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FESA/tests/unit/results/result_database_test.cpp
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#include <gtest/gtest.h>
#include <algorithm>
#include <array>
#include <limits>
#include <string_view>
#include <utility>
#include <fesa/results/result_database.hpp>
namespace {
std::array<double, 6> zeros() {
return {0.0, 0.0, 0.0, 0.0, 0.0, 0.0};
}
fesa::ResultDatabase valid_database() {
fesa::NodalFrame nodal{
{fesa::NodeId{0}, fesa::NodeId{1}},
{
fesa::EntityOrigin{"BeamPart", "Beam-1", 10},
fesa::EntityOrigin{"BeamPart", "Beam-1", 20},
},
{
zeros(),
{1.0, 2.0, 3.0, 0.1, 0.2, 0.3},
},
{
{-10.0, -20.0, -30.0, -1.0, -2.0, -3.0},
zeros(),
},
};
fesa::BeamElementFrame beam{
fesa::ElementId{3},
fesa::EntityOrigin{"BeamPart", "Beam-1", 30},
{
fesa::Vec3{1.0, 0.0, 0.0},
fesa::Vec3{0.0, 1.0, 0.0},
fesa::Vec3{0.0, 0.0, 1.0},
},
{{
{
-1.0,
fesa::NodeId{0},
zeros(),
zeros(),
0.0,
{1.0},
},
{
1.0,
fesa::NodeId{1},
zeros(),
zeros(),
0.0,
{2.0},
},
}},
};
fesa::ResultFrame frame{
1.0,
std::move(nodal),
{{std::move(beam)}},
{},
};
fesa::ResultStep step{"Load", {std::move(frame)}};
return {"1.0.0", {std::move(step)}};
}
bool has_diagnostic(
const fesa::Status& status,
const std::string_view code) {
return std::ranges::any_of(
status.diagnostics,
[code](const fesa::Diagnostic& diagnostic) {
return diagnostic.code == code &&
diagnostic.stage == fesa::DiagnosticStage::results &&
diagnostic.severity == fesa::Severity::error;
});
}
TEST(NodalFrame, AcceptsFiniteSixComponentFieldsWithMatchingNodeIds) {
const auto database = valid_database();
const auto status = fesa::validate_result_database(database);
EXPECT_TRUE(status.succeeded);
EXPECT_TRUE(status.diagnostics.empty());
}
TEST(NodalFrame, RejectsDisplacementSizeMismatch) {
auto database = valid_database();
database.steps[0].frames[0].nodal.displacement.pop_back();
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.nodal_size_mismatch"));
}
TEST(NodalFrame, RejectsReactionSizeMismatch) {
auto database = valid_database();
database.steps[0].frames[0].nodal.reaction.pop_back();
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.nodal_size_mismatch"));
}
TEST(CompleteResultContract, RejectsNodeOriginSizeMismatch) {
auto database = valid_database();
database.steps[0].frames[0].nodal.origins.pop_back();
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(
status, "results.nodal_origin_size_mismatch"));
}
TEST(NodalFrame, RejectsDuplicateNodeId) {
auto database = valid_database();
database.steps[0].frames[0].nodal.node_ids[1] = fesa::NodeId{0};
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.duplicate_node_id"));
}
TEST(NodalFrame, RejectsNonfiniteDisplacement) {
auto database = valid_database();
database.steps[0].frames[0].nodal.displacement[1][2] =
std::numeric_limits<double>::quiet_NaN();
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.nonfinite_value"));
}
TEST(NodalFrame, RejectsNonfiniteReaction) {
auto database = valid_database();
database.steps[0].frames[0].nodal.reaction[0][4] =
std::numeric_limits<double>::infinity();
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.nonfinite_value"));
}
TEST(ResultDatabase, RejectsDuplicateStepName) {
auto database = valid_database();
database.steps.push_back(database.steps[0]);
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.duplicate_step_name"));
}
TEST(ResultDatabase, RejectsDuplicateFrameTimeWithinStep) {
auto database = valid_database();
database.steps[0].frames.push_back(database.steps[0].frames[0]);
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.duplicate_frame_time"));
}
TEST(ResultDatabase, RejectsNonfiniteFrameTime) {
auto database = valid_database();
database.steps[0].frames[0].step_time =
std::numeric_limits<double>::quiet_NaN();
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.nonfinite_value"));
}
TEST(CompleteResultContract, DeclaresCoordinatesAndComponentOrdering) {
EXPECT_EQ(
fesa::NodalFrame::coordinate_system,
fesa::FieldCoordinateSystem::global);
EXPECT_EQ(
fesa::NodalFrame::displacement_components,
(std::array<std::string_view, 6>{
"Ux", "Uy", "Uz", "Rx", "Ry", "Rz"}));
EXPECT_EQ(
fesa::NodalFrame::reaction_components,
(std::array<std::string_view, 6>{
"RFx", "RFy", "RFz", "RMx", "RMy", "RMz"}));
EXPECT_EQ(
fesa::BeamElementFrame::coordinate_system,
fesa::FieldCoordinateSystem::element_local);
EXPECT_EQ(
fesa::BeamElementFrame::section_strain_components,
(std::array<std::string_view, 6>{
"epsilon", "gamma_y", "gamma_z", "kappa_x", "kappa_y",
"kappa_z"}));
EXPECT_EQ(
fesa::BeamElementFrame::section_force_components,
(std::array<std::string_view, 6>{
"N", "Vy", "Vz", "T", "My", "Mz"}));
EXPECT_EQ(
fesa::BeamElementFrame::axial_stress_component,
std::string_view{"sigma_xx"});
}
TEST(ElementFrame, AcceptsFiniteConnectedBeamResults) {
const auto status = fesa::validate_result_database(valid_database());
EXPECT_TRUE(status.succeeded);
EXPECT_TRUE(status.diagnostics.empty());
}
TEST(ElementFrame, RejectsDuplicateElementId) {
auto database = valid_database();
auto& beams = database.steps[0].frames[0].element.beams;
beams.push_back(beams[0]);
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.duplicate_element_id"));
}
TEST(ElementFrame, RejectsDuplicateEndNode) {
auto database = valid_database();
auto& ends = database.steps[0].frames[0]
.element.beams[0].end_results;
ends[1].end_node = ends[0].end_node;
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.duplicate_beam_end_node"));
}
TEST(ElementFrame, RejectsWrongEndConnectivity) {
auto database = valid_database();
database.steps[0].frames[0]
.element.beams[0].end_results[0].xi = 1.0;
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.invalid_beam_connectivity"));
}
TEST(ElementFrame, RejectsEndNodeAbsentFromNodalFrame) {
auto database = valid_database();
database.steps[0].frames[0]
.element.beams[0].end_results[1].end_node = fesa::NodeId{99};
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.invalid_beam_connectivity"));
}
TEST(ElementFrame, RejectsNonfiniteLocalFrameAndSectionValue) {
auto database = valid_database();
auto& beam = database.steps[0].frames[0].element.beams[0];
beam.local_frame.ey.y = std::numeric_limits<double>::infinity();
beam.end_results[1].section_force[4] =
std::numeric_limits<double>::quiet_NaN();
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(status, "results.nonfinite_value"));
}
TEST(ElementFrame, RejectsMismatchedRecoveryPointCount) {
auto database = valid_database();
database.steps[0].frames[0]
.element.beams[0].end_results[1].sigma_xx.push_back(3.0);
const auto status = fesa::validate_result_database(database);
EXPECT_FALSE(status.succeeded);
EXPECT_TRUE(has_diagnostic(
status, "results.recovery_point_count_mismatch"));
}
} // namespace