
std::auto_ptr<MultiGridTensorField3D<T,nDim> > multiply(MultiGridTensorField3D<T,nDim>& A,
MultiGridTensorField3D<T,nDim>& B)
{
    return multiply(A, B, A.getBoundingBox());
}

template<typename T, int nDim>
void divide(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B, MultiGridTensorField3D<T,nDim>&
result, Box3D domain)
{
    std::vector<MultiGridTensorField3D<T,nDim>* > fields;
    fields.push_back(&A);
    fields.push_back(&B);
    fields.push_back(&result);
    applyProcessingFunctional (
            new Tensor_A_dividedBy_B_functional3D<T,nDim>, domain, fields, A.getReferenceLevel() );
}

template<typename T, int nDim>
std::auto_ptr<MultiGridTensorField3D<T,nDim> > divide(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>&
B, Box3D domain)
{
    MultiGridTensorField3D<T,nDim>* result = new MultiGridTensorField3D<T,nDim>(A, domain);
    divide(A, B, *result, domain);
    return std::auto_ptr<MultiGridTensorField3D<T,nDim> >(result);
}

template<typename T, int nDim>
std::auto_ptr<MultiGridTensorField3D<T,nDim> > divide(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>&
B)
{
    return divide(A, B, A.getBoundingBox());
}


/* *************** TensorField - TensorField inplace operations *************** */

template<typename T, int nDim>
void addInPlace(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B, Box3D domain) {
    applyProcessingFunctional (
            new Tensor_A_plus_B_inplace_functional3D<T,nDim>, domain, A, B, A.getReferenceLevel() );
}

template<typename T, int nDim>
void addInPlace(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B) {
    addInPlace(A, B, A.getBoundingBox());
}


template<typename T, int nDim>
void subtractInPlace(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B, Box3D domain) {
    applyProcessingFunctional (
            new Tensor_A_minus_B_inplace_functional3D<T,nDim>, domain, A, B );
}

template<typename T, int nDim>
void subtractInPlace(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B) {
    subtractInPlace(A, B, A.getBoundingBox());
}


template<typename T, int nDim>
void multiplyInPlace(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B, Box3D domain) {
    applyProcessingFunctional (
            new Tensor_A_times_B_inplace_functional3D<T,nDim>, domain, A, B, A.getReferenceLevel() );
}

template<typename T, int nDim>
void multiplyInPlace(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B) {
    multiplyInPlace(A,B, A.getBoundingBox());
}


template<typename T, int nDim>
void multiplyInPlace(MultiGridTensorField3D<T,nDim>& A, T alpha, Box3D domain) {
    applyProcessingFunctional (
            new Tensor_A_times_alpha_inplace_functional3D<T,nDim>(alpha), domain, A, A.getReferenceLevel());
}

template<typename T, int nDim>
void multiplyInPlace(MultiGridTensorField3D<T,nDim>& A, T alpha)
{
    multiplyInPlace(A,alpha, A.getBoundingBox());
}


template<typename T, int nDim>
void divideInPlace(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B, Box3D domain) {
    applyProcessingFunctional (
            new Tensor_A_dividedBy_B_inplace_functional3D<T,nDim>, domain, A, B, A.getReferenceLevel() );
}

template<typename T, int nDim>
void divideInPlace(MultiGridTensorField3D<T,nDim>& A, MultiGridTensorField3D<T,nDim>& B) {
    divideInPlace(A, B, A.getBoundingBox());
}


} // namespace plb

#endif // MULTI_GRID_DATA_ANALYSIS_WRAPPER_3D_HH