SampleToPython Class Reference

Description

Generates Python code snippet from domain (C++) objects representing sample construction.

Definition at line 33 of file SampleToPython.h.

Collaboration diagram for SampleToPython:

Public Member Functions
	SampleToPython ()
	~SampleToPython ()
std::string	sampleCode (const MultiLayer &sample)

Private Member Functions
std::string	defineCoreShellParticles () const
std::string	defineCrystals () const
std::string	defineFormFactors () const
std::string	defineGetSample () const
std::string	defineInterferences () const
std::string	defineLattices2D () const
std::string	defineLattices3D () const
std::string	defineLayers () const
std::string	defineMaterials () const
std::string	defineMesoCrystals () const
std::string	defineMultiLayers () const
std::string	defineParticleCompositions () const
std::string	defineParticleLayouts () const
std::string	defineParticles () const
std::string	defineRoughnesses () const
void	initLabels (const MultiLayer &sample)

Private Attributes
std::unique_ptr< MaterialKeyHandler >	m_materials
std::unique_ptr< ComponentKeyHandler >	m_objs

Constructor & Destructor Documentation

SampleToPython()

SampleToPython::SampleToPython ( )

default

~SampleToPython()

SampleToPython::~SampleToPython ( )

default

Member Function Documentation

defineCoreShellParticles()

std::string SampleToPython::defineCoreShellParticles ( ) const

private

Definition at line 388 of file SampleToPython.cpp.

{
    std::vector<const ParticleCoreShell*> v = m_objs->objectsOfType<ParticleCoreShell>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define core shell particles\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        result << indent() << key << " = ba.ParticleCoreShell("
               << m_objs->obj2key(s->shellParticle()) << ", " << m_objs->obj2key(s->coreParticle())
               << ")\n";
        setRotationInformation(s, key, result);
        setPositionInformation(s, key, result);
    }
    return result.str();
}

References Py::Fmt::indent(), and m_objs.

Referenced by defineGetSample().

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defineCrystals()

std::string SampleToPython::defineCrystals ( ) const

private

Definition at line 492 of file SampleToPython.cpp.

{
    std::vector<const Crystal*> v = m_objs->objectsOfType<Crystal>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define crystals\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        const auto* lattice = NodeUtils::OnlyChildOfType<Lattice3D>(*s);
        const auto* basis = NodeUtils::OnlyChildOfType<IParticle>(*s);
        if (!lattice || !basis)
            continue;
        result << indent() << key << " = ba.Crystal(";
        result << m_objs->obj2key(basis) << ", ";
        result << m_objs->obj2key(lattice) << ")\n";
    }
    return result.str();
}

References Py::Fmt::indent(), and m_objs.

Referenced by defineGetSample().

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defineFormFactors()

std::string SampleToPython::defineFormFactors ( ) const

private

Definition at line 223 of file SampleToPython.cpp.

{
    std::vector<const IFormFactor*> formfactors = m_objs->objectsOfType<IFormFactor>();
    if (formfactors.empty())
        return "";
    std::ostringstream result;
    result << "\n" << indent() << "# Define form factors\n";
    result << std::setprecision(12);
    for (const auto* s : formfactors) {
        const std::string& key = m_objs->obj2key(s);
        result << indent() << key << " = ba." << s->pythonConstructor() << "\n";
    }
 
    return result.str();
}

References Py::Fmt::indent(), and m_objs.

Referenced by defineGetSample().

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defineGetSample()

std::string SampleToPython::defineGetSample ( ) const

private

Definition at line 134 of file SampleToPython.cpp.

{
    return "def get_sample():\n" + defineMaterials() + defineFormFactors() + defineParticles()
           + defineCoreShellParticles() + defineParticleCompositions() + defineLattices2D()
           + defineLattices3D() + defineCrystals() + defineMesoCrystals() + defineInterferences()
           + defineParticleLayouts() + defineRoughnesses() + defineLayers() + defineMultiLayers()
           + "\n\n";
}

References defineCoreShellParticles(), defineCrystals(), defineFormFactors(), defineInterferences(), defineLattices2D(), defineLattices3D(), defineLayers(), defineMaterials(), defineMesoCrystals(), defineMultiLayers(), defineParticleCompositions(), defineParticleLayouts(), defineParticles(), and defineRoughnesses().

Referenced by sampleCode().

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defineInterferences()

std::string SampleToPython::defineInterferences ( ) const

private

Definition at line 239 of file SampleToPython.cpp.

{
    std::vector<const IInterference*> v = m_objs->objectsOfType<IInterference>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define interference functions\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
 
        if (dynamic_cast<const InterferenceNone*>(s))
            result << indent() << key << " = ba.InterferenceNone()\n";
 
        else if (const auto* iff = dynamic_cast<const Interference1DLattice*>(s)) {
            result << indent() << key << " = ba.Interference1DLattice("
                   << Py::Fmt::printNm(iff->length()) << ", " << Py::Fmt::printDegrees(iff->xi())
                   << ")\n";
 
            const auto* pdf = NodeUtils::OnlyChildOfType<IProfile1D>(*iff);
 
            if (pdf->decayLength() != 0.0)
                result << indent() << key << "_pdf  = ba." << pdf->pythonConstructor() << "\n"
                       << indent() << key << ".setDecayFunction(" << key << "_pdf)\n";
        } else if (const auto* iff = dynamic_cast<const InterferenceRadialParaCrystal*>(s)) {
            result << indent() << key << " = ba.InterferenceRadialParaCrystal("
                   << Py::Fmt::printNm(iff->peakDistance()) << ", "
                   << Py::Fmt::printNm(iff->dampingLength()) << ")\n";
 
            if (iff->kappa() != 0.0)
                result << indent() << key << ".setKappa(" << Py::Fmt::printDouble(iff->kappa())
                       << ")\n";
 
            if (iff->domainSize() != 0.0)
                result << indent() << key << ".setDomainSize("
                       << Py::Fmt::printDouble(iff->domainSize()) << ")\n";
 
            const auto* pdf = NodeUtils::OnlyChildOfType<IProfile1D>(*iff);
 
            if (pdf->omega() != 0.0)
                result << indent() << key << "_pdf  = ba." << pdf->pythonConstructor() << "\n"
                       << indent() << key << ".setProbabilityDistribution(" << key << "_pdf)\n";
        } else if (const auto* iff = dynamic_cast<const Interference2DLattice*>(s)) {
            const auto* lattice = NodeUtils::OnlyChildOfType<Lattice2D>(*iff);
 
            result << indent() << key << " = ba.Interference2DLattice(" << m_objs->obj2key(lattice)
                   << ")\n";
 
            const auto* pdf = NodeUtils::OnlyChildOfType<IProfile2D>(*iff);
 
            result << indent() << key << "_pdf  = ba." << pdf->pythonConstructor() << "\n"
                   << indent() << key << ".setDecayFunction(" << key << "_pdf)\n";
 
            if (iff->integrationOverXi())
                result << indent() << key << ".setIntegrationOverXi(True)\n";
        } else if (const auto* iff = dynamic_cast<const InterferenceFinite2DLattice*>(s)) {
            const auto* lattice = NodeUtils::OnlyChildOfType<Lattice2D>(*iff);
 
            result << indent() << key << " = ba.InterferenceFinite2DLattice("
                   << m_objs->obj2key(lattice) << ", " << iff->numberUnitCells1() << ", "
                   << iff->numberUnitCells2() << ")\n";
 
            if (iff->integrationOverXi())
                result << indent() << key << ".setIntegrationOverXi(True)\n";
        } else if (const auto* iff = dynamic_cast<const Interference2DParaCrystal*>(s)) {
            const auto* lattice = NodeUtils::OnlyChildOfType<Lattice2D>(*iff);
            std::vector<double> domainSize = iff->domainSizes();
 
            result << indent() << key << " = ba.Interference2DParaCrystal("
                   << m_objs->obj2key(lattice) << ", " << Py::Fmt::printNm(iff->dampingLength())
                   << ", " << Py::Fmt::printNm(domainSize[0]) << ", "
                   << Py::Fmt::printNm(domainSize[1]) << ")\n";
 
            if (iff->integrationOverXi())
                result << indent() << key << ".setIntegrationOverXi(True)\n";
 
            const auto pdf_vector = NodeUtils::ChildNodesOfType<IProfile2D>(*iff);
            if (pdf_vector.size() != 2)
                continue;
            const IProfile2D* pdf = pdf_vector[0];
 
            result << indent() << key << "_pdf_1  = ba." << pdf->pythonConstructor() << "\n";
 
            pdf = pdf_vector[1];
 
            result << indent() << key << "_pdf_2  = ba." << pdf->pythonConstructor() << "\n";
            result << indent() << key << ".setProbabilityDistributions(" << key << "_pdf_1, " << key
                   << "_pdf_2)\n";
        } else if (const auto* lattice_hd = dynamic_cast<const InterferenceHardDisk*>(s)) {
            result << indent() << key << " = ba.InterferenceHardDisk("
                   << Py::Fmt::printNm(lattice_hd->radius()) << ", "
                   << Py::Fmt::printDouble(lattice_hd->density()) << ")\n";
        } else
            ASSERT(0);
 
        if (s->positionVariance() > 0.0) {
            result << indent() << key << ".setPositionVariance("
                   << Py::Fmt::printNm2(s->positionVariance()) << ")\n";
        }
    }
    return result.str();
}

References ASSERT, Py::Fmt::indent(), m_objs, Py::Fmt::printDegrees(), Py::Fmt::printDouble(), Py::Fmt::printNm(), Py::Fmt::printNm2(), and IProfile2D::pythonConstructor().

Referenced by defineGetSample().

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defineLattices2D()

std::string SampleToPython::defineLattices2D ( ) const

private

Definition at line 450 of file SampleToPython.cpp.

{
    std::vector<const Lattice2D*> v = m_objs->objectsOfType<Lattice2D>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define 2D lattices\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        result << indent() << key << " = ba.BasicLattice2D(\n";
        result << indent() << indent() << Py::Fmt::printNm(s->length1()) << ", "
               << Py::Fmt::printNm(s->length2()) << ", " << Py::Fmt::printDegrees(s->latticeAngle())
               << ", " << Py::Fmt::printDegrees(s->rotationAngle()) << ")\n";
    }
    return result.str();
}

References Py::Fmt::indent(), m_objs, Py::Fmt::printDegrees(), and Py::Fmt::printNm().

Referenced by defineGetSample().

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defineLattices3D()

std::string SampleToPython::defineLattices3D ( ) const

private

Definition at line 468 of file SampleToPython.cpp.

{
    std::vector<const Lattice3D*> v = m_objs->objectsOfType<Lattice3D>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define 3D lattices\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        R3 bas_a = s->basisVectorA();
        R3 bas_b = s->basisVectorB();
        R3 bas_c = s->basisVectorC();
        result << indent() << key << " = ba.Lattice3D(\n";
        result << indent() << indent() << "ba.R3(" << Py::Fmt::printNm(bas_a.x()) << ", "
               << Py::Fmt::printNm(bas_a.y()) << ", " << Py::Fmt::printNm(bas_a.z()) << "),\n";
        result << indent() << indent() << "ba.R3(" << Py::Fmt::printNm(bas_b.x()) << ", "
               << Py::Fmt::printNm(bas_b.y()) << ", " << Py::Fmt::printNm(bas_b.z()) << "),\n";
        result << indent() << indent() << "ba.R3(" << Py::Fmt::printNm(bas_c.x()) << ", "
               << Py::Fmt::printNm(bas_c.y()) << ", " << Py::Fmt::printNm(bas_c.z()) << "))\n";
    }
    return result.str();
}

References Py::Fmt::indent(), m_objs, and Py::Fmt::printNm().

Referenced by defineGetSample().

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defineLayers()

std::string SampleToPython::defineLayers ( ) const

private

Definition at line 186 of file SampleToPython.cpp.

{
    std::vector<const Layer*> v = m_objs->objectsOfType<Layer>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << "\n" << indent() << "# Define layers\n";
    result << std::setprecision(12);
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        result << indent() << key << " = ba.Layer(" << m_materials->mat2key(s->material());
        if (s->thickness() != 0)
            result << ", " << Py::Fmt::printNm(s->thickness());
        result << ")\n";
        if (s->numberOfSlices() != 1)
            result << indent() << key << ".setNumberOfSlices(" << s->numberOfSlices() << ")\n";
        for (const auto* layout : s->layouts())
            result << indent() << key << ".addLayout(" << m_objs->obj2key(layout) << ")\n";
    }
    return result.str();
}

References Py::Fmt::indent(), m_materials, m_objs, and Py::Fmt::printNm().

Referenced by defineGetSample().

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defineMaterials()

std::string SampleToPython::defineMaterials ( ) const

private

Definition at line 147 of file SampleToPython.cpp.

{
    const auto themap = m_materials->materialMap();
    if (themap.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << indent() << "# Define materials\n";
    std::set<std::string> visitedMaterials;
    for (const auto& it : themap) {
        const std::string& key = it.first;
        if (visitedMaterials.find(key) != visitedMaterials.end())
            continue;
        visitedMaterials.insert(key);
        const Material* p_material = it.second;
        const auto factory_name = factory_names.find(p_material->typeID());
        if (factory_name == factory_names.cend())
            throw std::runtime_error(
                "Error in Py::Export::defineMaterials(): unknown material type");
        const complex_t& material_data = p_material->materialData();
        if (p_material->isScalarMaterial()) {
            result << indent() << m_materials->mat2key(p_material) << " = ba."
                   << factory_name->second << "(\"" << p_material->materialName() << "\", "
                   << Py::Fmt::printDouble(material_data.real()) << ", "
                   << Py::Fmt::printDouble(material_data.imag()) << ")\n";
        } else {
            R3 magnetic_field = p_material->magnetization();
            result << indent() << "magnetic_field = R3(" << magnetic_field.x() << ", "
                   << magnetic_field.y() << ", " << magnetic_field.z() << ")\n";
            result << indent() << m_materials->mat2key(p_material) << " = ba."
                   << factory_name->second << "(\"" << p_material->materialName();
            result << "\", " << Py::Fmt::printDouble(material_data.real()) << ", "
                   << Py::Fmt::printDouble(material_data.imag()) << ", "
                   << "magnetic_field)\n";
        }
    }
    return result.str();
}

References factory_names, Py::Fmt::indent(), Material::isScalarMaterial(), m_materials, Material::magnetization(), Material::materialData(), Material::materialName(), Py::Fmt::printDouble(), and Material::typeID().

Referenced by defineGetSample().

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defineMesoCrystals()

std::string SampleToPython::defineMesoCrystals ( ) const

private

Definition at line 427 of file SampleToPython.cpp.

{
    std::vector<const MesoCrystal*> v = m_objs->objectsOfType<MesoCrystal>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define mesocrystals\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        const auto* crystal = NodeUtils::OnlyChildOfType<Crystal>(*s);
        const auto* outer_shape = NodeUtils::OnlyChildOfType<IFormFactor>(*s);
        if (!crystal || !outer_shape)
            continue;
        result << indent() << key << " = ba.MesoCrystal(";
        result << m_objs->obj2key(crystal) << ", ";
        result << m_objs->obj2key(outer_shape) << ")\n";
        setRotationInformation(s, key, result);
        setPositionInformation(s, key, result);
    }
    return result.str();
}

References Py::Fmt::indent(), and m_objs.

Referenced by defineGetSample().

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defineMultiLayers()

std::string SampleToPython::defineMultiLayers ( ) const

private

Definition at line 513 of file SampleToPython.cpp.

{
    std::vector<const MultiLayer*> v = m_objs->objectsOfType<MultiLayer>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    ASSERT(v.size() == 1); // as long as there is exactly one sample, we shall use the singular
    result << "\n" << indent() << "# Define sample\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        result << indent() << key << " = ba.MultiLayer()\n";
        double ccl = s->crossCorrLength();
        if (ccl > 0.0)
            result << indent() << key << ".setCrossCorrLength(" << ccl << ")\n";
        auto external_field = s->externalField();
        if (external_field.mag() > 0.0) {
            std::string field_name = key + "_external_field";
            result << indent() << field_name << " = R3("
                   << Py::Fmt::printScientificDouble(external_field.x()) << ", "
                   << Py::Fmt::printScientificDouble(external_field.y()) << ", "
                   << Py::Fmt::printScientificDouble(external_field.z()) << ")\n";
            result << indent() << key << ".setExternalField(" << field_name << ")\n";
        }
        size_t numberOfLayers = s->numberOfLayers();
        if (numberOfLayers) {
            result << indent() << key << ".addLayer(" << m_objs->obj2key(s->layer(0)) << ")\n";
 
            size_t i_layer = 1;
            while (i_layer != numberOfLayers) {
                const LayerInterface* layerInterface = s->layerInterface(i_layer - 1);
                if (const LayerRoughness* rough = layerInterface->roughness())
                    result << indent() << key << ".addLayerWithTopRoughness("
                           << m_objs->obj2key(s->layer(i_layer)) << ", " << m_objs->obj2key(rough)
                           << ")\n";
                else
                    result << indent() << key << ".addLayer(" << m_objs->obj2key(s->layer(i_layer))
                           << ")\n";
                i_layer++;
            }
        }
        result << "\n" << indent() << "return " << key << "\n";
    }
    return result.str();
}

References ASSERT, Py::Fmt::indent(), m_objs, Py::Fmt::printScientificDouble(), and LayerInterface::roughness().

Referenced by defineGetSample().

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defineParticleCompositions()

std::string SampleToPython::defineParticleCompositions ( ) const

private

Definition at line 407 of file SampleToPython.cpp.

{
    std::vector<const ParticleComposition*> v = m_objs->objectsOfType<ParticleComposition>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define composition of particles at specific positions\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        result << indent() << key << " = ba.ParticleComposition()\n";
        const auto particle_list = NodeUtils::ChildNodesOfType<IParticle>(*s);
        for (const auto* particle : particle_list)
            result << indent() << key << ".addParticle(" << m_objs->obj2key(particle) << ")\n";
        setRotationInformation(s, key, result);
        setPositionInformation(s, key, result);
    }
    return result.str();
}

References Py::Fmt::indent(), and m_objs.

Referenced by defineGetSample().

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defineParticleLayouts()

std::string SampleToPython::defineParticleLayouts ( ) const

private

Definition at line 342 of file SampleToPython.cpp.

{
    std::vector<const ParticleLayout*> v = m_objs->objectsOfType<ParticleLayout>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define particle layouts\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        result << indent() << key << " = ba.ParticleLayout()\n";
        const auto particles = NodeUtils::ChildNodesOfType<IParticle>(*s);
        for (const auto* particle : particles) {
            double abundance = particle->abundance();
            result << indent() << key << ".addParticle(" << m_objs->obj2key(particle) << ", "
                   << Py::Fmt::printDouble(abundance) << ")\n";
        }
        if (const auto* iff = NodeUtils::OnlyChildOfType<IInterference>(*s))
            result << indent() << key << ".setInterference(" << m_objs->obj2key(iff) << ")\n";
        result << indent() << key << ".setWeight(" << s->weight() << ")\n";
        result << indent() << key << ".setTotalParticleSurfaceDensity("
               << s->totalParticleSurfaceDensity() << ")\n";
    }
    return result.str();
}

References IParticle::abundance(), Py::Fmt::indent(), m_objs, and Py::Fmt::printDouble().

Referenced by defineGetSample().

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defineParticles()

std::string SampleToPython::defineParticles ( ) const

private

Definition at line 368 of file SampleToPython.cpp.

{
    std::vector<const Particle*> v = m_objs->objectsOfType<Particle>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define particles\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        const auto* ff = NodeUtils::OnlyChildOfType<IFormFactor>(*s);
        ASSERT(ff);
        result << indent() << key << " = ba.Particle(" << m_materials->mat2key(s->material())
               << ", " << m_objs->obj2key(ff) << ")\n";
        setRotationInformation(s, key, result);
        setPositionInformation(s, key, result);
    }
    return result.str();
}

References ASSERT, Py::Fmt::indent(), m_materials, and m_objs.

Referenced by defineGetSample().

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defineRoughnesses()

std::string SampleToPython::defineRoughnesses ( ) const

private

Definition at line 208 of file SampleToPython.cpp.

{
    std::vector<const LayerRoughness*> v = m_objs->objectsOfType<LayerRoughness>();
    if (v.empty())
        return "";
    std::ostringstream result;
    result << std::setprecision(12);
    result << "\n" << indent() << "# Define roughness\n";
    for (const auto* s : v) {
        const std::string& key = m_objs->obj2key(s);
        result << indent() << key << " = ba." << s->pythonConstructor() << "\n";
    }
    return result.str();
}

References Py::Fmt::indent(), and m_objs.

Referenced by defineGetSample().

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initLabels()

void SampleToPython::initLabels ( const MultiLayer &  sample )

private

Definition at line 95 of file SampleToPython.cpp.

{
    m_objs = std::make_unique<ComponentKeyHandler>();
    m_materials = std::make_unique<MaterialKeyHandler>();
 
    for (const auto* x : sample.containedMaterials())
        m_materials->insertMaterial(x);
 
    m_objs->insertModel("sample", &sample);
    for (const auto* x : NodeUtils::AllDescendantsOfType<Layer>(sample))
        m_objs->insertModel("layer", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<LayerRoughness>(sample))
        m_objs->insertModel("roughness", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<ParticleLayout>(sample))
        m_objs->insertModel("layout", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<IFormFactor>(sample))
        m_objs->insertModel("ff", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<IInterference>(sample))
        m_objs->insertModel("iff", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<Particle>(sample))
        m_objs->insertModel("particle", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<ParticleComposition>(sample))
        m_objs->insertModel("particle", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<ParticleCoreShell>(sample))
        m_objs->insertModel("particle", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<MesoCrystal>(sample))
        m_objs->insertModel("particle", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<Lattice2D>(sample))
        m_objs->insertModel("lattice", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<Lattice3D>(sample))
        m_objs->insertModel("lattice", x);
    for (const auto* x : NodeUtils::AllDescendantsOfType<Crystal>(sample))
        m_objs->insertModel("crystal", x);
}

References ISampleNode::containedMaterials(), m_materials, and m_objs.

Referenced by sampleCode().

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sampleCode()

std::string SampleToPython::sampleCode

(

const MultiLayer &

sample

)

Definition at line 89 of file SampleToPython.cpp.

{
    initLabels(sample);
    return defineGetSample();
}

References defineGetSample(), and initLabels().

Referenced by Py::Export::sampleCode().

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Member Data Documentation

m_materials

std::unique_ptr<MaterialKeyHandler> SampleToPython::m_materials

private

Definition at line 60 of file SampleToPython.h.

Referenced by defineLayers(), defineMaterials(), defineParticles(), and initLabels().

m_objs

std::unique_ptr<ComponentKeyHandler> SampleToPython::m_objs

private

Definition at line 59 of file SampleToPython.h.

Referenced by defineCoreShellParticles(), defineCrystals(), defineFormFactors(), defineInterferences(), defineLattices2D(), defineLattices3D(), defineLayers(), defineMesoCrystals(), defineMultiLayers(), defineParticleCompositions(), defineParticleLayouts(), defineParticles(), defineRoughnesses(), and initLabels().

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The documentation for this class was generated from the following files:

• /home/build/builds/o5h8MZZm/0/mlz/bornagain/Sim/Export/SampleToPython.h
• /home/build/builds/o5h8MZZm/0/mlz/bornagain/Sim/Export/SampleToPython.cpp