Jungfraujoch/broker/gen/model/Calibration_quality.cpp

/**
* Jungfraujoch
* API to control Jungfraujoch developed by the Paul Scherrer Institute (Switzerland). Jungfraujoch is a data acquisition and analysis system for pixel array detectors, primarly PSI JUNGFRAU. Jungfraujoch uses FPGA boards to acquire data at high data rates.  # License Clarification  While this API definition is licensed under GPL-3.0, **the GPL copyleft provisions do not apply** when this file is used solely to generate OpenAPI clients or when implementing applications that interact with the API. Generated client code and applications using this API definition are not subject to the GPL license requirements and may be distributed under terms of your choosing.  This exception is similar in spirit to the Linux Kernel's approach to userspace API headers and the GCC Runtime Library Exception. The Linux Kernel developers have explicitly stated that user programs that merely use the kernel interfaces (syscalls, ioctl definitions, etc.) are not derivative works of the kernel and are not subject to the terms of the GPL.  This exception is intended to allow wider use of this API specification without imposing GPL requirements on applications that merely interact with the API, regardless of whether they communicate through network calls or other mechanisms. 
*
* The version of the OpenAPI document: 1.0.0-rc.166
* Contact: filip.leonarski@psi.ch
*
* NOTE: This class is auto generated by OpenAPI Generator (https://openapi-generator.tech).
* https://openapi-generator.tech
* Do not edit the class manually.
*/


#include "Calibration_quality.h"
#include "Helpers.h"

#include <sstream>

namespace org::openapitools::server::model
{

Calibration_quality::Calibration_quality()
{
    m_Calibrant = "";
    m_CalibrantIsSet = false;
    m_Method = "";
    m_MethodIsSet = false;
    m_Ring_points = 0L;
    m_Ring_pointsIsSet = false;
    m_Rms_radial_pxl = 0.0f;
    m_Rms_radial_pxlIsSet = false;
    m_Beam_sigma_pxl = 0.0f;
    m_Beam_sigma_pxlIsSet = false;
    m_Direct_beam_x_pxl = 0.0f;
    m_Direct_beam_x_pxlIsSet = false;
    m_Direct_beam_y_pxl = 0.0f;
    m_Direct_beam_y_pxlIsSet = false;
    m_Header_distance_mm = 0.0f;
    m_Header_distance_mmIsSet = false;
    m_Ring_seed_distance_mm = 0.0f;
    m_Ring_seed_distance_mmIsSet = false;
    m_Tilt_refined = false;
    m_Tilt_refinedIsSet = false;
    m_Tilt_significance = 0.0f;
    m_Tilt_significanceIsSet = false;
    m_Fit_sigmaIsSet = false;
    m_Spot_cross_checkIsSet = false;
    
}

void Calibration_quality::validate() const
{
    std::stringstream msg;
    if (!validate(msg))
    {
        throw org::openapitools::server::helpers::ValidationException(msg.str());
    }
}

bool Calibration_quality::validate(std::stringstream& msg) const
{
    return validate(msg, "");
}

bool Calibration_quality::validate(std::stringstream& msg, const std::string& pathPrefix) const
{
    bool success = true;
    const std::string _pathPrefix = pathPrefix.empty() ? "Calibration_quality" : pathPrefix;

                                                        
    return success;
}

bool Calibration_quality::operator==(const Calibration_quality& rhs) const
{
    return
    
    
    
    ((!calibrantIsSet() && !rhs.calibrantIsSet()) || (calibrantIsSet() && rhs.calibrantIsSet() && getCalibrant() == rhs.getCalibrant())) &&
    
    
    ((!methodIsSet() && !rhs.methodIsSet()) || (methodIsSet() && rhs.methodIsSet() && getMethod() == rhs.getMethod())) &&
    
    
    ((!ringPointsIsSet() && !rhs.ringPointsIsSet()) || (ringPointsIsSet() && rhs.ringPointsIsSet() && getRingPoints() == rhs.getRingPoints())) &&
    
    
    ((!rmsRadialPxlIsSet() && !rhs.rmsRadialPxlIsSet()) || (rmsRadialPxlIsSet() && rhs.rmsRadialPxlIsSet() && getRmsRadialPxl() == rhs.getRmsRadialPxl())) &&
    
    
    ((!beamSigmaPxlIsSet() && !rhs.beamSigmaPxlIsSet()) || (beamSigmaPxlIsSet() && rhs.beamSigmaPxlIsSet() && getBeamSigmaPxl() == rhs.getBeamSigmaPxl())) &&
    
    
    ((!directBeamXPxlIsSet() && !rhs.directBeamXPxlIsSet()) || (directBeamXPxlIsSet() && rhs.directBeamXPxlIsSet() && getDirectBeamXPxl() == rhs.getDirectBeamXPxl())) &&
    
    
    ((!directBeamYPxlIsSet() && !rhs.directBeamYPxlIsSet()) || (directBeamYPxlIsSet() && rhs.directBeamYPxlIsSet() && getDirectBeamYPxl() == rhs.getDirectBeamYPxl())) &&
    
    
    ((!headerDistanceMmIsSet() && !rhs.headerDistanceMmIsSet()) || (headerDistanceMmIsSet() && rhs.headerDistanceMmIsSet() && getHeaderDistanceMm() == rhs.getHeaderDistanceMm())) &&
    
    
    ((!ringSeedDistanceMmIsSet() && !rhs.ringSeedDistanceMmIsSet()) || (ringSeedDistanceMmIsSet() && rhs.ringSeedDistanceMmIsSet() && getRingSeedDistanceMm() == rhs.getRingSeedDistanceMm())) &&
    
    
    ((!tiltRefinedIsSet() && !rhs.tiltRefinedIsSet()) || (tiltRefinedIsSet() && rhs.tiltRefinedIsSet() && isTiltRefined() == rhs.isTiltRefined())) &&
    
    
    ((!tiltSignificanceIsSet() && !rhs.tiltSignificanceIsSet()) || (tiltSignificanceIsSet() && rhs.tiltSignificanceIsSet() && getTiltSignificance() == rhs.getTiltSignificance())) &&
    
    
    ((!fitSigmaIsSet() && !rhs.fitSigmaIsSet()) || (fitSigmaIsSet() && rhs.fitSigmaIsSet() && getFitSigma() == rhs.getFitSigma())) &&
    
    
    ((!spotCrossCheckIsSet() && !rhs.spotCrossCheckIsSet()) || (spotCrossCheckIsSet() && rhs.spotCrossCheckIsSet() && getSpotCrossCheck() == rhs.getSpotCrossCheck()))
    
    ;
}

bool Calibration_quality::operator!=(const Calibration_quality& rhs) const
{
    return !(*this == rhs);
}

void to_json(nlohmann::json& j, const Calibration_quality& o)
{
    j = nlohmann::json::object();
    if(o.calibrantIsSet())
        j["calibrant"] = o.m_Calibrant;
    if(o.methodIsSet())
        j["method"] = o.m_Method;
    if(o.ringPointsIsSet())
        j["ring_points"] = o.m_Ring_points;
    if(o.rmsRadialPxlIsSet())
        j["rms_radial_pxl"] = o.m_Rms_radial_pxl;
    if(o.beamSigmaPxlIsSet())
        j["beam_sigma_pxl"] = o.m_Beam_sigma_pxl;
    if(o.directBeamXPxlIsSet())
        j["direct_beam_x_pxl"] = o.m_Direct_beam_x_pxl;
    if(o.directBeamYPxlIsSet())
        j["direct_beam_y_pxl"] = o.m_Direct_beam_y_pxl;
    if(o.headerDistanceMmIsSet())
        j["header_distance_mm"] = o.m_Header_distance_mm;
    if(o.ringSeedDistanceMmIsSet())
        j["ring_seed_distance_mm"] = o.m_Ring_seed_distance_mm;
    if(o.tiltRefinedIsSet())
        j["tilt_refined"] = o.m_Tilt_refined;
    if(o.tiltSignificanceIsSet())
        j["tilt_significance"] = o.m_Tilt_significance;
    if(o.fitSigmaIsSet())
        j["fit_sigma"] = o.m_Fit_sigma;
    if(o.spotCrossCheckIsSet())
        j["spot_cross_check"] = o.m_Spot_cross_check;
    
}

void from_json(const nlohmann::json& j, Calibration_quality& o)
{
    if(j.find("calibrant") != j.end())
    {
        j.at("calibrant").get_to(o.m_Calibrant);
        o.m_CalibrantIsSet = true;
    } 
    if(j.find("method") != j.end())
    {
        j.at("method").get_to(o.m_Method);
        o.m_MethodIsSet = true;
    } 
    if(j.find("ring_points") != j.end())
    {
        j.at("ring_points").get_to(o.m_Ring_points);
        o.m_Ring_pointsIsSet = true;
    } 
    if(j.find("rms_radial_pxl") != j.end())
    {
        j.at("rms_radial_pxl").get_to(o.m_Rms_radial_pxl);
        o.m_Rms_radial_pxlIsSet = true;
    } 
    if(j.find("beam_sigma_pxl") != j.end())
    {
        j.at("beam_sigma_pxl").get_to(o.m_Beam_sigma_pxl);
        o.m_Beam_sigma_pxlIsSet = true;
    } 
    if(j.find("direct_beam_x_pxl") != j.end())
    {
        j.at("direct_beam_x_pxl").get_to(o.m_Direct_beam_x_pxl);
        o.m_Direct_beam_x_pxlIsSet = true;
    } 
    if(j.find("direct_beam_y_pxl") != j.end())
    {
        j.at("direct_beam_y_pxl").get_to(o.m_Direct_beam_y_pxl);
        o.m_Direct_beam_y_pxlIsSet = true;
    } 
    if(j.find("header_distance_mm") != j.end())
    {
        j.at("header_distance_mm").get_to(o.m_Header_distance_mm);
        o.m_Header_distance_mmIsSet = true;
    } 
    if(j.find("ring_seed_distance_mm") != j.end())
    {
        j.at("ring_seed_distance_mm").get_to(o.m_Ring_seed_distance_mm);
        o.m_Ring_seed_distance_mmIsSet = true;
    } 
    if(j.find("tilt_refined") != j.end())
    {
        j.at("tilt_refined").get_to(o.m_Tilt_refined);
        o.m_Tilt_refinedIsSet = true;
    } 
    if(j.find("tilt_significance") != j.end())
    {
        j.at("tilt_significance").get_to(o.m_Tilt_significance);
        o.m_Tilt_significanceIsSet = true;
    } 
    if(j.find("fit_sigma") != j.end())
    {
        j.at("fit_sigma").get_to(o.m_Fit_sigma);
        o.m_Fit_sigmaIsSet = true;
    } 
    if(j.find("spot_cross_check") != j.end())
    {
        j.at("spot_cross_check").get_to(o.m_Spot_cross_check);
        o.m_Spot_cross_checkIsSet = true;
    } 
    
}

std::string Calibration_quality::getCalibrant() const
{
    return m_Calibrant;
}
void Calibration_quality::setCalibrant(std::string const& value)
{
    m_Calibrant = value;
    m_CalibrantIsSet = true;
}
bool Calibration_quality::calibrantIsSet() const
{
    return m_CalibrantIsSet;
}
void Calibration_quality::unsetCalibrant()
{
    m_CalibrantIsSet = false;
}
std::string Calibration_quality::getMethod() const
{
    return m_Method;
}
void Calibration_quality::setMethod(std::string const& value)
{
    m_Method = value;
    m_MethodIsSet = true;
}
bool Calibration_quality::methodIsSet() const
{
    return m_MethodIsSet;
}
void Calibration_quality::unsetMethod()
{
    m_MethodIsSet = false;
}
int64_t Calibration_quality::getRingPoints() const
{
    return m_Ring_points;
}
void Calibration_quality::setRingPoints(int64_t const value)
{
    m_Ring_points = value;
    m_Ring_pointsIsSet = true;
}
bool Calibration_quality::ringPointsIsSet() const
{
    return m_Ring_pointsIsSet;
}
void Calibration_quality::unsetRing_points()
{
    m_Ring_pointsIsSet = false;
}
float Calibration_quality::getRmsRadialPxl() const
{
    return m_Rms_radial_pxl;
}
void Calibration_quality::setRmsRadialPxl(float const value)
{
    m_Rms_radial_pxl = value;
    m_Rms_radial_pxlIsSet = true;
}
bool Calibration_quality::rmsRadialPxlIsSet() const
{
    return m_Rms_radial_pxlIsSet;
}
void Calibration_quality::unsetRms_radial_pxl()
{
    m_Rms_radial_pxlIsSet = false;
}
float Calibration_quality::getBeamSigmaPxl() const
{
    return m_Beam_sigma_pxl;
}
void Calibration_quality::setBeamSigmaPxl(float const value)
{
    m_Beam_sigma_pxl = value;
    m_Beam_sigma_pxlIsSet = true;
}
bool Calibration_quality::beamSigmaPxlIsSet() const
{
    return m_Beam_sigma_pxlIsSet;
}
void Calibration_quality::unsetBeam_sigma_pxl()
{
    m_Beam_sigma_pxlIsSet = false;
}
float Calibration_quality::getDirectBeamXPxl() const
{
    return m_Direct_beam_x_pxl;
}
void Calibration_quality::setDirectBeamXPxl(float const value)
{
    m_Direct_beam_x_pxl = value;
    m_Direct_beam_x_pxlIsSet = true;
}
bool Calibration_quality::directBeamXPxlIsSet() const
{
    return m_Direct_beam_x_pxlIsSet;
}
void Calibration_quality::unsetDirect_beam_x_pxl()
{
    m_Direct_beam_x_pxlIsSet = false;
}
float Calibration_quality::getDirectBeamYPxl() const
{
    return m_Direct_beam_y_pxl;
}
void Calibration_quality::setDirectBeamYPxl(float const value)
{
    m_Direct_beam_y_pxl = value;
    m_Direct_beam_y_pxlIsSet = true;
}
bool Calibration_quality::directBeamYPxlIsSet() const
{
    return m_Direct_beam_y_pxlIsSet;
}
void Calibration_quality::unsetDirect_beam_y_pxl()
{
    m_Direct_beam_y_pxlIsSet = false;
}
float Calibration_quality::getHeaderDistanceMm() const
{
    return m_Header_distance_mm;
}
void Calibration_quality::setHeaderDistanceMm(float const value)
{
    m_Header_distance_mm = value;
    m_Header_distance_mmIsSet = true;
}
bool Calibration_quality::headerDistanceMmIsSet() const
{
    return m_Header_distance_mmIsSet;
}
void Calibration_quality::unsetHeader_distance_mm()
{
    m_Header_distance_mmIsSet = false;
}
float Calibration_quality::getRingSeedDistanceMm() const
{
    return m_Ring_seed_distance_mm;
}
void Calibration_quality::setRingSeedDistanceMm(float const value)
{
    m_Ring_seed_distance_mm = value;
    m_Ring_seed_distance_mmIsSet = true;
}
bool Calibration_quality::ringSeedDistanceMmIsSet() const
{
    return m_Ring_seed_distance_mmIsSet;
}
void Calibration_quality::unsetRing_seed_distance_mm()
{
    m_Ring_seed_distance_mmIsSet = false;
}
bool Calibration_quality::isTiltRefined() const
{
    return m_Tilt_refined;
}
void Calibration_quality::setTiltRefined(bool const value)
{
    m_Tilt_refined = value;
    m_Tilt_refinedIsSet = true;
}
bool Calibration_quality::tiltRefinedIsSet() const
{
    return m_Tilt_refinedIsSet;
}
void Calibration_quality::unsetTilt_refined()
{
    m_Tilt_refinedIsSet = false;
}
float Calibration_quality::getTiltSignificance() const
{
    return m_Tilt_significance;
}
void Calibration_quality::setTiltSignificance(float const value)
{
    m_Tilt_significance = value;
    m_Tilt_significanceIsSet = true;
}
bool Calibration_quality::tiltSignificanceIsSet() const
{
    return m_Tilt_significanceIsSet;
}
void Calibration_quality::unsetTilt_significance()
{
    m_Tilt_significanceIsSet = false;
}
org::openapitools::server::model::Calibration_fit_sigma Calibration_quality::getFitSigma() const
{
    return m_Fit_sigma;
}
void Calibration_quality::setFitSigma(org::openapitools::server::model::Calibration_fit_sigma const& value)
{
    m_Fit_sigma = value;
    m_Fit_sigmaIsSet = true;
}
bool Calibration_quality::fitSigmaIsSet() const
{
    return m_Fit_sigmaIsSet;
}
void Calibration_quality::unsetFit_sigma()
{
    m_Fit_sigmaIsSet = false;
}
org::openapitools::server::model::Calibration_spot_check Calibration_quality::getSpotCrossCheck() const
{
    return m_Spot_cross_check;
}
void Calibration_quality::setSpotCrossCheck(org::openapitools::server::model::Calibration_spot_check const& value)
{
    m_Spot_cross_check = value;
    m_Spot_cross_checkIsSet = true;
}
bool Calibration_quality::spotCrossCheckIsSet() const
{
    return m_Spot_cross_checkIsSet;
}
void Calibration_quality::unsetSpot_cross_check()
{
    m_Spot_cross_checkIsSet = false;
}


} // namespace org::openapitools::server::model