FVSelectionByCylinder.cpp

/*---------------------------------------------------------------------------*\
 *
 *  mimmo
 *
 *  Copyright (C) 2015-2021 OPTIMAD engineering Srl
 *
 *  -------------------------------------------------------------------------
 *  License
 *  This file is part of mimmo.
 *
 *  mimmo is free software: you can redistribute it and/or modify it
 *  under the terms of the GNU Lesser General Public License v3 (LGPL)
 *  as published by the Free Software Foundation.
 *
 *  mimmo 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 Lesser General Public
 *  License for more details.
 *
 *  You should have received a copy of the GNU Lesser General Public License
 *  along with mimmo. If not, see <http://www.gnu.org/licenses/>.
 *
 \ *---------------------------------------------------------------------------*/
 
#include "FVMeshSelection.hpp"
 
namespace mimmo{
 
FVSelectionByCylinder::FVSelectionByCylinder(int topo): FVGenericSelection(topo){
    m_name = "mimmo.FVSelectionByCylinder";
    m_selectEngine = MimmoSharedPointer<GenericSelection>(new SelectionByCylinder());
};
 
FVSelectionByCylinder::FVSelectionByCylinder(const bitpit::Config::Section & rootXML){
 
    m_name = "mimmo.FVSelectionByCylinder";
    m_selectEngine = MimmoSharedPointer<GenericSelection>(new SelectionByCylinder());
 
    std::string fallback_name = "ClassNONE";
    std::string input = rootXML.get("ClassName", fallback_name);
    input = bitpit::utils::string::trim(input);
 
    std::string fallback_name2 = "1";
    std::string input_topo = rootXML.get("Topology", fallback_name2);
    input_topo = bitpit::utils::string::trim(input_topo);
 
    int topo = std::stoi(input_topo);
    topo = std::min(2,std::max(1, topo));
    m_topo = topo;
 
 
    if(input == "mimmo.FVSelectionByCylinder"){
        absorbSectionXML(rootXML);
    }else{
        warningXML(m_log, m_name);
    };
}
 
FVSelectionByCylinder::FVSelectionByCylinder(int topo, darray3E origin, darray3E span,
                                            double infLimTheta, darray3E mainAxis):
                                            FVGenericSelection(topo)
{
    m_name = "mimmo.FVSelectionByCylinder";
    m_selectEngine = MimmoSharedPointer<GenericSelection>(new SelectionByCylinder());
    SelectionByCylinder *weng = static_cast<SelectionByCylinder *>(m_selectEngine.get());
    weng->setOrigin(origin);
    weng->setSpan(span);
    weng->setInfLimits(infLimTheta,1);
    weng->setRefSystem(2, mainAxis);
};
 
FVSelectionByCylinder::~FVSelectionByCylinder(){};
 
FVSelectionByCylinder::FVSelectionByCylinder(const FVSelectionByCylinder & other):FVGenericSelection(other){};
 
FVSelectionByCylinder & FVSelectionByCylinder::operator=(FVSelectionByCylinder other){
    swap(other);
    return *this;
};
 
void FVSelectionByCylinder::swap(FVSelectionByCylinder & x) noexcept
{
    FVGenericSelection::swap(x);
}
 
void
FVSelectionByCylinder::buildPorts(){
 
    FVGenericSelection::buildPorts();
    bool built = m_arePortsBuilt;
 
    built = (built && createPortIn<darray3E, FVSelectionByCylinder>(this, &FVSelectionByCylinder::setOrigin,M_POINT));
    built = (built && createPortIn<darray3E, FVSelectionByCylinder>(this, &FVSelectionByCylinder::setSpan, M_SPAN));
    built = (built && createPortIn<dmatrix33E, FVSelectionByCylinder>(this, &FVSelectionByCylinder::setRefSystem, M_AXES));
    built = (built && createPortIn<darray3E, FVSelectionByCylinder>(this, &FVSelectionByCylinder::setInfLimits, M_INFLIMITS));
 
    m_arePortsBuilt = built;
};
 
 
void FVSelectionByCylinder::setOrigin(darray3E origin){
    static_cast<SelectionByCylinder *>(m_selectEngine.get())->setOrigin(origin);
}
 
void FVSelectionByCylinder::setSpan(darray3E span){
    static_cast<SelectionByCylinder *>(m_selectEngine.get())->setSpan(span);
}
 
 
void FVSelectionByCylinder::setRefSystem(dmatrix33E axes){
    static_cast<SelectionByCylinder *>(m_selectEngine.get())->setRefSystem(axes);
}
 
void FVSelectionByCylinder::setInfLimits(darray3E val){
    static_cast<SelectionByCylinder *>(m_selectEngine.get())->setInfLimits(val);
}
void
FVSelectionByCylinder::absorbSectionXML(const bitpit::Config::Section & slotXML, std::string name){
 
    BITPIT_UNUSED(name);
 
    BaseManipulation::absorbSectionXML(slotXML, name);
 
    if(slotXML.hasOption("Topology")){
        std::string input = slotXML.get("Topology");
        input = bitpit::utils::string::trim(input);
        int value = 1;
        if(!input.empty()){
            std::stringstream ss(input);
            ss >> value;
        }
        if (m_topo != value)  warningXML(m_log, m_name);
    }else{
        warningXML(m_log, m_name);
    }
 
    if(slotXML.hasOption("Dual")){
        std::string input = slotXML.get("Dual");
        input = bitpit::utils::string::trim(input);
        bool value = false;
        if(!input.empty()){
            std::stringstream ss(input);
            ss >> value;
        }
        setDual(value);
    }
 
    if(slotXML.hasOption("Origin")){
        std::string input = slotXML.get("Origin");
        input = bitpit::utils::string::trim(input);
        darray3E temp = {{0.0,0.0,0.0}};
        if(!input.empty()){
            std::stringstream ss(input);
            ss>>temp[0]>>temp[1]>>temp[2];
            setOrigin(temp);
        }else{
            setOrigin(temp);
        }
    }
 
    if(slotXML.hasOption("Span")){
        std::string input = slotXML.get("Span");
        input = bitpit::utils::string::trim(input);
        darray3E temp = {{1.0,2.0*BITPIT_PI,1.0}};
        if(!input.empty()){
            std::stringstream ss(input);
            ss>>temp[0]>>temp[1]>>temp[2];
            setSpan(temp);
        }else{
            setSpan(temp);
        }
    }
 
    if(slotXML.hasSection("RefSystem")){
 
        const bitpit::Config::Section & axesXML = slotXML.getSection("RefSystem");
        dmatrix33E axes;
        for(int i=0; i<3; ++i){
            axes[i].fill(0.0);
            axes[i][i] = 1.0;
        }
 
        if(axesXML.hasOption("axis0")){
            std::string input = axesXML.get("axis0");
            input = bitpit::utils::string::trim(input);
            if(!input.empty()){
                std::stringstream ss(input);
                ss>>axes[0][0]>>axes[0][1]>>axes[0][2];
            }
        }
 
        if(axesXML.hasOption("axis1")){
            std::string input = axesXML.get("axis1");
            input = bitpit::utils::string::trim(input);
            if(!input.empty()){
                std::stringstream ss(input);
                ss>>axes[1][0]>>axes[1][1]>>axes[1][2];
            }
        }
 
        if(axesXML.hasOption("axis2")){
            std::string input = axesXML.get("axis2");
            input = bitpit::utils::string::trim(input);
            if(!input.empty()){
                std::stringstream ss(input);
                ss>>axes[2][0]>>axes[2][1]>>axes[2][2];
            }
        }
        setRefSystem(axes);
    }
 
    if(slotXML.hasOption("InfLimits")){
        std::string input = slotXML.get("InfLimits");
        input = bitpit::utils::string::trim(input);
        darray3E temp = {{0.0,0.0,0.0}};
        if(!input.empty()){
            std::stringstream ss(input);
            ss>>temp[0]>>temp[1]>>temp[2];
            setInfLimits(temp);
        }else{
            setInfLimits(temp);
        }
    }
 
};
 
void
FVSelectionByCylinder::flushSectionXML(bitpit::Config::Section & slotXML, std::string name){
 
    BITPIT_UNUSED(name);
 
    BaseManipulation::flushSectionXML(slotXML, name);
 
    slotXML.set("Topology", std::to_string(m_topo));
    slotXML.set("Dual", std::to_string(int(m_dual)));
    SelectionByCylinder * sel = static_cast<SelectionByCylinder*>(m_selectEngine.get());
 
    {
        darray3E org = sel->getOrigin();
        std::stringstream ss;
        ss<<std::scientific<<org[0]<<'\t'<<org[1]<<'\t'<<org[2];
        slotXML.set("Origin",ss.str());
    }
 
    {
        darray3E span = sel->getSpan();
        std::stringstream ss;
        ss<<std::scientific<<span[0]<<'\t'<<span[1]<<'\t'<<span[2];
        slotXML.set("Span",ss.str());
    }
 
    {
        dmatrix33E axes = sel->getRefSystem();
        bitpit::Config::Section & axesXML = slotXML.addSection("RefSystem");
 
        for(int i=0; i<3; ++i){
            std::string name = "axis"+std::to_string(i);
            std::stringstream ss;
            ss<<std::scientific<<axes[i][0]<<'\t'<<axes[i][1]<<'\t'<<axes[i][2];
            axesXML.set(name, ss.str());
        }
    }
 
    {
        darray3E inflim = sel->getInfLimits();
        std::stringstream ss;
        ss<<std::scientific<<inflim[0]<<'\t'<<inflim[1]<<'\t'<<inflim[2];
        slotXML.set("InfLimits",ss.str());
    }
 
};
 
}