18760276758

Committed 23 Oct 2025 07:54PM UTC coverage: 88.981% (-1.0%) from 89.946%

Build # 18760276758

Build Type

Pull #75

github

Committed by

web-flow

Commit Message

Merge 98a52da76 into f6f121007

Pull Request Pull Request #75: New sun models

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5 existing lines in 2 files now uncovered.

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93.37

/coretrace/simulation_runner/native_runner/native_runner.cpp


#include "native_runner.hpp"

#include <exception>
#include <map>
// #include <algorithm>

// SimulationData headers
#include "composite_element.hpp"
#include "element.hpp"
#include "simulation_parameters.hpp"
#include "simulation_data.hpp"
#include "simulation_data_export.hpp"

// NativeRunner headers
#include "native_runner_types.hpp"
#include "trace.hpp"

namespace SolTrace::NativeRunner
{

    NativeRunner::NativeRunner() : SimulationRunner(),
                                   as_power_tower(false),
                                   number_of_threads(1)
    {
    }

    NativeRunner::~NativeRunner()
    {
    }

    RunnerStatus NativeRunner::initialize()
    {
        return RunnerStatus::SUCCESS;
    }

    RunnerStatus NativeRunner::setup_simulation(const SimulationData *data)
    {

        RunnerStatus sts;

        sts = this->setup_parameters(data);

        if (sts == RunnerStatus::SUCCESS)
            sts = this->setup_sun(data);

        if (sts == RunnerStatus::SUCCESS)
            sts = this->setup_elements(data);

        return sts;
    }

    RunnerStatus NativeRunner::setup_parameters(const SimulationData *data)
    {
        // Get Parameter data
        // TODO: Check that these parameters are used as expected
        const SimulationParameters &sim_params = data->get_simulation_parameters();
        this->tsys.sim_errors_sunshape = sim_params.include_sun_shape_errors;
        this->tsys.sim_errors_optical = sim_params.include_optical_errors;
        this->tsys.sim_raycount = sim_params.number_of_rays;
        this->tsys.sim_raymax = sim_params.max_number_of_rays;
        this->tsys.seed = sim_params.seed;
        return RunnerStatus::SUCCESS;
    }

    RunnerStatus NativeRunner::setup_sun(const SimulationData *data)
    {
        // TODO: This should throw an error...
        // Get RaySource data (this runner assumes there is only the Sun)
        assert(data->get_number_of_ray_sources() == 1);

        ray_source_ptr sun = data->get_ray_source();
        vector_copy(this->tsys.Sun.Origin, sun->get_position());
        this->tsys.Sun.ShapeIndex = sun->get_shape();

        // Set sunshape data
        switch (sun->get_shape())
        {
        case SunShape::GAUSSIAN:
            this->tsys.Sun.Sigma = sun->get_sigma();
            break;
        case SunShape::PILLBOX:
            this->tsys.Sun.Sigma = sun->get_half_width();
            break;
        case SunShape::LIMBDARKENED:
            this->tsys.Sun.MaxAngle = 4.65; // [mrad]
            this->tsys.Sun.MaxIntensity = 1.0;
            break;
        case SunShape::BUIE_CSR: {
            this->tsys.Sun.MaxAngle = 43.6; // [mrad]
            this->tsys.Sun.MaxIntensity = 1.0;
            // Calculate kappa and gamma parameters
            // Creates the Buie (2003) sun shape based on CSR
            // [1] Buie, D., Dey, C., & Bosi, S. (2003). The effective size of the solar cone for solar concentrating systems. Solar energy, 74(2003), 417-427.
            // [2] Buie, D., Monger, A., & Dey, C. (2003). Sun shape distributions for terrestrial solar simulations. Solar Energy, 74(March 2003), 113-122.
            double csr = sun->get_circumsolar_ratio();
            double chi;
            if (csr > 0.145)
                chi = -0.04419909985804843 + csr * (1.401323894233574 + csr * (-0.3639746714505299 + csr * (-0.9579768560161194 + 1.1550475450828657 * csr)));
            else if (csr > 0.035)
                chi = 0.022652077593662934 + csr * (0.5252380349996234 + (2.5484334534423887 - 0.8763755326550412 * csr) * csr);
            else
                chi = 0.004733749294807862 + csr * (4.716738065192151 + csr * (-463.506669149804 + csr * (24745.88727411664 + csr * (-606122.7511711778 + 5521693.445014727 * csr))));
            this->tsys.Sun.buie_kappa = 0.9 * log(13.5 * chi) * pow(chi, -0.3);
            this->tsys.Sun.buie_gamma = 2.2 * log(0.52 * chi) * pow(chi, 0.43) - 0.1;
            break;
        }
        case SunShape::USER_DEFINED:
            std::vector<double> angle, intensity;
            sun->get_user_data(angle, intensity);
            int npoints = angle.size();

            // Set user data
            this->tsys.Sun.MaxAngle = 0;
            this->tsys.Sun.MaxIntensity = 0;

            this->tsys.Sun.SunShapeAngle.resize(2 * npoints - 1);
            this->tsys.Sun.SunShapeIntensity.resize(2 * npoints - 1);

            for (int i = 0; i < npoints; i++)
            {
                this->tsys.Sun.SunShapeAngle[npoints + i - 1] = angle[i];
                this->tsys.Sun.SunShapeIntensity[npoints + i - 1] = intensity[i];

                if (angle[i] > this->tsys.Sun.MaxAngle)
                    this->tsys.Sun.MaxAngle = angle[i];
                if (intensity[i] > this->tsys.Sun.MaxIntensity)
                    this->tsys.Sun.MaxIntensity = intensity[i];
            }

            // fill negative angle side of array
            for (int i = 0; i < npoints - 1; i++)
            {
                this->tsys.Sun.SunShapeAngle[i] = -angle[npoints - i - 1];
                this->tsys.Sun.SunShapeIntensity[i] = intensity[npoints - i - 1];
            }
        }

        return RunnerStatus::SUCCESS;
    }

    RunnerStatus NativeRunner::setup_elements(const SimulationData *data)
    {
        // TODO: Improve error messages from this function.

        RunnerStatus sts = RunnerStatus::SUCCESS;
        auto my_map = std::map<int_fast64_t, tstage_ptr>();
        // int_fast64_t current_stage_id = -1;
        tstage_ptr current_stage = nullptr;
        int_fast64_t element_number = 1;
        bool element_found_before_stage = false;

        for (auto iter = data->get_const_iterator();
             !data->is_at_end(iter);
             ++iter)
        {
            element_ptr el = iter->second;
            if (el->is_enabled() && el->is_stage())
            {
                tstage_ptr stage = make_tstage(el, this->eparams);
                auto retval = my_map.insert(
                    std::make_pair(el->get_stage(), stage));

                // current_stage_id = stage->stage_id;

                // std::cout << "Created stage " << el->get_stage()
                //           << " with " << stage->ElementList.size() << " elements"
                //           << std::endl;

                if (retval.second == false)
                {
                    // TODO: Duplicate stage numbers. Need to make an error
                    // message.
                    sts = RunnerStatus::ERROR;
                }

                current_stage = stage;
                element_number = 1;
            }
            else if (el->is_enabled() && el->is_single())
            {
                if (current_stage == nullptr)
                {
                    // throw std::runtime_error("No stage to add element to");
                    element_found_before_stage = true;
                    continue;
                }
                else if (el->get_stage() != current_stage->stage_id)
                {
                    throw std::runtime_error(
                        "Element does not match current stage");
                }

                telement_ptr elem = make_telement(iter->second,
                                                  element_number,
                                                  this->eparams);
                ++element_number;
                current_stage->ElementList.push_back(elem);
            }
        }

        if (my_map.size() != 0 && element_found_before_stage)
        {
            throw std::runtime_error("Element found without a stage");
        }

        if (my_map.size() == 0)
        {
            // No stage elements found in the passed in data. However,
            // the runner requires stages. So make a single stage
            // and put everything there. Note that the coordinates are
            // set to correspond to global coordinates. This is necessary
            // so that the element coordinate setup in make_element are
            // correct.
            int_fast64_t element_number = 1;
            auto stage = make_tstage(this->eparams);
            stage->ElementList.reserve(data->get_number_of_elements());
            for (auto iter = data->get_const_iterator();
                 !data->is_at_end(iter);
                 ++iter)
            {
                element_ptr el = iter->second;
                if (el->is_enabled() && el->is_single())
                {
                    telement_ptr tel = make_telement(el,
                                                     element_number,
                                                     this->eparams);
                    stage->ElementList.push_back(tel);
                    ++element_number;
                }
            }
            my_map.insert(std::make_pair(0, stage));
        }

        // std::map (according to the documentation) is automatically
        // ordered by the keys so inserting into a map will sort the stages
        // and we can just transfer the pointers, in order, to the StageList
        // simply by pulling them out of the map.
        int_fast64_t last_stage_id = -1;
        for (auto iter = my_map.cbegin();
             iter != my_map.cend();
             ++iter)
        {
            assert(last_stage_id < iter->first);
            last_stage_id = iter->first;
            this->tsys.StageList.push_back(iter->second);
        }

        if (sts == RunnerStatus::SUCCESS)
        {
            // std::cout << "Setting ZAperture..." << std::endl;
            // Compute and set ZAperture field in each element
            bool success = set_aperture_planes(&this->tsys);
            sts = success ? RunnerStatus::SUCCESS : RunnerStatus::ERROR;
        }

        return sts;
    }

    RunnerStatus NativeRunner::update_simulation(const SimulationData *data)
    {
        // TODO: Do a more efficient implementation of this?
        this->tsys.ClearAll();
        this->setup_simulation(data);
        return RunnerStatus::SUCCESS;
    }

    RunnerStatus NativeRunner::run_simulation()
    {
        bool trace_return = trace_native(
            &this->tsys,
            this->tsys.seed,
            this->tsys.sim_raycount,
            this->tsys.sim_raymax,
            this->tsys.sim_errors_sunshape,
            this->tsys.sim_errors_optical,
            this->as_power_tower);

        // this->tsys.CollectResults();

        return trace_return ? RunnerStatus::SUCCESS : RunnerStatus::ERROR;
    }

    RunnerStatus NativeRunner::report_simulation(SolTrace::Result::SimulationResult *result,
                                                 int level)
    {
        RunnerStatus retval = RunnerStatus::SUCCESS;

        const TSystem *sys = this->get_system();
        // const TRayData ray_data = sys->AllRayData;
        const TRayData ray_data = sys->RayData;
        std::map<unsigned int, SolTrace::Result::ray_record_ptr> ray_records;
        std::map<unsigned int, SolTrace::Result::ray_record_ptr>::iterator iter;
        size_t ndata = ray_data.Count();

        bool sts;
        Vector3d point, cosines;
        int element;
        int stage;
        unsigned int raynum;

        telement_ptr el = nullptr;
        element_id elid;
        SolTrace::Result::ray_record_ptr rec = nullptr;
        SolTrace::Result::interaction_ptr intr = nullptr;
        SolTrace::Result::RayEvent rev;

        for (size_t ii = 0; ii < ndata; ++ii)
        {
            sts = ray_data.Query(ii,
                                 point.data,
                                 cosines.data,
                                 &element,
                                 &stage,
                                 &raynum,
                                 &rev);

            if (!sts)
            {
                retval = RunnerStatus::ERROR;
                break;
            }

            // std::cout << "ii: " << ii
            //           << "\npoint: " << point
            //           << "\ndirection: " << cosines
            //           << "\nelement: " << element
            //           << "\nstage: " << stage
            //           << "\nraynum: " << raynum
            //           << "\nevent: " << ray_event_string(rev)
            //           << std::endl;

            iter = ray_records.find(raynum);
            if (iter == ray_records.end())
            {
                rec = SolTrace::Result::make_ray_record(raynum);
                result->add_ray_record(rec);
                ray_records[raynum] = rec;
                assert(rev == SolTrace::Result::RayEvent::CREATE);
            }
            else
            {
                rec = iter->second;
            }

            if (element > 0)
            {
                el = sys->StageList[stage - 1]->ElementList[element - 1];
                elid = el->sim_data_id;
            }
            else
            {
                elid = element;
            }

            intr = make_interaction_record(elid, rev, point, cosines);
            rec->add_interaction_record(intr);
        }

        return RunnerStatus::SUCCESS;
    }

    bool NativeRunner::set_aperture_planes(TSystem *tsys)
    {
        bool retval;

        for (auto iter = tsys->StageList.cbegin();
             iter != tsys->StageList.cend();
             ++iter)
        {
            retval = this->set_aperture_planes(*iter);
            if (!retval)
                break;
        }

        return retval;
    }

    bool NativeRunner::set_aperture_planes(tstage_ptr stage)
    {
        bool retval;

        for (auto eiter = stage->ElementList.begin();
             eiter != stage->ElementList.end();
             ++eiter)
        {
            retval = aperture_plane(*eiter);
            if (!retval)
                break;
        }

        return retval;
    }

    bool NativeRunner::aperture_plane(telement_ptr Element)
    {
        /*{Calculates the aperture plane of the element in element coord system.
        Applicable to rotationally symmetric apertures surfaces with small
        curvature: g, s, p, o, c, v, m, e, r, i.
          input - Element = Element record containing geometry of element
          output -
                 - Element.ZAperture  where ZAperture is the distance from
                   the origin to the plane.
        }*/

        Element->ZAperture =
            Element->icalc->compute_z_aperture(Element->aperture);

        return true;
    }

} // namespace SolTrace::NativeRunner

1
2	#include "native_runner.hpp"
3
4	#include <exception>
5	#include <map>
6	// #include <algorithm>
7
8	// SimulationData headers
9	#include "composite_element.hpp"
10	#include "element.hpp"
11	#include "simulation_parameters.hpp"
12	#include "simulation_data.hpp"
13	#include "simulation_data_export.hpp"
14
15	// NativeRunner headers
16	#include "native_runner_types.hpp"
17	#include "trace.hpp"
18
19	namespace SolTrace::NativeRunner
20	{
21
22	NativeRunner::NativeRunner() : SimulationRunner(),	22✔
23	as_power_tower(false),	22✔
24	number_of_threads(1)	22✔
25	{
26	}	22✔
27
28	NativeRunner::~NativeRunner()	22✔
29	{
30	}	22✔
31
32	RunnerStatus NativeRunner::initialize()	21✔
33	{
34	return RunnerStatus::SUCCESS;	21✔
35	}
36
37	RunnerStatus NativeRunner::setup_simulation(const SimulationData *data)	21✔
38	{
39
40	RunnerStatus sts;
41
42	sts = this->setup_parameters(data);	21✔
43
44	if (sts == RunnerStatus::SUCCESS)	21✔
45	sts = this->setup_sun(data);	21✔
46
47	if (sts == RunnerStatus::SUCCESS)	21✔
48	sts = this->setup_elements(data);	21✔
49
50	return sts;	21✔
51	}
52
53	RunnerStatus NativeRunner::setup_parameters(const SimulationData *data)	21✔
54	{
55	// Get Parameter data
56	// TODO: Check that these parameters are used as expected
57	const SimulationParameters &sim_params = data->get_simulation_parameters();	21✔
58	this->tsys.sim_errors_sunshape = sim_params.include_sun_shape_errors;	21✔
59	this->tsys.sim_errors_optical = sim_params.include_optical_errors;	21✔
60	this->tsys.sim_raycount = sim_params.number_of_rays;	21✔
61	this->tsys.sim_raymax = sim_params.max_number_of_rays;	21✔
62	this->tsys.seed = sim_params.seed;	21✔
63	return RunnerStatus::SUCCESS;	21✔
64	}
65
66	RunnerStatus NativeRunner::setup_sun(const SimulationData *data)	22✔
67	{
68	// TODO: This should throw an error...
69	// Get RaySource data (this runner assumes there is only the Sun)
70	assert(data->get_number_of_ray_sources() == 1);	22✔
71
72	ray_source_ptr sun = data->get_ray_source();	22✔
73	vector_copy(this->tsys.Sun.Origin, sun->get_position());	22✔
74	this->tsys.Sun.ShapeIndex = sun->get_shape();	22✔
75
76	// Set sunshape data
77	switch (sun->get_shape())	22✔
78	{
79	case SunShape::GAUSSIAN:	6✔
80	this->tsys.Sun.Sigma = sun->get_sigma();	6✔
81	break;	20✔
82	case SunShape::PILLBOX:	12✔
83	this->tsys.Sun.Sigma = sun->get_half_width();	12✔
84	break;	12✔
85	case SunShape::LIMBDARKENED:	1✔
86	this->tsys.Sun.MaxAngle = 4.65; // [mrad]	1✔
87	this->tsys.Sun.MaxIntensity = 1.0;	1✔
88	break;	1✔
89	case SunShape::BUIE_CSR: {	1✔
90	this->tsys.Sun.MaxAngle = 43.6; // [mrad]	1✔
91	this->tsys.Sun.MaxIntensity = 1.0;	1✔
92	// Calculate kappa and gamma parameters
93	// Creates the Buie (2003) sun shape based on CSR
94	// [1] Buie, D., Dey, C., & Bosi, S. (2003). The effective size of the solar cone for solar concentrating systems. Solar energy, 74(2003), 417-427.
95	// [2] Buie, D., Monger, A., & Dey, C. (2003). Sun shape distributions for terrestrial solar simulations. Solar Energy, 74(March 2003), 113-122.
96	double csr = sun->get_circumsolar_ratio();	1✔
97	double chi;
98	if (csr > 0.145)	1✔
NEW 99	chi = -0.04419909985804843 + csr * (1.401323894233574 + csr * (-0.3639746714505299 + csr * (-0.9579768560161194 + 1.1550475450828657 * csr)));	×
100	else if (csr > 0.035)	1✔
101	chi = 0.022652077593662934 + csr * (0.5252380349996234 + (2.5484334534423887 - 0.8763755326550412 * csr) * csr);	1✔
102	else
NEW 103	chi = 0.004733749294807862 + csr * (4.716738065192151 + csr * (-463.506669149804 + csr * (24745.88727411664 + csr * (-606122.7511711778 + 5521693.445014727 * csr))));	×
104	this->tsys.Sun.buie_kappa = 0.9 * log(13.5 * chi) * pow(chi, -0.3);	1✔
105	this->tsys.Sun.buie_gamma = 2.2 * log(0.52 * chi) * pow(chi, 0.43) - 0.1;	1✔
106	break;	1✔
107	}
108	case SunShape::USER_DEFINED:	2✔
109	std::vector<double> angle, intensity;	4✔
110	sun->get_user_data(angle, intensity);	2✔
111	int npoints = angle.size();	2✔
112
113	// Set user data
114	this->tsys.Sun.MaxAngle = 0;	2✔
115	this->tsys.Sun.MaxIntensity = 0;	2✔
116
117	this->tsys.Sun.SunShapeAngle.resize(2 * npoints - 1);	2✔
118	this->tsys.Sun.SunShapeIntensity.resize(2 * npoints - 1);	2✔
119
120	for (int i = 0; i < npoints; i++)	38✔
121	{
122	this->tsys.Sun.SunShapeAngle[npoints + i - 1] = angle[i];	36✔
123	this->tsys.Sun.SunShapeIntensity[npoints + i - 1] = intensity[i];	36✔
124
125	if (angle[i] > this->tsys.Sun.MaxAngle)	36✔
126	this->tsys.Sun.MaxAngle = angle[i];	34✔
127	if (intensity[i] > this->tsys.Sun.MaxIntensity)	36✔
128	this->tsys.Sun.MaxIntensity = intensity[i];	2✔
129	}
130
131	// fill negative angle side of array
132	for (int i = 0; i < npoints - 1; i++)	36✔
133	{
134	this->tsys.Sun.SunShapeAngle[i] = -angle[npoints - i - 1];	34✔
135	this->tsys.Sun.SunShapeIntensity[i] = intensity[npoints - i - 1];	34✔
136	}
137	}
138
139	return RunnerStatus::SUCCESS;	22✔
140	}	22✔
141
142	RunnerStatus NativeRunner::setup_elements(const SimulationData *data)	21✔
143	{
144	// TODO: Improve error messages from this function.
145
146	RunnerStatus sts = RunnerStatus::SUCCESS;	21✔
147	auto my_map = std::map<int_fast64_t, tstage_ptr>();	21✔
148	// int_fast64_t current_stage_id = -1;
149	tstage_ptr current_stage = nullptr;	21✔
150	int_fast64_t element_number = 1;	21✔
151	bool element_found_before_stage = false;	21✔
152
153	for (auto iter = data->get_const_iterator();	21✔
154	!data->is_at_end(iter);	8,654✔
155	++iter)	8,633✔
156	{
157	element_ptr el = iter->second;	8,633✔
158	if (el->is_enabled() && el->is_stage())	8,633✔
159	{
160	tstage_ptr stage = make_tstage(el, this->eparams);	23✔
161	auto retval = my_map.insert(	23✔
162	std::make_pair(el->get_stage(), stage));	46✔
163
164	// current_stage_id = stage->stage_id;
165
166	// std::cout << "Created stage " << el->get_stage()
167	// << " with " << stage->ElementList.size() << " elements"
168	// << std::endl;
169
170	if (retval.second == false)	23✔
171	{
172	// TODO: Duplicate stage numbers. Need to make an error
173	// message.
174	sts = RunnerStatus::ERROR;	×
175	}
176
177	current_stage = stage;	23✔
178	element_number = 1;	23✔
179	}	23✔
180	else if (el->is_enabled() && el->is_single())	8,610✔
181	{
182	if (current_stage == nullptr)	8,362✔
183	{
184	// throw std::runtime_error("No stage to add element to");
185	element_found_before_stage = true;	81✔
186	continue;	81✔
187	}
188	else if (el->get_stage() != current_stage->stage_id)	8,281✔
189	{
190	throw std::runtime_error(
191	"Element does not match current stage");	×
192	}
193
194	telement_ptr elem = make_telement(iter->second,	16,562✔
195	element_number,
196	this->eparams);	8,281✔
197	++element_number;	8,281✔
198	current_stage->ElementList.push_back(elem);	8,281✔
199	}	8,281✔
200	}	8,633✔
201
202	if (my_map.size() != 0 && element_found_before_stage)	21✔
203	{
204	throw std::runtime_error("Element found without a stage");	×
205	}
206
207	if (my_map.size() == 0)	21✔
208	{
209	// No stage elements found in the passed in data. However,
210	// the runner requires stages. So make a single stage
211	// and put everything there. Note that the coordinates are
212	// set to correspond to global coordinates. This is necessary
213	// so that the element coordinate setup in make_element are
214	// correct.
215	int_fast64_t element_number = 1;	9✔
216	auto stage = make_tstage(this->eparams);	9✔
217	stage->ElementList.reserve(data->get_number_of_elements());	9✔
218	for (auto iter = data->get_const_iterator();	9✔
219	!data->is_at_end(iter);	97✔
220	++iter)	88✔
221	{
222	element_ptr el = iter->second;	88✔
223	if (el->is_enabled() && el->is_single())	88✔
224	{
225	telement_ptr tel = make_telement(el,
226	element_number,
227	this->eparams);	81✔
228	stage->ElementList.push_back(tel);	81✔
229	++element_number;	81✔
230	}	81✔
231	}	88✔
232	my_map.insert(std::make_pair(0, stage));	9✔
233	}	9✔
234
235	// std::map (according to the documentation) is automatically
236	// ordered by the keys so inserting into a map will sort the stages
237	// and we can just transfer the pointers, in order, to the StageList
238	// simply by pulling them out of the map.
239	int_fast64_t last_stage_id = -1;	21✔
240	for (auto iter = my_map.cbegin();	21✔
241	iter != my_map.cend();	53✔
242	++iter)	32✔
243	{
244	assert(last_stage_id < iter->first);	32✔
245	last_stage_id = iter->first;	32✔
246	this->tsys.StageList.push_back(iter->second);	32✔
247	}
248
249	if (sts == RunnerStatus::SUCCESS)	21✔
250	{
251	// std::cout << "Setting ZAperture..." << std::endl;
252	// Compute and set ZAperture field in each element
253	bool success = set_aperture_planes(&this->tsys);	21✔
254	sts = success ? RunnerStatus::SUCCESS : RunnerStatus::ERROR;	21✔
255	}
256
257	return sts;	21✔
258	}	21✔
259
260	RunnerStatus NativeRunner::update_simulation(const SimulationData *data)	×
261	{
262	// TODO: Do a more efficient implementation of this?
263	this->tsys.ClearAll();	×
264	this->setup_simulation(data);	×
265	return RunnerStatus::SUCCESS;	×
266	}
267
268	RunnerStatus NativeRunner::run_simulation()	21✔
269	{
270	bool trace_return = trace_native(	42✔
271	&this->tsys,
272	this->tsys.seed,	21✔
273	this->tsys.sim_raycount,	21✔
274	this->tsys.sim_raymax,	21✔
275	this->tsys.sim_errors_sunshape,	21✔
276	this->tsys.sim_errors_optical,	21✔
277	this->as_power_tower);	21✔
278
279	// this->tsys.CollectResults();
280
281	return trace_return ? RunnerStatus::SUCCESS : RunnerStatus::ERROR;	21✔
282	}
283
284	RunnerStatus NativeRunner::report_simulation(SolTrace::Result::SimulationResult *result,	3✔
285	int level)
286	{
287	RunnerStatus retval = RunnerStatus::SUCCESS;	3✔
288
289	const TSystem *sys = this->get_system();	3✔
290	// const TRayData ray_data = sys->AllRayData;
291	const TRayData ray_data = sys->RayData;	3✔
292	std::map<unsigned int, SolTrace::Result::ray_record_ptr> ray_records;	3✔
293	std::map<unsigned int, SolTrace::Result::ray_record_ptr>::iterator iter;	3✔
294	size_t ndata = ray_data.Count();	3✔
295
296	bool sts;
297	Vector3d point, cosines;	3✔
298	int element;
299	int stage;
300	unsigned int raynum;
301
302	telement_ptr el = nullptr;	3✔
303	element_id elid;
304	SolTrace::Result::ray_record_ptr rec = nullptr;	3✔
305	SolTrace::Result::interaction_ptr intr = nullptr;	3✔
306	SolTrace::Result::RayEvent rev;
307
308	for (size_t ii = 0; ii < ndata; ++ii)	62,247✔
309	{
310	sts = ray_data.Query(ii,	62,244✔
311	point.data,
312	cosines.data,
313	&element,
314	&stage,
315	&raynum,
316	&rev);
317
318	if (!sts)	62,244✔
319	{
320	retval = RunnerStatus::ERROR;	×
321	break;	×
322	}
323
324	// std::cout << "ii: " << ii
325	// << "\npoint: " << point
326	// << "\ndirection: " << cosines
327	// << "\nelement: " << element
328	// << "\nstage: " << stage
329	// << "\nraynum: " << raynum
330	// << "\nevent: " << ray_event_string(rev)
331	// << std::endl;
332
333	iter = ray_records.find(raynum);	62,244✔
334	if (iter == ray_records.end())	62,244✔
335	{
336	rec = SolTrace::Result::make_ray_record(raynum);	20,010✔
337	result->add_ray_record(rec);	20,010✔
338	ray_records[raynum] = rec;	20,010✔
339	assert(rev == SolTrace::Result::RayEvent::CREATE);	20,010✔
340	}
341	else
342	{
343	rec = iter->second;	42,234✔
344	}
345
346	if (element > 0)	62,244✔
347	{
348	el = sys->StageList[stage - 1]->ElementList[element - 1];	35,633✔
349	elid = el->sim_data_id;	35,633✔
350	}
351	else
352	{
353	elid = element;	26,611✔
354	}
355
356	intr = make_interaction_record(elid, rev, point, cosines);	62,244✔
357	rec->add_interaction_record(intr);	62,244✔
358	}
359
360	return RunnerStatus::SUCCESS;	3✔
361	}	3✔
362
363	bool NativeRunner::set_aperture_planes(TSystem *tsys)	21✔
364	{
365	bool retval;
366
367	for (auto iter = tsys->StageList.cbegin();	21✔
368	iter != tsys->StageList.cend();	53✔
369	++iter)	32✔
370	{
371	retval = this->set_aperture_planes(*iter);	32✔
372	if (!retval)	32✔
373	break;	×
374	}
375
376	return retval;	21✔
377	}
378
379	bool NativeRunner::set_aperture_planes(tstage_ptr stage)	32✔
380	{
381	bool retval;
382
383	for (auto eiter = stage->ElementList.begin();	32✔
384	eiter != stage->ElementList.end();	8,394✔
385	++eiter)	8,362✔
386	{
387	retval = aperture_plane(*eiter);	8,362✔
388	if (!retval)	8,362✔
389	break;	×
390	}
391
392	return retval;	32✔
393	}
394
395	bool NativeRunner::aperture_plane(telement_ptr Element)	8,362✔
396	{
397	/*{Calculates the aperture plane of the element in element coord system.
398	Applicable to rotationally symmetric apertures surfaces with small
399	curvature: g, s, p, o, c, v, m, e, r, i.
400	input - Element = Element record containing geometry of element
401	output -
402	- Element.ZAperture where ZAperture is the distance from
403	the origin to the plane.
404	}*/
405
406	Element->ZAperture =	16,724✔
407	Element->icalc->compute_z_aperture(Element->aperture);	8,362✔
408
409	return true;	8,362✔
410	}
411
412	} // namespace SolTrace::NativeRunner

NREL / SolTrace / 18760276758

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