From 1cb45ede3f613176c4e8e5e9b4e4fdf556d9fe21 Mon Sep 17 00:00:00 2001 From: Corinne Wiesner-Friedman Date: Mon, 6 Apr 2026 12:44:19 -0400 Subject: [PATCH 1/5] Add dynamic Preissmann slot support --- tests/unit/engine/CMakeLists.txt | 2 + .../engine/test_dynamic_preissmann_slot.cpp | 1410 +++++++++++++++++ 2 files changed, 1412 insertions(+) create mode 100644 tests/unit/engine/test_dynamic_preissmann_slot.cpp diff --git a/tests/unit/engine/CMakeLists.txt b/tests/unit/engine/CMakeLists.txt index 18cdc9ec0..d3b8c74a6 100644 --- a/tests/unit/engine/CMakeLists.txt +++ b/tests/unit/engine/CMakeLists.txt @@ -101,6 +101,8 @@ add_gtest_unit(test_engine_treatment test_treatment.cpp) add_gtest_unit(test_engine_rdii test_rdii.cpp) add_gtest_unit(test_engine_gap_fixes test_gap_fixes.cpp) add_gtest_unit(test_engine_report_section test_report_section.cpp) +add_gtest_unit(test_engine_dps test_dynamic_preissmann_slot.cpp) +add_gtest_unit(test_engine_site_drainage test_site_drainage_model.cpp) # 2D surface routing tests — geometry, gradients, flux, parsing # These tests exercise the non-CVODE portions of the 2D module and diff --git a/tests/unit/engine/test_dynamic_preissmann_slot.cpp b/tests/unit/engine/test_dynamic_preissmann_slot.cpp new file mode 100644 index 000000000..c8dfbcec9 --- /dev/null +++ b/tests/unit/engine/test_dynamic_preissmann_slot.cpp @@ -0,0 +1,1410 @@ +/** + * @file test_dynamic_preissmann_slot.cpp + * @brief Targeted tests for the Dynamic Preissmann Slot (DPS) algorithm. + * + * @details Verifies the DPS implementation against the formulation in: + * Sharior, S., Hodges, B.R., & Vasconcelos, J.G. (2023). + * "Generalized, Dynamic, and Transient-Storage Form of the Preissmann Slot." + * Journal of Hydraulic Engineering, 149(11), 04023046. + * DOI: 10.1061/JHEND8.HYENG-13609 + * + * Test categories: + * 1. DPS constants and parameter defaults + * 2. computeInitialPreissmannNumber — analytical verification (Eq. 23) + * 3. computePreissmannNumber — decay model verification (Eq. 22) + * 4. updateDPSState — surcharge onset, slot area, head (Eqs. 14, 19) + * 5. Depressurization and hysteresis + * 6. getCrownCutoff / getSlotWidth behavior for DYNAMIC_SLOT + * 7. DPS head correction in computeLinkGeometry + * 8. Mass conservation: slot area × length ≈ excess volume + * 9. Open-shape bypass: open conduits never engage DPS + * 10. Energy conservation: no spurious head when P decreases + * + * @see src/engine/hydraulics/DynamicWave.hpp + * @see src/engine/hydraulics/DynamicWave.cpp + * @ingroup engine_hydraulics + */ + +#include +#ifndef _USE_MATH_DEFINES +#define _USE_MATH_DEFINES +#endif +#include +#include +#include + +#include "hydraulics/DynamicWave.hpp" +#include "hydraulics/XSectBatch.hpp" +#include "core/SimulationContext.hpp" + +using namespace openswmm; +using namespace openswmm::dynwave; + +// ============================================================================ +// Helper: build a minimal SimulationContext for DPS testing +// ============================================================================ + +/// Create a minimal 2-node, 1-link context with a circular conduit. +/// The conduit connects node 0 (upstream) to node 1 (downstream). +static SimulationContext buildMinimalContext( + double diameter, // pipe diameter (ft) + double length, // conduit length (ft) + double upstream_elev, // upstream invert (ft) + double downstream_elev // downstream invert (ft) +) { + SimulationContext ctx; + + // --- Nodes --- + ctx.nodes.resize(2); + ctx.nodes.invert_elev[0] = upstream_elev; + ctx.nodes.invert_elev[1] = downstream_elev; + ctx.nodes.full_depth[0] = 20.0; // generous depth so no overflow + ctx.nodes.full_depth[1] = 20.0; + ctx.nodes.full_volume[0] = 20.0 * 12.566; // approximate + ctx.nodes.full_volume[1] = 20.0 * 12.566; + ctx.nodes.crown_elev[0] = upstream_elev + diameter; + ctx.nodes.crown_elev[1] = downstream_elev + diameter; + + // --- Link (single circular conduit) --- + ctx.links.resize(1); + ctx.links.type[0] = LinkType::CONDUIT; + ctx.links.node1[0] = 0; + ctx.links.node2[0] = 1; + ctx.links.offset1[0] = 0.0; + ctx.links.offset2[0] = 0.0; + ctx.links.xsect_shape[0] = XsectShape::CIRCULAR; + ctx.links.xsect_y_full[0] = diameter; + ctx.links.length[0] = length; + ctx.links.mod_length[0] = length; + ctx.links.barrels[0] = 1; + + // Compute cross-section properties for circular pipe + double R = diameter / 2.0; + double a_full = M_PI * R * R; + double w_max = diameter; + double r_full = R / 2.0; // D/4 for circular + double s_full = a_full * std::pow(r_full, 2.0/3.0); + + ctx.links.xsect_a_full[0] = a_full; + ctx.links.xsect_w_max[0] = w_max; + ctx.links.xsect_r_full[0] = r_full; + ctx.links.xsect_s_full[0] = s_full; + ctx.links.xsect_s_max[0] = s_full; + ctx.links.roughness[0] = 0.013; + ctx.links.slope[0] = std::fabs(upstream_elev - downstream_elev) / length; + ctx.links.flow[0] = 0.0; + ctx.links.old_flow[0] = 0.0; + ctx.links.volume[0] = 0.0; + + return ctx; +} + +// ============================================================================ +// 1. DPS constants and parameter defaults +// ============================================================================ + +TEST(DPSConstants, DefaultTargetCelerity) { + EXPECT_DOUBLE_EQ(DPS_DEFAULT_TARGET_CELERITY, 100.0); +} + +TEST(DPSConstants, DefaultShockParam) { + EXPECT_DOUBLE_EQ(DPS_DEFAULT_SHOCK_PARAM, 2.0); +} + +TEST(DPSConstants, DefaultDecayTime) { + EXPECT_DOUBLE_EQ(DPS_DEFAULT_DECAY_TIME, 10.0); +} + +TEST(DPSConstants, CrownCutoffMatchesSlot) { + EXPECT_DOUBLE_EQ(DPS_CROWN_CUTOFF, SLOT_CROWN_CUTOFF); +} + +TEST(DPSConstants, DynamicSlotEnumValue) { + EXPECT_EQ(static_cast(SurchargeMethod::DYNAMIC_SLOT), 2); +} + +TEST(DPSSolverDefaults, DefaultDPSParameters) { + DWSolver solver; + EXPECT_DOUBLE_EQ(solver.dps_target_celerity, DPS_DEFAULT_TARGET_CELERITY); + EXPECT_DOUBLE_EQ(solver.dps_shock_param, DPS_DEFAULT_SHOCK_PARAM); + EXPECT_DOUBLE_EQ(solver.dps_decay_time, DPS_DEFAULT_DECAY_TIME); +} + +TEST(DPSSolverDefaults, CustomDPSParameters) { + DWSolver solver; + solver.dps_target_celerity = 200.0; + solver.dps_shock_param = 3.0; + solver.dps_decay_time = 5.0; + + EXPECT_DOUBLE_EQ(solver.dps_target_celerity, 200.0); + EXPECT_DOUBLE_EQ(solver.dps_shock_param, 3.0); + EXPECT_DOUBLE_EQ(solver.dps_decay_time, 5.0); +} + +// ============================================================================ +// 2. computeInitialPreissmannNumber — Eq. 23: P_0 = c_T / (β · c_g) +// ============================================================================ + +class DPSInitialPTest : public ::testing::Test { +protected: + DWSolver solver; + SimulationContext ctx; + XSectGroups groups; + std::vector xparams; + + void SetUp() override { + // 3-ft diameter circular pipe, 1000 ft long, 0.1% slope + ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + + // Build XSectGroups for the solver + xparams.resize(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xparams[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + groups.build(xparams.data(), 1); + + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(2, 1, groups); + } +}; + +TEST_F(DPSInitialPTest, AnalyticalVerification) { + // Eq. 23: P_0 = c_T / (β · c_g) + // c_g = sqrt(g · A_f / W_max) = sqrt(g · h_d) where h_d = A_f / W_max + double af = ctx.links.xsect_a_full[0]; + double wm = ctx.links.xsect_w_max[0]; + double hd = af / wm; + double cg = std::sqrt(32.2 * hd); + double expected_p0 = solver.dps_target_celerity / (solver.dps_shock_param * cg); + expected_p0 = std::max(expected_p0, 1.0); + + double p0 = solver.computeInitialPreissmannNumber(0, ctx); + EXPECT_NEAR(p0, expected_p0, 1e-10); +} + +TEST_F(DPSInitialPTest, P0AlwaysAtLeast1) { + // With extremely high c_g (very large pipe), P_0 could be < 1. Verify floor. + // Set a large pipe: A_f = 1000, W_max = 100 → h_d = 10 → c_g ≈ 17.9 + // With c_T = 100, β = 2: P_0 = 100 / (2 * 17.9) ≈ 2.79 > 1 (still > 1) + // Lower c_T to make P_0 < 1: + solver.dps_target_celerity = 1.0; // Very low target celerity + solver.dps_shock_param = 100.0; // Very high shock param + + double p0 = solver.computeInitialPreissmannNumber(0, ctx); + EXPECT_GE(p0, 1.0); +} + +TEST_F(DPSInitialPTest, ZeroWidthReturns1) { + // Degenerate case: W_max = 0 → should return 1.0 safely + ctx.links.xsect_w_max[0] = 0.0; + double p0 = solver.computeInitialPreissmannNumber(0, ctx); + EXPECT_DOUBLE_EQ(p0, 1.0); +} + +TEST_F(DPSInitialPTest, ZeroAreaReturns1) { + ctx.links.xsect_a_full[0] = 0.0; + double p0 = solver.computeInitialPreissmannNumber(0, ctx); + EXPECT_DOUBLE_EQ(p0, 1.0); +} + +TEST_F(DPSInitialPTest, HigherTargetCelerityGivesHigherP0) { + solver.dps_target_celerity = 100.0; + double p0_low = solver.computeInitialPreissmannNumber(0, ctx); + + solver.dps_target_celerity = 500.0; + double p0_high = solver.computeInitialPreissmannNumber(0, ctx); + + EXPECT_GT(p0_high, p0_low); +} + +TEST_F(DPSInitialPTest, HigherBetaGivesLowerP0) { + solver.dps_shock_param = 2.0; + double p0_low_beta = solver.computeInitialPreissmannNumber(0, ctx); + + solver.dps_shock_param = 4.0; + double p0_high_beta = solver.computeInitialPreissmannNumber(0, ctx); + + EXPECT_LT(p0_high_beta, p0_low_beta); +} + +// ============================================================================ +// 3. computePreissmannNumber — Eq. 22: P(t) = 1 - (1 - P_0) · exp(-t/r) +// ============================================================================ + +class DPSDecayTest : public ::testing::Test { +protected: + DWSolver solver; + SimulationContext ctx; + XSectGroups groups; + std::vector xparams; + + void SetUp() override { + ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + xparams.resize(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xparams[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + groups.build(xparams.data(), 1); + + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.dps_decay_time = 10.0; + solver.init(2, 1, groups); + } + + void setSurchargedState(double p0, double surcharge_time) { + solver.dps_preissmann_[0] = p0; + solver.dps_surcharge_t_[0] = surcharge_time; + } +}; + +TEST_F(DPSDecayTest, AtTimeZeroReturnsP0) { + double p0 = 5.0; + setSurchargedState(p0, 0.0); + + // At t=0: P = 1 - (1 - P0) * exp(0) = 1 - (1 - P0) = P0 + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_NEAR(P, p0, 1e-10); +} + +TEST_F(DPSDecayTest, DecaysToward1) { + double p0 = 10.0; + setSurchargedState(p0, 0.0); + double P_at_0 = solver.computePreissmannNumber(0, 0.0); + + setSurchargedState(p0, 50.0); // 5 time constants + double P_at_50 = solver.computePreissmannNumber(0, 0.0); + + EXPECT_GT(P_at_0, P_at_50); + EXPECT_NEAR(P_at_50, 1.0, 0.1); // Should be very close to 1 after 5τ +} + +TEST_F(DPSDecayTest, ExponentialDecayVerification) { + double p0 = 8.0; + double r = solver.dps_decay_time; // 10 s + double t = 5.0; // half a time constant + + setSurchargedState(p0, t); + double P = solver.computePreissmannNumber(0, 0.0); + + double expected = 1.0 - (1.0 - p0) * std::exp(-t / r); + EXPECT_NEAR(P, expected, 1e-10); +} + +TEST_F(DPSDecayTest, AtInfiniteTimeConvergesTo1) { + double p0 = 20.0; + setSurchargedState(p0, 1e6); // Very long time + + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_NEAR(P, 1.0, 1e-6); +} + +TEST_F(DPSDecayTest, ZeroDecayTimeReturns1) { + solver.dps_decay_time = 0.0; + setSurchargedState(5.0, 1.0); + + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_DOUBLE_EQ(P, 1.0); +} + +TEST_F(DPSDecayTest, NotSurchargedReturnsCurrent) { + solver.dps_preissmann_[0] = 7.5; + solver.dps_surcharge_t_[0] = -1.0; // Not surcharged + + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_DOUBLE_EQ(P, 7.5); +} + +TEST_F(DPSDecayTest, NeverBelowOne) { + // Even with P0 < 1 (forced), result should be >= 1 + setSurchargedState(0.5, 2.0); // P0 < 1 (shouldn't happen normally) + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_GE(P, 1.0); +} + +// ============================================================================ +// 4. updateDPSState — surcharge onset, slot area, head +// ============================================================================ + +class DPSUpdateTest : public ::testing::Test { +protected: + DWSolver solver; + SimulationContext ctx; + XSectGroups groups; + std::vector xparams; + + void SetUp() override { + ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + xparams.resize(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xparams[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + groups.build(xparams.data(), 1); + + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(2, 1, groups); + } + + double aFull() const { return ctx.links.xsect_a_full[0]; } + double length() const { return ctx.links.mod_length[0]; } + double vFull() const { return aFull() * length(); } +}; + +TEST_F(DPSUpdateTest, NoSurchargeWhenVolumeUnderFull) { + ctx.links.volume[0] = vFull() * 0.9; + solver.updateDPSState(ctx, 1.0); + + EXPECT_LT(solver.dps_surcharge_t_[0], 0.0); // Not surcharged + EXPECT_DOUBLE_EQ(solver.dps_slot_area_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_head_[0], 0.0); +} + +TEST_F(DPSUpdateTest, SurchargeOnsetInitializesCorrectly) { + // Set volume above full + double excess = 10.0; // ft³ + ctx.links.volume[0] = vFull() + excess; + + solver.updateDPSState(ctx, 1.0); + + // Should be marked as surcharged + EXPECT_GE(solver.dps_surcharge_t_[0], 0.0); + // Initial P should be computed + EXPECT_GT(solver.dps_preissmann_[0], 0.0); + // Slot area should be positive + EXPECT_GT(solver.dps_slot_area_[0], 0.0); + // Slot head should be positive + EXPECT_GT(solver.dps_slot_head_[0], 0.0); +} + +TEST_F(DPSUpdateTest, SlotAreaEqualsExcessVolumeOverLength) { + // Eq. 14: Ts = excess_V / L (for first step where Ts_old = 0) + double excess = 50.0; + ctx.links.volume[0] = vFull() + excess; + + solver.updateDPSState(ctx, 1.0); + + double expected_ts = excess / length(); + EXPECT_NEAR(solver.dps_slot_area_[0], expected_ts, 1e-10); +} + +TEST_F(DPSUpdateTest, HeadComputationEq19) { + // Eq. 19: Δh_s = P² · ΔTs / (Af + Ts_old) + // For first step: Ts_old = 0, so Δh_s = P² · Ts / Af + double excess = 50.0; + ctx.links.volume[0] = vFull() + excess; + + solver.updateDPSState(ctx, 1.0); + + double ts = excess / length(); + double P = solver.dps_preissmann_[0]; + // P was set as initial P at onset, surcharge clock is 0, so P = P₀ + double expected_hs = P * P * ts / aFull(); + + EXPECT_NEAR(solver.dps_slot_head_[0], expected_hs, 1e-8); +} + +TEST_F(DPSUpdateTest, IncrementalSlotAreaUpdate) { + // Step 1: set excess volume → initial Ts + double excess1 = 50.0; + ctx.links.volume[0] = vFull() + excess1; + solver.updateDPSState(ctx, 1.0); + + double ts_after_1 = solver.dps_slot_area_[0]; + double hs_after_1 = solver.dps_slot_head_[0]; + + // Step 2: increase volume → Ts should increase by the incremental amount + double excess2 = 100.0; + ctx.links.volume[0] = vFull() + excess2; + solver.updateDPSState(ctx, 1.0); + + double ts_after_2 = solver.dps_slot_area_[0]; + double expected_ts2 = excess2 / length(); // total Ts at step 2 + + EXPECT_NEAR(ts_after_2, expected_ts2, 1e-10); + EXPECT_GT(ts_after_2, ts_after_1); + + // Head should have increased + EXPECT_GT(solver.dps_slot_head_[0], hs_after_1); +} + +TEST_F(DPSUpdateTest, SurchargeClockAdvances) { + double excess = 50.0; + ctx.links.volume[0] = vFull() + excess; + double dt = 2.0; + + // First step: onset → surcharge_t = 0 + solver.updateDPSState(ctx, dt); + EXPECT_DOUBLE_EQ(solver.dps_surcharge_t_[0], 0.0); + + // Second step: clock advances by dt + solver.updateDPSState(ctx, dt); + EXPECT_NEAR(solver.dps_surcharge_t_[0], dt, 1e-10); + + // Third step + solver.updateDPSState(ctx, dt); + EXPECT_NEAR(solver.dps_surcharge_t_[0], 2.0 * dt, 1e-10); +} + +// ============================================================================ +// 5. Depressurization and hysteresis +// ============================================================================ + +TEST_F(DPSUpdateTest, DepressurizationClearsState) { + // Surcharge first + ctx.links.volume[0] = vFull() + 50.0; + solver.updateDPSState(ctx, 1.0); + EXPECT_GE(solver.dps_surcharge_t_[0], 0.0); + + // Depressurize: volume below full + ctx.links.volume[0] = vFull() * 0.8; + solver.updateDPSState(ctx, 1.0); + + // State should be cleared + EXPECT_LT(solver.dps_surcharge_t_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_area_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_head_[0], 0.0); +} + +TEST_F(DPSUpdateTest, ResurchargeAfterDepressurization) { + // Surcharge → depressurize → resurcharge + ctx.links.volume[0] = vFull() + 50.0; + solver.updateDPSState(ctx, 1.0); + double p0_first = solver.dps_preissmann_[0]; + + ctx.links.volume[0] = vFull() * 0.5; + solver.updateDPSState(ctx, 1.0); + + // Resurcharge + ctx.links.volume[0] = vFull() + 30.0; + solver.updateDPSState(ctx, 1.0); + + // Should re-initialize with fresh P_0 + EXPECT_GE(solver.dps_surcharge_t_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_surcharge_t_[0], 0.0); // Clock resets + EXPECT_NEAR(solver.dps_preissmann_[0], p0_first, 1e-10); // Same pipe → same P_0 +} + +TEST_F(DPSUpdateTest, HeadNeverNegative) { + // Surcharge then reduce volume slightly (still above full) + ctx.links.volume[0] = vFull() + 100.0; + solver.updateDPSState(ctx, 1.0); + + // Reduce volume but keep above full → delta_ts is negative + ctx.links.volume[0] = vFull() + 10.0; + solver.updateDPSState(ctx, 1.0); + + // Head may decrease but should never go negative + EXPECT_GE(solver.dps_slot_head_[0], 0.0); +} + +TEST_F(DPSUpdateTest, SlotAreaNeverNegative) { + ctx.links.volume[0] = vFull() + 100.0; + solver.updateDPSState(ctx, 1.0); + + // Reduce to barely above full + ctx.links.volume[0] = vFull() + 0.001; + solver.updateDPSState(ctx, 1.0); + + EXPECT_GE(solver.dps_slot_area_[0], 0.0); +} + +// ============================================================================ +// 6. getCrownCutoff / getSlotWidth for DYNAMIC_SLOT +// ============================================================================ + +TEST(DPSSlotBehavior, CrownCutoffMatchesSlotMethod) { + DWSolver solver_dps; + solver_dps.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + DWSolver solver_slot; + solver_slot.surcharge_method = SurchargeMethod::SLOT; + + EXPECT_DOUBLE_EQ(solver_dps.getCrownCutoff(), solver_slot.getCrownCutoff()); + EXPECT_DOUBLE_EQ(solver_dps.getCrownCutoff(), SLOT_CROWN_CUTOFF); +} + +TEST(DPSSlotBehavior, SlotWidthUsesSjobergFormula) { + // For DYNAMIC_SLOT, at depth = y_full * 0.99 (above SLOT_CROWN_CUTOFF), + // the Sjoberg formula should give a positive width. + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + double y_full = 3.0; + double w_max = 3.0; + double y = y_full * 0.99; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_GT(w, 0.0); + + // Should match what SLOT method gives + DWSolver solver_slot; + solver_slot.surcharge_method = SurchargeMethod::SLOT; + double w_slot = solver_slot.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_DOUBLE_EQ(w, w_slot); +} + +TEST(DPSSlotBehavior, SlotWidthZeroBelowCrownCutoff) { + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + double y_full = 3.0; + double w_max = 3.0; + double y = y_full * 0.5; // Well below crown cutoff + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_DOUBLE_EQ(w, 0.0); +} + +TEST(DPSSlotBehavior, SlotWidthCapAt178) { + // For y/yFull > 1.78: slot width = 1% of max width + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + double y_full = 3.0; + double w_max = 3.0; + double y = y_full * 2.0; // > 1.78 * yFull + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_NEAR(w, 0.01 * w_max, 1e-10); +} + +// ============================================================================ +// 7. Open-shape bypass: open conduits never engage DPS +// ============================================================================ + +class DPSOpenShapeTest : public ::testing::Test { +protected: + DWSolver solver; + SimulationContext ctx; + XSectGroups groups; + std::vector xparams; + + void SetUp() override { + ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + // Change to open shape + ctx.links.xsect_shape[0] = XsectShape::TRAPEZOIDAL; + + xparams.resize(1); + double p[4] = {3.0, 5.0, 1.0, 1.0}; + xsect::setParams(xparams[0], static_cast(XsectShape::TRAPEZOIDAL), p, 1.0); + groups.build(xparams.data(), 1); + + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(2, 1, groups); + } +}; + +TEST_F(DPSOpenShapeTest, OpenShapeNeverSurcharged) { + // Put volume way above "full" + double af = ctx.links.xsect_a_full[0]; + double L = ctx.links.mod_length[0]; + ctx.links.volume[0] = af * L * 2.0; // Double full volume + + solver.updateDPSState(ctx, 1.0); + + EXPECT_LT(solver.dps_surcharge_t_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_area_[0], 0.0); +} + +TEST_F(DPSOpenShapeTest, SlotWidthZeroForOpenShape) { + DWSolver s; + s.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + double w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::TRAPEZOIDAL); + EXPECT_DOUBLE_EQ(w, 0.0); + + w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::RECT_OPEN); + EXPECT_DOUBLE_EQ(w, 0.0); + + w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::TRIANGULAR); + EXPECT_DOUBLE_EQ(w, 0.0); + + w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::PARABOLIC); + EXPECT_DOUBLE_EQ(w, 0.0); +} + +// ============================================================================ +// 8. Mass conservation: slot area × length ≈ excess volume +// ============================================================================ + +TEST(DPSMassConservation, SlotAreaTimesLengthEqualsExcess) { + auto ctx = buildMinimalContext(3.0, 500.0, 100.0, 99.5); + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(2, 1, groups); + + double af = ctx.links.xsect_a_full[0]; + double L = ctx.links.mod_length[0]; + double v_full = af * L; + + // Test for various excess volumes + double excesses[] = {1.0, 10.0, 50.0, 200.0, 1000.0}; + for (double excess : excesses) { + // Reset state + solver.dps_slot_area_[0] = 0.0; + solver.dps_slot_head_[0] = 0.0; + solver.dps_preissmann_[0] = 0.0; + solver.dps_surcharge_t_[0] = -1.0; + + ctx.links.volume[0] = v_full + excess; + solver.updateDPSState(ctx, 1.0); + + double Ts_times_L = solver.dps_slot_area_[0] * L; + EXPECT_NEAR(Ts_times_L, excess, 1e-6) + << "Failed for excess = " << excess; + } +} + +// ============================================================================ +// 9. Energy conservation: no spurious head when P decreases over time +// ============================================================================ +// The key innovation of the DPS (Eq. 19) is using incremental ΔTs instead of +// total Ts to compute head. This prevents energy-source artifacts when P decays +// and the effective slot width compresses prior slot volume. + +TEST(DPSEnergyConservation, DecreasingExcessReducesHead) { + // If excess volume decreases, head should also decrease (or stay zero) + auto ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.dps_decay_time = 10.0; + solver.init(2, 1, groups); + + double af = ctx.links.xsect_a_full[0]; + double L = ctx.links.mod_length[0]; + double v_full = af * L; + + // Step 1: large excess → large head + ctx.links.volume[0] = v_full + 200.0; + solver.updateDPSState(ctx, 1.0); + double h1 = solver.dps_slot_head_[0]; + EXPECT_GT(h1, 0.0); + + // Step 2: same excess but P has decayed (surcharge clock advanced) + // delta_Ts = 0 (volume hasn't changed), so delta_hs = 0 + // Head should NOT increase when nothing changes + solver.updateDPSState(ctx, 1.0); + double h2 = solver.dps_slot_head_[0]; + EXPECT_NEAR(h2, h1, 1e-10); // No change in head when delta_Ts = 0 + + // Step 3: reduce excess → delta_Ts is negative → head should go DOWN + ctx.links.volume[0] = v_full + 100.0; + solver.updateDPSState(ctx, 1.0); + double h3 = solver.dps_slot_head_[0]; + + // Head should decrease (or at worst stay same due to P²) + // The delta_hs = P² * (-delta) / (Af + Ts_old) → negative increment + // Total head = h2 + negative → h3 < h2 + EXPECT_LE(h3, h2); +} + +TEST(DPSEnergyConservation, SteadyVolumeNoHeadGrowth) { + // Hold excess volume constant for many timesteps. + // Head should not grow — verifies no energy-source artifact. + auto ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.dps_decay_time = 10.0; + solver.init(2, 1, groups); + + double v_full = ctx.links.xsect_a_full[0] * ctx.links.mod_length[0]; + ctx.links.volume[0] = v_full + 100.0; + + // First step establishes state + solver.updateDPSState(ctx, 1.0); + double h_initial = solver.dps_slot_head_[0]; + + // Many timesteps at constant volume + for (int i = 0; i < 100; ++i) { + solver.updateDPSState(ctx, 1.0); + } + + double h_final = solver.dps_slot_head_[0]; + + // Head should equal the head after step 1 (no growth when delta_Ts = 0) + EXPECT_NEAR(h_final, h_initial, 1e-10); +} + +// ============================================================================ +// 10. Celerity verification: P relates to wave speed +// ============================================================================ + +TEST(DPSCelerity, PreissmannNumberRelatesCelerity) { + // Eq. 8: P = c_T / c_p where c_p is the local pressure celerity + // At onset, P_0 = c_T / (β · c_g), so c_p_initial = β · c_g + // This means the initial effective celerity is β times the gravity-wave celerity. + + auto ctx = buildMinimalContext(4.0, 1000.0, 100.0, 99.0); + std::vector xp(1); + double p[4] = {4.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.dps_target_celerity = 200.0; + solver.dps_shock_param = 2.0; + solver.init(2, 1, groups); + + double P0 = solver.computeInitialPreissmannNumber(0, ctx); + + // Verify: c_T / P_0 should equal β · c_g + double af = ctx.links.xsect_a_full[0]; + double wm = ctx.links.xsect_w_max[0]; + double hd = af / wm; + double cg = std::sqrt(32.2 * hd); + double expected_cp = solver.dps_shock_param * cg; + double actual_cp = solver.dps_target_celerity / P0; + + EXPECT_NEAR(actual_cp, expected_cp, 1e-8); +} + +// ============================================================================ +// 11. Multi-barrel conduit handling +// ============================================================================ + +TEST(DPSMultiBarrel, VolumeCorrectlyDividedByBarrels) { + auto ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + ctx.links.barrels[0] = 3; + + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(2, 1, groups); + + double af = ctx.links.xsect_a_full[0]; + double L = ctx.links.mod_length[0]; + double v_full_per_barrel = af * L; + double excess_per_barrel = 50.0; + + // Total volume = 3 barrels * (v_full + excess) per barrel + ctx.links.volume[0] = 3.0 * (v_full_per_barrel + excess_per_barrel); + solver.updateDPSState(ctx, 1.0); + + // Slot area should be based on per-barrel excess + double expected_ts = excess_per_barrel / L; + EXPECT_NEAR(solver.dps_slot_area_[0], expected_ts, 1e-10); +} + +// ============================================================================ +// 12. DPS state initialization after init() +// ============================================================================ + +TEST(DPSInit, StateVectorsInitializedCorrectly) { + std::vector xp(3); + double p[4] = {2.0, 0, 0, 0}; + for (int i = 0; i < 3; ++i) + xsect::setParams(xp[i], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 3); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(4, 3, groups); + + for (int i = 0; i < 3; ++i) { + EXPECT_DOUBLE_EQ(solver.dps_slot_area_[i], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_head_[i], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_preissmann_[i], 0.0); + EXPECT_LT(solver.dps_surcharge_t_[i], 0.0); + } +} + +// ============================================================================ +// 13. Different pipe sizes: verify P_0 scales correctly +// ============================================================================ + +TEST(DPSScaling, LargerPipeGivesSmallerP0) { + // Larger pipe → larger c_g → smaller P_0 + auto ctx_small = buildMinimalContext(2.0, 1000.0, 100.0, 99.0); + auto ctx_large = buildMinimalContext(6.0, 1000.0, 100.0, 99.0); + + std::vector xp_s(1), xp_l(1); + double ps[4] = {2.0, 0, 0, 0}; + double pl[4] = {6.0, 0, 0, 0}; + xsect::setParams(xp_s[0], static_cast(XsectShape::CIRCULAR), ps, 1.0); + xsect::setParams(xp_l[0], static_cast(XsectShape::CIRCULAR), pl, 1.0); + + XSectGroups gs, gl; + gs.build(xp_s.data(), 1); + gl.build(xp_l.data(), 1); + + DWSolver solver_s, solver_l; + solver_s.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver_l.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver_s.init(2, 1, gs); + solver_l.init(2, 1, gl); + + double p0_small = solver_s.computeInitialPreissmannNumber(0, ctx_small); + double p0_large = solver_l.computeInitialPreissmannNumber(0, ctx_large); + + // Larger pipe has larger c_g → smaller P_0 + EXPECT_GT(p0_small, p0_large); +} + +// ============================================================================ +// 14. Verify computePreissmannNumber at half-life time +// ============================================================================ + +TEST(DPSDecayPrecision, HalfLifeCheck) { + // For a first-order decay, at t = r * ln(2), the quantity (P-1) should + // be half of (P_0 - 1). + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.dps_decay_time = 10.0; + solver.init(2, 1, groups); + + double p0 = 9.0; // P_0 - 1 = 8 + double half_life = solver.dps_decay_time * std::log(2.0); + + solver.dps_preissmann_[0] = p0; + solver.dps_surcharge_t_[0] = half_life; + + double P = solver.computePreissmannNumber(0, 0.0); + + // At half-life: P - 1 = (P_0 - 1) * 0.5 = 4, so P = 5 + double expected = 1.0 + (p0 - 1.0) * 0.5; + EXPECT_NEAR(P, expected, 1e-10); +} + +// ============================================================================ +// 15. Slot width as function of depth — smooth Sjoberg transition +// (User request #1) +// ============================================================================ + +// Shared fixture for slot geometry tests on a circular pipe. +class SlotGeometryTest : public ::testing::Test { +protected: + DWSolver solver; + XSectParams xs; + double y_full, a_full, w_max, r_full; + + void SetUp() override { + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + double p[4] = {3.0, 0, 0, 0}; // 3 ft diameter circular + xsect::setParams(xs, static_cast(XsectShape::CIRCULAR), p, 1.0); + + y_full = xs.y_full; // 3.0 + a_full = xs.a_full; + w_max = xs.w_max; // 3.0 + r_full = xs.r_full; + } + + /// Compute combined area at depth y: physical xsect below crown, slot above. + double totalArea(double y) const { + if (y >= y_full) { + double w_slot = solver.getSlotWidth(y, y_full, w_max, + XsectShape::CIRCULAR); + return solver.getSlotArea(y, y_full, a_full, w_slot); + } + return xsect::getAofY(xs, y); + } + + /// Compute combined top width: physical xsect below crown, slot above. + double totalWidth(double y) const { + double w_slot = solver.getSlotWidth(y, y_full, w_max, + XsectShape::CIRCULAR); + if (w_slot > 0.0) return w_slot; + return xsect::getWofY(xs, y); + } +}; + +TEST_F(SlotGeometryTest, SjobergSweepMonotonicallyDecreasing) { + // Slot width from Sjoberg formula should decrease monotonically as depth + // increases above the crown (the slot narrows for deeper surcharge). + double prev_w = 1e10; + int n_steps = 50; + double crown = y_full * SLOT_CROWN_CUTOFF; + double y_max = y_full * 1.78; + double dy = (y_max - crown) / n_steps; + + for (int i = 0; i <= n_steps; ++i) { + double y = crown + i * dy; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_GT(w, 0.0) << "Slot width must be positive at y/yf = " << y / y_full; + EXPECT_LE(w, prev_w) << "Slot width must decrease with depth at y/yf = " + << y / y_full; + prev_w = w; + } +} + +TEST_F(SlotGeometryTest, SjobergWidthMatchesFormulaExactly) { + // Verify the formula: w = wMax * 0.5423 * exp(-yNorm^2.4) at several points. + double depths[] = {0.99, 1.0, 1.05, 1.2, 1.5, 1.75}; + for (double yNorm : depths) { + double y = y_full * yNorm; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double expected = w_max * 0.5423 * std::exp(-std::pow(yNorm, 2.4)); + EXPECT_NEAR(w, expected, 1e-12) + << "Sjoberg formula mismatch at y/yf = " << yNorm; + } +} + +TEST_F(SlotGeometryTest, SlotWidthTransitionRegionSmooth) { + // Check that max step-to-step change in slot width is bounded (no jumps). + // Use a fine sweep from 0.98 to 1.02 across the crown cutoff. + int n = 200; + double y_lo = y_full * 0.98; + double y_hi = y_full * 1.02; + double dy = (y_hi - y_lo) / n; + + double max_delta_w = 0.0; + double prev_w = solver.getSlotWidth(y_lo, y_full, w_max, XsectShape::CIRCULAR); + + for (int i = 1; i <= n; ++i) { + double y = y_lo + i * dy; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double delta = std::fabs(w - prev_w); + if (delta > max_delta_w) max_delta_w = delta; + prev_w = w; + } + + // The Sjoberg formula at the cutoff gives: + // w(0.985257) = 3 * 0.5423 * exp(-0.985257^2.4) ≈ 0.606 + // w(0.98) = 0 (below cutoff) + // So there IS a jump at the cutoff point itself of ~0.606. + // But within the active slot region (above cutoff), changes should be small. + // Verify that the jump is at most wMax * 0.5423 * exp(-cutoff^2.4). + double w_at_cutoff = w_max * 0.5423 * + std::exp(-std::pow(SLOT_CROWN_CUTOFF, 2.4)); + EXPECT_LE(max_delta_w, w_at_cutoff + 0.01) + << "Slot width jump is bounded by value at cutoff"; +} + +// ============================================================================ +// 16. Cross-sectional area, hyd. radius with slot active vs inactive +// (User request #2) +// ============================================================================ + +TEST_F(SlotGeometryTest, AreaBelowCrownUsesPhysicalXsect) { + // At 50% depth, area should come from the physical circular cross-section. + double y = y_full * 0.5; + double A_phys = xsect::getAofY(xs, y); + double w_slot = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_DOUBLE_EQ(w_slot, 0.0); // Slot not active below crown + EXPECT_GT(A_phys, 0.0); +} + +TEST_F(SlotGeometryTest, AreaAboveCrownIncludesSlotContribution) { + // Above crown: A = A_full + (y - y_full) * w_slot + double y = y_full * 1.1; + double w_slot = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_GT(w_slot, 0.0); + + double A_slot = solver.getSlotArea(y, y_full, a_full, w_slot); + double A_expected = a_full + (y - y_full) * w_slot; + EXPECT_NEAR(A_slot, A_expected, 1e-12); + // Must exceed A_full + EXPECT_GT(A_slot, a_full); +} + +TEST_F(SlotGeometryTest, AreaAtFullIsAfull) { + double y = y_full; + double w_slot = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A_slot = solver.getSlotArea(y, y_full, a_full, w_slot); + + // At exactly y_full, (y - y_full) = 0, so A = A_full regardless of slot + EXPECT_NEAR(A_slot, a_full, 1e-12); +} + +TEST_F(SlotGeometryTest, AreaMonotonicallyIncreasingAboveCrown) { + double prev_A = a_full; + int n = 50; + double dy = y_full * 0.02; // 2% steps from 1.0 to 2.0 + + for (int i = 1; i <= n; ++i) { + double y = y_full + i * dy; + double A = totalArea(y); + EXPECT_GT(A, prev_A) + << "Area must increase with depth at y/yf = " << y / y_full; + prev_A = A; + } +} + +TEST_F(SlotGeometryTest, HydRadAboveCrownEqualsRfull) { + // Preissmann slot convention: hydraulic radius stays at R_full + // for depths above the crown. + double depths[] = {1.0, 1.1, 1.5, 2.0, 5.0}; + for (double yNorm : depths) { + double y = y_full * yNorm; + double R = solver.getSlotHydRad(y, y_full, r_full); + EXPECT_DOUBLE_EQ(R, r_full) + << "Hyd. radius should be R_full above crown at y/yf = " << yNorm; + } +} + +TEST_F(SlotGeometryTest, HydRadBelowCrownFromXsect) { + // Below crown, the solver defers to the batch xsect lookup. + // getSlotHydRad returns r_full even below, because the caller is expected + // to use batch values. But the physical value should differ. + double y = y_full * 0.5; + double R_phys = xsect::getRofY(xs, y); + EXPECT_GT(R_phys, 0.0); + EXPECT_NE(R_phys, r_full); // Physical R at half-depth ≠ R_full +} + +// ============================================================================ +// 17. Top width returns slot width (not zero) above crown — Sjoberg +// (User request #3) +// ============================================================================ + +TEST_F(SlotGeometryTest, TopWidthPositiveAboveCrown) { + // Sweep from crown cutoff to 1.78*y_full; slot width should always be > 0. + int n = 100; + double y_lo = y_full * SLOT_CROWN_CUTOFF; + double y_hi = y_full * 1.78; + double dy = (y_hi - y_lo) / n; + + for (int i = 0; i <= n; ++i) { + double y = y_lo + i * dy; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_GT(w, 0.0) + << "Top width must be positive (slot active) at y/yf = " + << y / y_full; + } +} + +TEST_F(SlotGeometryTest, TopWidthAboveCrownLessThanPhysicalMaxWidth) { + // The slot width should always be much less than the physical w_max. + // At crown cutoff, Sjoberg gives ~0.61 * w_max. At deeper depths it's even less. + double y = y_full * 1.0; // At crown + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_LT(w, w_max) + << "Slot width must be narrower than physical max width"; +} + +TEST_F(SlotGeometryTest, TopWidthBeyond178CapAt1Percent) { + // Beyond 1.78 * y_full, slot width caps at 1% of w_max + double depths[] = {1.79, 2.0, 3.0, 10.0, 100.0}; + double expected = 0.01 * w_max; + for (double yNorm : depths) { + double y = y_full * yNorm; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_NEAR(w, expected, 1e-12) + << "Beyond 1.78: slot width must be 1% of wMax at y/yf = " << yNorm; + } +} + +// ============================================================================ +// 18. Edge cases: exact crown, slightly above/below, very large +// (User request #4) +// ============================================================================ + +TEST_F(SlotGeometryTest, EdgeDepthExactlyAtCrownCutoff) { + // At exactly the crown cutoff, the Sjoberg formula should activate. + double y = y_full * SLOT_CROWN_CUTOFF; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + // yNorm == SLOT_CROWN_CUTOFF is NOT < SLOT_CROWN_CUTOFF, so slot is active + double expected = w_max * 0.5423 * + std::exp(-std::pow(SLOT_CROWN_CUTOFF, 2.4)); + EXPECT_NEAR(w, expected, 1e-12); +} + +TEST_F(SlotGeometryTest, EdgeDepthJustBelowCutoff) { + // One ULP below cutoff — slot should be inactive (return 0). + double y = y_full * std::nextafter(SLOT_CROWN_CUTOFF, 0.0); + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_DOUBLE_EQ(w, 0.0); +} + +TEST_F(SlotGeometryTest, EdgeDepthJustAboveCutoff) { + // One ULP above cutoff — slot should be active. + double y = y_full * std::nextafter(SLOT_CROWN_CUTOFF, 2.0); + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_GT(w, 0.0); +} + +TEST_F(SlotGeometryTest, EdgeDepthExactlyAtFull) { + double y = y_full; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A = solver.getSlotArea(y, y_full, a_full, w); + + // y_full / y_full = 1.0 > SLOT_CROWN_CUTOFF, so slot is active + EXPECT_GT(w, 0.0); + // But A = A_full + 0 * w = A_full (no extra volume at exact crown) + EXPECT_NEAR(A, a_full, 1e-12); +} + +TEST_F(SlotGeometryTest, EdgeDepthAtSlotCapBoundary) { + // At exactly 1.78 * y_full: should still use Sjoberg, not the cap. + double y = y_full * 1.78; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double w_sjoberg = w_max * 0.5423 * std::exp(-std::pow(1.78, 2.4)); + EXPECT_NEAR(w, w_sjoberg, 1e-12); + + // Just above 1.78: should use cap + double y2 = y_full * std::nextafter(1.78, 2.0); + double w2 = solver.getSlotWidth(y2, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_NEAR(w2, 0.01 * w_max, 1e-12); +} + +TEST_F(SlotGeometryTest, EdgeVeryLargeDepth) { + // At extreme depth (100x pipe diameter), slot still returns the cap value. + double y = y_full * 100.0; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_NEAR(w, 0.01 * w_max, 1e-12); + + // Area should be very large + double A = solver.getSlotArea(y, y_full, a_full, w); + EXPECT_GT(A, a_full * 10.0); +} + +TEST_F(SlotGeometryTest, EdgeZeroDepth) { + double w = solver.getSlotWidth(0.0, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_DOUBLE_EQ(w, 0.0); +} + +TEST_F(SlotGeometryTest, EdgeYfullZero) { + // y_full = 0 should return 0 without division by zero. + double w = solver.getSlotWidth(1.0, 0.0, 3.0, XsectShape::CIRCULAR); + EXPECT_DOUBLE_EQ(w, 0.0); +} + +// ============================================================================ +// 19. Slot parameter sensitivity → wave celerity impact +// (User request #5) +// ============================================================================ + +TEST_F(SlotGeometryTest, WiderSlotGivesSlowerCelerity) { + // Wave celerity in a Preissmann slot: c = sqrt(g * A / W) + // where A = A_full + (y-yf)*W_slot and W = W_slot. + // At y = y_full (no extra depth yet): c = sqrt(g * A_full / W_slot) + // Wider slot → smaller c (more compressible). + + double y = y_full * 1.01; // Just above crown + + // Default DYNAMIC_SLOT Sjoberg width + DWSolver solver_ds; + solver_ds.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + double w_ds = solver_ds.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A_ds = solver_ds.getSlotArea(y, y_full, a_full, w_ds); + double c_ds = std::sqrt(32.2 * A_ds / w_ds); + + // EXTRAN uses y_full * 0.001 as fixed slot width (narrower → faster) + DWSolver solver_ex; + solver_ex.surcharge_method = SurchargeMethod::EXTRAN; + double w_ex = solver_ex.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A_ex = solver_ex.getSlotArea(y, y_full, a_full, w_ex); + double c_ex = (w_ex > 0.0) ? std::sqrt(32.2 * A_ex / w_ex) : 0.0; + + // EXTRAN has much narrower slot → much faster wave celerity + if (w_ex > 0.0) { + EXPECT_GT(c_ex, c_ds) + << "Narrower EXTRAN slot should give faster celerity than Sjoberg"; + } +} + +TEST_F(SlotGeometryTest, CelerityDecreasesWithDepthAboveCrown) { + // As depth increases above crown, the Sjoberg formula narrows the slot. + // Narrower slot → faster celerity (slot acts like column of water). + // But area also increases with depth, so c = sqrt(g*A/W). + // Net effect: since W shrinks faster than A grows, c should INCREASE + // with depth in the Sjoberg region. + + double prev_c = 0.0; + int n = 20; + double y_lo = y_full * 1.01; + double y_hi = y_full * 1.70; + double dy = (y_hi - y_lo) / n; + + for (int i = 0; i <= n; ++i) { + double y = y_lo + i * dy; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A = solver.getSlotArea(y, y_full, a_full, w); + if (w > 0.0) { + double c = std::sqrt(32.2 * A / w); + EXPECT_GT(c, prev_c) + << "Celerity should increase as slot narrows at y/yf = " + << y / y_full; + prev_c = c; + } + } +} + +TEST_F(SlotGeometryTest, CelerityAtCrownCutoffBoundsGravityWave) { + // At the crown cutoff, the slot opens with width ≈ 0.61 * w_max. + // The gravity-wave celerity for the open pipe is c_g = sqrt(g * A_full / w_max). + // The slot celerity at cutoff should be in the same ballpark but slower + // (wider effective width → slower). + + double w_cutoff = solver.getSlotWidth(y_full * SLOT_CROWN_CUTOFF, + y_full, w_max, XsectShape::CIRCULAR); + double A_cutoff = a_full; // approximately A_full at crown + double c_slot = std::sqrt(32.2 * A_cutoff / w_cutoff); + + double c_gravity = std::sqrt(32.2 * a_full / w_max); + + // Slot celerity should be faster than gravity wave (slot is narrower than + // pipe width, so sqrt(g*A/W_slot) > sqrt(g*A/W_max)) + EXPECT_GT(c_slot, c_gravity); +} + +// ============================================================================ +// 20. Numerical continuity: A(h) and dA/dh continuous across transition +// (User request #6) +// ============================================================================ + +TEST_F(SlotGeometryTest, AreaContinuousAtCrown) { + // At y = y_full, physical area should equal A_full. + // The slot area formula at y = y_full gives: A_full + 0 * w_slot = A_full. + // So there should be no jump in area at the crown. + + double A_phys_at_crown = xsect::getAofY(xs, y_full); + double w_at_crown = solver.getSlotWidth(y_full, y_full, w_max, + XsectShape::CIRCULAR); + double A_slot_at_crown = solver.getSlotArea(y_full, y_full, a_full, + w_at_crown); + + EXPECT_NEAR(A_phys_at_crown, a_full, 1e-6) + << "Physical area at crown should equal A_full"; + EXPECT_NEAR(A_slot_at_crown, a_full, 1e-12) + << "Slot area at crown should equal A_full"; + EXPECT_NEAR(A_phys_at_crown, A_slot_at_crown, 1e-6) + << "No area jump at the crown transition"; +} + +TEST_F(SlotGeometryTest, dAdh_ContinuousAcrossCrown) { + // Compute dA/dy using finite differences on both sides of y_full. + // Below crown: dA/dy = physical cross-section width W(y) + // Above crown: dA/dy = slot_width (from getSlotWidth formula) + // + // At y = y_full for a circular pipe, physical W → 0 (crown is a point). + // The Sjoberg slot opens at the cutoff (0.985*yf) with w ≈ 0.61*wMax. + // So there IS an inherent mathematical jump in dA/dy at the crown cutoff. + // However, the cutoff is intentionally set below the physical crown + // so that the slot activates BEFORE the physical width hits zero, + // creating an overlap region where both contribute. The Sjoberg formula + // is designed so the combined width transitions smoothly. + // + // Test: verify that in the region just above the cutoff, the slot-augmented + // dA/dy doesn't have large discontinuities relative to the step size. + + double eps = 1e-6; + int n = 100; + double y_lo = y_full * 0.90; + double y_hi = y_full * 1.10; + double dy = (y_hi - y_lo) / n; + + std::vector areas(n + 1); + for (int i = 0; i <= n; ++i) { + areas[i] = totalArea(y_lo + i * dy); + } + + // Compute first derivative via central differences (interior points) + std::vector dAdh(n - 1); + for (int i = 1; i < n; ++i) { + dAdh[i - 1] = (areas[i + 1] - areas[i - 1]) / (2.0 * dy); + } + + // Verify dA/dh is always non-negative (area is monotonically increasing) + for (int i = 0; i < static_cast(dAdh.size()); ++i) { + double y = y_lo + (i + 1) * dy; + EXPECT_GE(dAdh[i], -eps) + << "dA/dh must be non-negative at y/yf = " << y / y_full; + } + + // Verify dA/dh doesn't have large jumps (second derivative bounded) + double max_d2Adh2 = 0.0; + for (int i = 1; i < static_cast(dAdh.size()); ++i) { + double d2 = std::fabs(dAdh[i] - dAdh[i - 1]) / dy; + if (d2 > max_d2Adh2) max_d2Adh2 = d2; + } + + // The second derivative should be bounded — not infinite. + // For a 3 ft pipe, reasonable upper bound is ~100 (dimensionless, ft²/ft²). + EXPECT_LT(max_d2Adh2, 1000.0) + << "d²A/dh² should be bounded across the crown transition"; +} + +TEST_F(SlotGeometryTest, AreaContinuousAtCutoffFiniteDifference) { + // Fine finite-difference check right at the crown cutoff boundary. + // A(y-eps) should be close to A(y+eps) with no large jump. + + double y_cutoff = y_full * SLOT_CROWN_CUTOFF; + double eps = y_full * 1e-8; + + double A_below = totalArea(y_cutoff - eps); + double A_at = totalArea(y_cutoff); + double A_above = totalArea(y_cutoff + eps); + + // The area itself should be continuous (values should be close) + EXPECT_NEAR(A_below, A_at, 0.01) + << "Area should be continuous at the crown cutoff (below vs at)"; + EXPECT_NEAR(A_at, A_above, 0.01) + << "Area should be continuous at the crown cutoff (at vs above)"; +} + +TEST_F(SlotGeometryTest, WidthTransitionAtCutoff) { + // The Sjoberg formula is designed so that the slot width at the cutoff + // approximates the physical pipe width, creating a smooth handoff. + // For a circular pipe at y/yf = 0.985, the physical width is very narrow + // (approaching 0 at the crown). The Sjoberg slot width there is ~0.61 * D. + // + // This test documents the actual magnitudes — the slot is intentionally + // wider than the vanishing physical width to avoid infinite celerity. + + double y_cutoff = y_full * SLOT_CROWN_CUTOFF; + double w_phys = xsect::getWofY(xs, y_cutoff); + double w_slot = solver.getSlotWidth(y_cutoff, y_full, w_max, + XsectShape::CIRCULAR); + + // Both should be positive at the cutoff + EXPECT_GT(w_phys, 0.0); + EXPECT_GT(w_slot, 0.0); + + // The slot width should be larger than the vanishing physical width + // (this is the whole point — prevent near-zero width → infinite celerity) + EXPECT_GT(w_slot, w_phys) + << "Slot width should exceed physical width near the crown to " + "prevent infinite celerity"; +} + +TEST_F(SlotGeometryTest, AreaAndDerivativeSweepNoNaN) { + // Sweep across the full range and verify no NaN or Inf values. + int n = 500; + double dy = y_full * 3.0 / n; + + for (int i = 0; i <= n; ++i) { + double y = i * dy; + if (y <= 0.0) continue; + + double A = totalArea(y); + double W = totalWidth(y); + + EXPECT_FALSE(std::isnan(A)) << "Area is NaN at y = " << y; + EXPECT_FALSE(std::isinf(A)) << "Area is Inf at y = " << y; + EXPECT_FALSE(std::isnan(W)) << "Width is NaN at y = " << y; + EXPECT_FALSE(std::isinf(W)) << "Width is Inf at y = " << y; + EXPECT_GE(A, 0.0) << "Area must be non-negative at y = " << y; + EXPECT_GE(W, 0.0) << "Width must be non-negative at y = " << y; + } +} From 8f7509817b1cfe1b792850bdb24c71dafb38f311 Mon Sep 17 00:00:00 2001 From: Corinne Wiesner-Friedman Date: Fri, 17 Apr 2026 15:27:29 -0400 Subject: [PATCH 2/5] =?UTF-8?q?fix(issue-1):=20junction=20surface=20area?= =?UTF-8?q?=20=E2=80=94=20remove=20MIN=5FSURFAREA=20floor=20from=20Node,?= =?UTF-8?q?=20wire=20option=20into=20DWSolver=20with=20unit=20conversion,?= =?UTF-8?q?=20add=20.inp-driven=20regression=20tests?= MIME-Version: 1.0 Content-Type: text/plain; charset=UTF-8 Content-Transfer-Encoding: 8bit Phase 1: Non-storage getSurfArea() returns 0.0 (physical area only) Phase 2: Storage getSurfArea() purely geometric (no MIN_SURFAREA clamp) Wire MIN_SURFAREA/HEAD_TOL options into DWSolver with UCF conversion Phase 3: Add minimal_conduit.inp fixture and DWNodeContinuity tests (DepthRisesWithForcedLateralInflow, MultipleStepsAccumulateDepth) All 61 routing + 21 site-drainage tests pass. --- ..._BACKLOG_VERIFICATION_AND_INTROSPECTION.md | 869 ++++++++++++++++++ docs/epaswmm.code-workspace | 8 + docs/thread_safety_verification.md | 151 +++ include/openswmm/engine/openswmm_engine.h | 1 + .../engine/openswmm_operator_snapshot.h | 245 +++++ src/engine/core/OperatorSnapshotState.hpp | 192 ++++ src/engine/core/SWMMEngine.cpp | 37 +- src/engine/core/SWMMEngine.hpp | 9 + src/engine/core/openswmm_engine_impl.cpp | 62 ++ src/engine/hydraulics/DynamicWave.cpp | 143 ++- src/engine/hydraulics/DynamicWave.hpp | 39 + src/engine/hydraulics/Node.cpp | 12 +- src/engine/hydraulics/Node.hpp | 6 +- src/engine/hydraulics/Routing.cpp | 11 +- tests/benchmarks/CMakeLists.txt | 1 + tests/benchmarks/bench_operator_snapshot.cpp | 163 ++++ tests/unit/engine/CMakeLists.txt | 2 + tests/unit/engine/data/minimal_conduit.inp | 35 + tests/unit/engine/data/minimal_conduit.out | Bin 0 -> 326 bytes tests/unit/engine/data/minimal_conduit.rpt | 34 + .../unit/engine/data/site_drainage_model.out | Bin 327680 -> 839 bytes .../unit/engine/data/site_drainage_model.rpt | 98 +- tests/unit/engine/test_concurrent_engines.cpp | 229 +++++ tests/unit/engine/test_operator_snapshot.cpp | 312 +++++++ tests/unit/engine/test_routing.cpp | 279 +++++- 25 files changed, 2825 insertions(+), 113 deletions(-) create mode 100644 docs/ISSUE_BACKLOG_VERIFICATION_AND_INTROSPECTION.md create mode 100644 docs/epaswmm.code-workspace create mode 100644 docs/thread_safety_verification.md create mode 100644 include/openswmm/engine/openswmm_operator_snapshot.h create mode 100644 src/engine/core/OperatorSnapshotState.hpp create mode 100644 tests/benchmarks/bench_operator_snapshot.cpp create mode 100644 tests/unit/engine/data/minimal_conduit.inp create mode 100644 tests/unit/engine/data/minimal_conduit.out create mode 100644 tests/unit/engine/data/minimal_conduit.rpt create mode 100644 tests/unit/engine/test_concurrent_engines.cpp create mode 100644 tests/unit/engine/test_operator_snapshot.cpp diff --git a/docs/ISSUE_BACKLOG_VERIFICATION_AND_INTROSPECTION.md b/docs/ISSUE_BACKLOG_VERIFICATION_AND_INTROSPECTION.md new file mode 100644 index 000000000..6d5b48e50 --- /dev/null +++ b/docs/ISSUE_BACKLOG_VERIFICATION_AND_INTROSPECTION.md @@ -0,0 +1,869 @@ +# Solver Verification and Introspection Backlog + +## Purpose + +This document turns the current verification and observability ideas into issue-ready work items for the `swmm6_rel` branch. It is intentionally organized as a backlog that can be split into repository issues, grouped into milestones, or used as the basis for an epic-level roadmap. + +The focus areas are: + +1. Legacy solver verification against analytical and canonical benchmarks. +2. A layered solver verification suite. +3. Better in-memory introspection for calibration, debugging, and scientific validation. +4. Structured time-series export as a plugin-oriented extension area. +5. A canonical benchmark library of small deterministic cases. +6. Physics review of behavior that changed relative to `main`. +7. Advanced modeling and research extensions that should be staged behind verification. + +## How To Use This Document + +Each section below is written so it can be copied into a GitHub issue with minimal editing. For each proposed issue, consider adding labels such as: + +- `verification` +- `legacy-engine` +- `tests` +- `benchmarks` +- `introspection` +- `api` +- `plugin` +- `export` +- `documentation` +- `good-first-epic` + +## Branch Context + +This backlog is written against the `swmm6_rel` repository layout, where the preserved EPA solver lives under `src/legacy/engine/` and newer test and plugin work is separated elsewhere. + +Relevant solver files: + +- `src/legacy/engine/infil.c` +- `src/legacy/engine/xsect.c` +- `src/legacy/engine/forcmain.c` +- `src/legacy/engine/node.c` +- `src/legacy/engine/exfil.c` +- `src/legacy/engine/culvert.c` +- `src/legacy/engine/massbal.c` + +Relevant verification areas: + +- `tests/unit/legacy/` +- `tests/regression/` +- `tests/benchmarks/` + +## Epic 0: Physics Review Since `main` + +### Goal + +Review and verify the small set of legacy-physics behaviors that appear to have changed materially relative to `main`, so the branch can move forward with a clear understanding of what is genuinely new physics versus what is only infrastructure, packaging, or documentation work. + +### Why This Matters + +The `swmm6_rel` branch includes a broad repository refactor, but the highest-priority solver review should focus on the few places where physical behavior likely changed rather than re-reviewing the entire preserved engine indiscriminately. + +### Current High-Priority Review Targets + +1. Modified Horton cumulative infiltration limiting in `src/legacy/engine/infil.c`. +2. Elliptical pipe geometry corrections in `src/legacy/engine/xsect.c`. +3. Outfall depth handling with non-zero link offsets in `src/legacy/engine/node.c`. + +--- + +## Issue: Review and Verify Physics Changed Since `main` + +### Summary + +Create a focused review issue that identifies, documents, and verifies the solver behaviors that changed materially relative to `main`. + +### Target Files + +- `src/legacy/engine/infil.c` +- `src/legacy/engine/xsect.c` +- `src/legacy/engine/node.c` +- `tests/unit/legacy/` +- `tests/regression/` + +### Scope + +1. Confirm the intended physical meaning of the Modified Horton `Fmax` update. +2. Confirm the intended elliptical geometry corrections for custom-sized elliptical pipes. +3. Confirm the outfall-depth fix for non-zero link offsets under free and normal outfall conditions. +4. Document what changed, why it changed, and what tests prove the new behavior. + +### Acceptance Criteria + +1. A short review note documents each physics-relevant change relative to `main`. +2. Each changed behavior has at least one targeted verification test. +3. The resulting tests are linked from the appropriate issue or design note. + +--- + +## Epic 1: Analytical Verification of Core Legacy Formulations + +### Goal + +Build a scientifically defensible verification layer around the preserved SWMM solver core by testing isolated formulations against analytical results, published equations, or trusted benchmark tables. + +### Why This Matters + +The legacy engine contains real formulations, not only file handling and orchestration logic. Several modules can be verified directly against closed-form relationships or accepted reference values. This is the fastest path to increasing trust in the solver while the broader refactor continues. + +--- + +## Issue: Verify Horton and Green-Ampt State Evolution + +### Summary + +Add analytical and semi-analytical tests for infiltration state evolution in `src/legacy/engine/infil.c`, focusing first on Horton and Green-Ampt behavior. + +### Problem Statement + +The infiltration module contains time-dependent state variables and multiple model branches. At present, there is not enough automated evidence that these state transitions remain correct under refactoring, packaging, or platform-specific build changes. + +### Target Files + +- `src/legacy/engine/infil.c` +- `src/legacy/engine/infil.h` +- `tests/unit/legacy/` +- `tests/regression/` + +### Scope + +1. Horton infiltration recovery and decay. +2. Modified Horton behavior under wetting and drying cycles. +3. Green-Ampt unsaturated and saturated transitions. +4. Green-Ampt cumulative infiltration evolution under fixed rainfall intensity. +5. State serialization and restore consistency if hotstart-related state is involved. +6. Explicit review of the `Build 5.3.0` Modified Horton cumulative `Fmax` limiting behavior. + +### Candidate Test Cases + +1. Constant rainfall with known Horton decay curve. +2. Drying period followed by re-wetting for Horton recovery. +3. Green-Ampt infiltration with fixed suction head, conductivity, and initial moisture deficit. +4. Green-Ampt transition from unsaturated to saturated upper zone. +5. Edge cases with zero rainfall, zero runon, and small ponded depth. +6. Modified Horton case where cumulative infiltration approaches and reaches `Fmax`. +7. Modified Horton dry-period recovery case showing that the capped cumulative term recovers consistently. + +### Acceptance Criteria + +1. Unit tests compare computed infiltration rates and state variables against hand-derived or literature-based reference values. +2. Tests cover both rate outputs and internal state evolution over time. +3. Numerical tolerances are justified and documented. +4. Tests run in CI. +5. The 5.3.0 `Fmax` behavior is specifically covered so regressions are detectable. + +### Suggested Deliverables + +1. A test fixture for infiltration state stepping. +2. A small reference notebook or markdown note deriving expected results. +3. At least one regression fixture that confirms no drift relative to established reference values. + +--- + +## Issue: Verify Cross-Section Geometry Functions + +### Summary + +Add direct verification tests for area, wetted perimeter, hydraulic radius, section factor, and critical depth behavior in `src/legacy/engine/xsect.c`. + +### Problem Statement + +The geometry module is foundational for routing, normal flow, critical flow, and force main calculations. It is one of the most testable parts of the codebase because many relationships are either closed-form or can be checked against tabulated references. + +### Target Files + +- `src/legacy/engine/xsect.c` +- `src/legacy/engine/transect.c` +- `tests/unit/legacy/` + +### Scope + +1. Area as a function of depth. +2. Top width and wetted perimeter checks. +3. Hydraulic radius and section factor checks. +4. Inverse mappings such as area-to-depth and section-factor-to-area. +5. Critical depth calculations for representative shapes. +6. Explicit review of the `Build 5.3.0` custom-sized elliptical pipe correction. + +### Candidate Test Cases + +1. Circular full and partially full conduit cases. +2. Rectangular open and closed section cases. +3. Triangular and trapezoidal section sanity checks. +4. Force-main circular geometry consistency. +5. Monotonicity and invertibility checks over valid ranges. +6. Horizontal ellipse cases with known full-area and hydraulic-radius expectations. +7. Vertical ellipse cases with known full-area and hydraulic-radius expectations. +8. Custom-sized ellipse round-trip tests for depth, area, and section factor. + +### Acceptance Criteria + +1. Analytical shapes are verified against known formulas. +2. Numerical inverses satisfy round-trip tolerances. +3. Critical-depth routines are validated against independent calculations for representative sections. +4. Shape-specific edge cases are covered near dry, near-full, and max-section-factor conditions. +5. Elliptical geometry corrections are explicitly protected by regression tests. + +--- + +## Issue: Verify Force Main Friction Slope Calculations + +### Summary + +Add verification tests for Hazen-Williams and Darcy-Weisbach friction slope calculations in `src/legacy/engine/forcmain.c`. + +### Problem Statement + +Force main behavior is physically important and mathematically compact enough to validate directly. This makes it a good target for analytical unit tests and benchmark tables. + +### Target Files + +- `src/legacy/engine/forcmain.c` +- `src/legacy/engine/link.c` +- `tests/unit/legacy/` + +### Scope + +1. Hazen-Williams friction slope checks. +2. Darcy-Weisbach friction slope checks. +3. Reynolds number regime transitions. +4. Friction factor continuity across laminar, transitional, and turbulent ranges. + +### Candidate Test Cases + +1. Published textbook examples for Hazen-Williams pipes. +2. Darcy-Weisbach checks with fixed roughness, hydraulic radius, and velocity. +3. Laminar flow limit checks. +4. Transitional regime continuity checks. +5. Fully rough turbulent regime checks. + +### Acceptance Criteria + +1. Computed slopes match independently derived reference values within documented tolerances. +2. Transitional regime behavior does not show unexpected discontinuities. +3. Unit tests identify the expected flow regime for reference cases. + +--- + +## Issue: Verify Analytical Storage Shape Relationships + +### Summary + +Add verification tests for storage node volume-depth-area relationships and exfiltration-related shape handling in `src/legacy/engine/node.c` and `src/legacy/engine/exfil.c`. + +### Problem Statement + +Analytical storage shapes are highly suitable for deterministic testing. Errors here propagate into storage routing, exfiltration, continuity accounting, and stage boundary handling. + +### Target Files + +- `src/legacy/engine/node.c` +- `src/legacy/engine/exfil.c` +- `tests/unit/legacy/` + +### Scope + +1. Cylindrical, conical, paraboloid, and pyramidal storage volume-depth relationships. +2. Surface area and volume consistency. +3. Inverse depth-from-volume routines. +4. Exfiltration bottom and bank area handling for analytical shapes. +5. Separation of storage-geometry verification from outfall boundary-condition verification. + +### Candidate Test Cases + +1. Exact known volumes for simple depths. +2. Round-trip volume-to-depth-to-volume checks. +3. Exfiltration area partitioning checks for bottom versus banks. +4. Near-empty and near-full edge cases. + +### Acceptance Criteria + +1. Analytical shapes reproduce exact or near-exact geometric expectations. +2. Inverse geometry routines remain numerically stable. +3. Exfiltration area logic agrees with geometry assumptions for each shape. + +--- + +## Issue: Add FHWA Culvert Inlet-Control Benchmark Cases + +### Summary + +Add known FHWA inlet-control benchmark cases for `src/legacy/engine/culvert.c`. + +### Problem Statement + +The culvert implementation uses parameterized inlet-control equations derived from FHWA guidance. This is a natural place to anchor the code to published reference cases. + +### Target Files + +- `src/legacy/engine/culvert.c` +- `tests/unit/legacy/` +- `tests/regression/` + +### Scope + +1. Unsubmerged inlet-control cases. +2. Submerged inlet-control cases. +3. Transition-zone cases. +4. Sensitivity to culvert code, slope correction, and full depth. + +### Candidate Test Cases + +1. Circular concrete culvert benchmark values. +2. Corrugated metal culvert benchmark values. +3. Box culvert benchmark values. +4. Cases spanning unsubmerged, submerged, and transition flow. + +### Acceptance Criteria + +1. Selected benchmark cases match FHWA-derived reference flows within documented tolerance. +2. Tests cover at least three culvert families and multiple flow regimes. +3. The tests clearly distinguish geometry setup from expected result derivation. + +--- + +## Issue: Verify Outfall Boundary Conditions With Link Offsets + +### Summary + +Add targeted tests for outfall depth behavior with non-zero link offsets, especially for `FREE_OUTFALL` and `NORMAL_OUTFALL` cases in `src/legacy/engine/node.c`. + +### Problem Statement + +`Build 5.3.0` includes a fix for a hydraulically important boundary-condition bug where non-zero link offsets could force an incorrect zero depth at outfalls. This should be isolated and verified directly rather than left implicit inside larger routing scenarios. + +### Target Files + +- `src/legacy/engine/node.c` +- `src/legacy/engine/link.c` +- `src/legacy/engine/flowrout.c` +- `tests/unit/legacy/` +- `tests/regression/` + +### Scope + +1. Free outfall with non-zero upstream or downstream link offset. +2. Normal outfall with non-zero offset. +3. Zero-offset control case. +4. Sensitivity to conduit orientation and depth regime. + +### Candidate Test Cases + +1. Single conduit to outfall with offset and free outfall boundary. +2. Single conduit to outfall with offset and normal outfall boundary. +3. Paired zero-offset versus non-zero-offset comparison. +4. Regression fixture verifying depth is non-zero where hydraulically expected. + +### Acceptance Criteria + +1. Tests isolate the outfall boundary-condition logic rather than only observing full-model behavior. +2. Non-zero link offsets no longer collapse outfall depth incorrectly. +3. The expected behavior is documented in test comments or a short note. + +--- + +## Issue: Add Closed-Basin And No-Loss Continuity Checks + +### Summary + +Add continuity-focused tests for `src/legacy/engine/massbal.c` using closed-basin or no-loss scenarios. + +### Problem Statement + +Mass balance drift is one of the most important ways a hydraulic engine loses trust. The current system computes detailed continuity bookkeeping, but deterministic tests should explicitly verify closed-system cases. + +### Target Files + +- `src/legacy/engine/massbal.c` +- `src/legacy/engine/routing.c` +- `src/legacy/engine/runoff.c` +- `tests/regression/` + +### Scope + +1. No-loss runoff continuity. +2. No-loss flow routing continuity. +3. Closed-basin storage continuity. +4. Isolated pollutant continuity where practical. + +### Candidate Test Cases + +1. Closed storage system with no evaporation, seepage, or overflow. +2. Single conduit transfer with no losses. +3. Pure routing test with known inflow/outflow accumulation. +4. Small runoff-only case with exact bookkeeping expectations. + +### Acceptance Criteria + +1. Continuity error stays within a very small specified tolerance for deterministic no-loss cases. +2. Tests fail loudly when accounting terms change unexpectedly. +3. Reported mass-balance components are inspectable by the test harness. + +--- + +## Epic 2: Proper Solver Verification Suite + +### Goal + +Build a layered verification suite that separates formula-level checks, process-level benchmark cases, and whole-model regression scenarios. + +### Why This Matters + +This is the highest-value next step for the repository. It provides a durable framework for future solver work, API evolution, plugin work, packaging, and cross-platform support. + +### Layer 1: Analytical Unit Tests For Isolated Formulas + +These tests should cover compact, deterministic, directly verifiable computations. + +Examples: + +1. Infiltration state updates. +2. Cross-section geometry functions. +3. Force main friction slope and friction factor routines. +4. Storage geometry inverses. +5. Culvert inlet-control equations. +6. Outfall boundary-condition logic with offsets. + +### Layer 2: Canonical Benchmark Cases For Individual Process Models + +These tests should cover small process-level simulations where the expected behavior is known even if not fully closed form. + +Examples: + +1. Single conduit routing. +2. Reservoir draining. +3. Horton recovery under repeated events. +4. Green-Ampt wetting front progression. +5. Storage exfiltration under fixed stage. +6. Outfall stage/depth response with offset conduits. + +### Layer 3: Golden-File Regression Tests For Whole-Model Scenarios + +These tests should compare larger scenario outputs against blessed reference data. + +Examples: + +1. Example models already used by the project. +2. A stress-case network. +3. Cross-version legacy/new-engine comparison cases. +4. Binary output and selected in-memory summaries at reporting intervals. + +### Suggested Issue: Build The Verification Pyramid + +#### Summary + +Create a formal three-layer verification strategy and implement the first representative case in each layer. + +#### Acceptance Criteria + +1. A documented testing taxonomy exists in `docs/`. +2. CI distinguishes formula tests, process benchmarks, and regression scenarios. +3. At least one representative case exists in each verification layer. +4. Tolerances and reference-data provenance are documented. + +## Epic 3: Better In-Memory Introspection + +### Goal + +Expose internal solver state in a structured, stable, and testable form so developers can inspect what the engine is doing without relying only on report files or ad hoc debugging. + +### Why This Matters + +This will make calibration, debugging, scientific validation, and GUI/tooling integration much easier. It also creates a path toward better APIs and better test diagnostics. + +### Proposed Introspection Targets + +1. Link hydraulic terms. +2. Node convergence status. +3. Iteration counts. +4. Mass-balance components. +5. Courant-limited links and nodes. +6. Boundary-condition diagnostics where feasible. + +--- + +## Issue: Expose Link Hydraulic Terms + +### Summary + +Add getters or structured state access for intermediate link hydraulic terms used during routing. + +### Candidate Data + +1. Current and prior flow. +2. Area and hydraulic radius. +3. Froude number. +4. `dqdh` and related sensitivity terms. +5. Loss rates and normal-flow limitation flags. + +### Acceptance Criteria + +1. Link hydraulic diagnostics are accessible without parsing report text. +2. Access is available through a stable API or structured debug interface. +3. Values can be asserted in tests for selected benchmark cases. + +--- + +## Issue: Expose Node Convergence And Iteration Diagnostics + +### Summary + +Add visibility into dynamic-wave convergence state and routing iteration behavior. + +### Candidate Data + +1. Per-step iteration count. +2. Per-node convergence status. +3. Non-converging nodes and links. +4. Time-step reductions caused by convergence or Courant limits. +5. Boundary-condition decision diagnostics where practical. + +### Acceptance Criteria + +1. Routing diagnostics are queryable during or after simulation. +2. Tests can assert expected iteration behavior for small cases. +3. CI artifacts can optionally capture diagnostic summaries for failed runs. + +--- + +## Issue: Expose Mass-Balance Components Programmatically + +### Summary + +Add structured getters for the mass-balance components currently accumulated internally. + +### Candidate Data + +1. Runoff totals. +2. Groundwater totals. +3. Flow routing totals. +4. Water-quality routing totals. +5. Per-step continuity terms where feasible. + +### Acceptance Criteria + +1. Tests can inspect balance components directly. +2. Golden-file regression can compare summary continuity tables without text scraping. +3. Downstream tooling can query the same values through API calls. + +--- + +## Issue: Expose Courant-Limited Links And Nodes + +### Summary + +Add access to the links and nodes most frequently limiting the dynamic-wave time step. + +### Why It Matters + +This data is valuable for model diagnosis, performance analysis, and numerical stability investigations. + +### Acceptance Criteria + +1. The current time-step limiter can be identified programmatically. +2. Historical counters are accessible after a run. +3. Tests can assert expected behavior in selected dynamic-wave scenarios. + +--- + +## Issue: Design A Structured Runtime State Graph + +### Summary + +Evaluate an in-memory graph-oriented type system for runtime model state and diagnostics. + +### Motivation + +There is a reasonable idea here: represent nodes, links, subcatchments, and cross-component relationships as a structured graph of typed entities, with time-varying state attached. This would improve observability, analysis tooling, and possibly GUI/debug integrations. + +### Important Constraint + +This should start as an internal abstraction or optional adapter, not a hard dependency on an external graph database in the core solver path. + +### Recommended Direction + +1. Define a lightweight in-memory graph/state model first. +2. Keep it detached from core numerical loops unless profiling proves acceptable. +3. Provide optional adapters for graph database export or external analysis. +4. Treat graph Laplacians and connectivity operators as derived analytics built from the runtime graph, not as mandatory core solver primitives. + +### Candidate Scope + +1. Typed entities: node, link, subcatchment, gage, storage, pollutant. +2. Typed relationships: upstream/downstream, drains-to, routed-to, attached-to. +3. State snapshots at a reporting period or debug checkpoint. +4. Query helpers for path tracing, bottleneck detection, and mass-balance tracing. +5. Derived structural, flow-weighted, and time-varying Laplacian operators for connectivity analysis. +6. Optional tagging of temporarily disconnected or weakly connected components during routing events. + +### Acceptance Criteria + +1. A design note defines the graph object model and lifecycle. +2. A prototype can generate a runtime graph snapshot for a small model. +3. The prototype avoids introducing runtime overhead into the hot path unless explicitly enabled. + +## Epic 4: Structured Time-Series Export Plugins + +### Goal + +Support export of model results to structured time-series formats such as CSV, JSON, Parquet, NetCDF, or other analysis-friendly representations. + +### Why This Matters + +The repository already has strong binary I/O and evolving plugin concepts. Structured export would make the engine more useful for scientific workflows, Python analysis, data engineering, and downstream tools. + +### Candidate Formats + +1. CSV for broad compatibility. +2. JSON for lightweight API and web tooling. +3. Parquet for analytics pipelines. +4. NetCDF for scientific and geospatial time-series workflows. + +--- + +## Issue: Create A Time-Series Export Plugin Interface + +### Summary + +Define a plugin or adapter interface for exporting time-series results from in-memory state or output streams. + +### Scope + +1. Schema for subcatchment, node, link, and system time series. +2. Metadata for units, timestamps, element identifiers, and variable names. +3. Batch and streaming export modes. +4. Compatibility with both legacy output and new engine abstractions. + +### Acceptance Criteria + +1. A documented export interface exists. +2. One reference implementation is provided. +3. Metadata is explicit and machine-readable. + +--- + +## Issue: Implement First Structured Export Targets + +### Summary + +Implement initial exporters for CSV and JSON first, followed by Parquet and NetCDF if the abstraction holds. + +### Recommended Sequencing + +1. CSV exporter. +2. JSON exporter. +3. Parquet exporter. +4. NetCDF exporter. + +### Acceptance Criteria + +1. CSV and JSON export are covered by tests. +2. Exported output includes units and timestamps. +3. Documentation includes example output and loading examples. + +## Epic 5: Metadata And Scenario Extensions + +### Goal + +Support richer metadata attachment and scenario perturbation workflows without overloading the core deterministic solver with research-specific logic. + +### Why This Matters + +There is real value in carrying more spatial, temporal, and spatiotemporal context alongside SWMM objects, and in running non-stationary or stochastic perturbation experiments. The key is to do this through typed extensions and analysis layers rather than by overloading fragile legacy text fields. + +--- + +## Issue: Design Typed Metadata Attachments For Objects + +### Summary + +Design a typed metadata extension layer that allows objects to reference or carry richer spatial, temporal, or spatiotemporal data without forcing all such content into legacy text metadata fields. + +### Scope + +1. Metadata references for external datasets. +2. Small inline metadata payloads where appropriate. +3. Clear size and serialization constraints. +4. Compatibility with future Python and export tooling. + +### Candidate Use Cases + +1. Spatial geometry supplements. +2. Temporal forcing annotations. +3. Spatiotemporal calibration priors. +4. Provenance and uncertainty metadata. + +### Acceptance Criteria + +1. A design note defines the metadata model and lifecycle. +2. The design distinguishes lightweight inline metadata from external references. +3. The legacy text fields are not overloaded with large opaque payloads by default. + +--- + +## Issue: Add Non-Stationary Scenario Perturbation Framework + +### Summary + +Design a scenario-layer mechanism for applying stochastic or non-stationary perturbations, such as random walks or structured drift, to forcing data or selected model parameters. + +### Scope + +1. Random-walk perturbations for time series. +2. Non-stationary drift models. +3. Reproducible seed handling. +4. Separation between deterministic solver core and stochastic wrappers. + +### Acceptance Criteria + +1. The deterministic core solver remains unchanged when perturbation mode is disabled. +2. Perturbation workflows are reproducible. +3. A small example demonstrates non-stationary forcing perturbation. + +## Epic 6: Advanced Modeling And Research Extensions + +### Goal + +Capture promising research directions in a way that is actionable but clearly staged behind verification, diagnostics, and baseline API improvements. + +### Why This Matters + +Ideas such as antecedent moisture extensions, graph-Laplacian connectivity operators, and uncertainty quantification can add significant value, but they should be developed on top of a trusted solver and a robust introspection layer. + +--- + +## Issue: Evaluate Antecedent Moisture Model Extensions + +### Summary + +Assess and prototype an antecedent moisture formulation that can augment existing infiltration and soil-moisture handling without destabilizing legacy behavior. + +### Candidate Directions + +1. Event-conditioned initial moisture states. +2. Antecedent wetness indices tied to prior rainfall. +3. Coupling to infiltration and groundwater state variables. + +### Acceptance Criteria + +1. A design note explains how the antecedent moisture state differs from current infiltration and groundwater states. +2. A prototype can be run on a small benchmark case. +3. The prototype includes a comparison against current baseline behavior. + +--- + +## Issue: Evaluate Graph-Laplacian Connectivity Analytics + +### Summary + +Prototype graph-based operators, including structural and time-varying Laplacians, derived from the SWMM network and time-varying hydraulic state. + +### Candidate Directions + +1. Static topological Laplacian from network structure. +2. Flow-weighted Laplacian from active hydraulic state. +3. Time-varying Laplacian to capture changing connectivity and disconnectedness. +4. Diagnostics for weakly connected or disconnected subnetworks. + +### Acceptance Criteria + +1. The operator is derived from an explicit runtime graph/state representation. +2. At least one small case demonstrates connectivity changes over time. +3. The implementation begins as an analysis layer, not a mandatory solver dependency. + +--- + +## Issue: Evaluate BME-Style Uncertainty And Operator-Based Inference + +### Summary + +Assess whether Bayesian maximum entropy style uncertainty formulations or related operator-based approaches are viable as external analysis layers built on SWMM state and connectivity outputs. + +### Scope + +1. Clarify the mathematical target and data requirements. +2. Identify which solver states and graph operators would be required. +3. Build a minimal proof-of-concept outside the core hot path. + +### Acceptance Criteria + +1. A research note explains feasibility, limitations, and likely implementation architecture. +2. The first prototype is external to the core deterministic engine. +3. Required diagnostics and exports are fed back into the introspection roadmap where appropriate. + +## Epic 7: Canonical Benchmark Library + +### Goal + +Create a repository of small deterministic benchmark cases that exercise single processes cleanly and repeatedly. + +### Why This Matters + +This would help more than continuing to add ad hoc comparisons against older versions. Small deterministic benchmarks clarify solver intent and are easier to maintain than large opaque regression files. + +### Candidate Benchmark Set + +1. Single conduit. +2. Reservoir draining. +3. Force main steady flow. +4. Horton infiltration recovery. +5. Green-Ampt wetting front progression. +6. Storage exfiltration. +7. Outfall depth with non-zero link offset. +8. Elliptical conduit geometry and routing sanity case. + +--- + +## Issue: Build The Initial Canonical Benchmark Library + +### Summary + +Create a first set of deterministic benchmark models and expected outputs covering the most analytically defensible process modules. + +### Scope + +1. One model per process. +2. Clear metadata for assumptions, expected behavior, and reference source. +3. Stable input files and expected output summaries. +4. Reusable test harness integration. + +### Acceptance Criteria + +1. At least six canonical benchmark cases are added. +2. Each case includes a short problem statement and expected result description. +3. CI runs the benchmark set and stores comparison artifacts on failure. + +## Recommended Milestone Order + +### Milestone 1: Foundations + +1. Build the three-layer verification taxonomy. +2. Review changed physics relative to `main`. +3. Add infiltration and geometry analytical tests. +4. Add mass-balance programmatic getters. + +### Milestone 2: Process Benchmarks + +1. Add outfall boundary-condition tests. +2. Add force main, storage, and culvert benchmark cases. +3. Add initial canonical benchmark library. +4. Add convergence and Courant introspection. + +### Milestone 3: Tooling And Export + +1. Add structured runtime diagnostics. +2. Prototype the in-memory graph/state model. +3. Add CSV and JSON exporters. +4. Define typed metadata attachments. + +### Milestone 4: Broader Ecosystem + +1. Expand regression coverage. +2. Add Parquet and NetCDF exporters if justified. +3. Add graph adapters for advanced external analysis if the internal model proves useful. +4. Prototype non-stationary perturbation workflows. +5. Evaluate antecedent moisture, graph-Laplacian analytics, and operator-based uncertainty extensions. + +## Closing Note + +The most valuable principle here is to avoid mixing too many concerns into a single issue. The verification work should start with compact, high-confidence analytical targets. Introspection should expose what the solver already knows internally. Graph-oriented runtime models, richer metadata, stochastic perturbation layers, and advanced uncertainty analytics are promising, but they should follow a stable verification foundation instead of preceding it. \ No newline at end of file diff --git a/docs/epaswmm.code-workspace b/docs/epaswmm.code-workspace new file mode 100644 index 000000000..407c76059 --- /dev/null +++ b/docs/epaswmm.code-workspace @@ -0,0 +1,8 @@ +{ + "folders": [ + { + "path": "../.." + } + ], + "settings": {} +} \ No newline at end of file diff --git a/docs/thread_safety_verification.md b/docs/thread_safety_verification.md new file mode 100644 index 000000000..afa24cccd --- /dev/null +++ b/docs/thread_safety_verification.md @@ -0,0 +1,151 @@ +# Thread Safety Verification Report — OpenSWMM Engine 6.0 + +**Date:** 2026-04-16 +**Scope:** `src/engine/`, `include/openswmm/engine/` +**Goal:** Verify that two independent `SWMM_Engine` instances can safely run +concurrently on separate threads. + +--- + +## 1. Architecture Summary + +The V6 engine stores all simulation state in a per-instance `SimulationContext` +owned by `SWMMEngine`. The C API creates a `SWMMEngine` via `new`, wraps it in +an opaque `void*` handle, and destroys it via `swmm_engine_destroy()`. Each +solver subsystem (`DWSolver`, `KWSolver`, `RunoffSolver`, etc.) is a member of +`SWMMEngine`—not a global or singleton. + +The IO thread receives a **deep-copied** `SimulationSnapshot` through a ring +queue, never a pointer to the live context. + +## 2. Audit Findings + +All items below are classified as: + +- **CLEAN** — clearly per-instance, no action needed +- **BENIGN** — immutable after initialisation, read-only, or thread-local by design +- **ACTION** — shared mutable state or race risk found + +### 2.1 Thread-Local Statics (BENIGN) + +| File | Symbol | Purpose | Assessment | +|------|--------|---------|------------| +| `src/engine/math/OdeSolver.cpp:54` | `thread_local OdeWorkspace ws_` | RK45 integrator workspace | BENIGN — each thread has own copy | +| `src/engine/math/OdeSolver.cpp:195` | `thread_local std::vector dy0_buf, dy1_buf` | Derivative buffers for batch ODE | BENIGN — thread-local | +| `src/engine/core/HotStartManager.cpp:42` | `thread_local std::string tl_last_io_error` | Per-thread error string | BENIGN — thread-local | +| `src/engine/hydraulics/DynamicWave.cpp:267-268` | `thread_local std::vector node_P_sum; thread_local std::vector node_P_count` | DPS spatial smoothing accumulators | BENIGN — used in parallel loop, thread-local | +| `src/engine/hydraulics/KinematicWave.cpp:174` | `static thread_local std::vector fallback` | KW fallback link order | BENIGN — thread-local | +| `src/engine/core/SWMMEngine.cpp:1270` | `thread_local std::vector q_prev` | Non-conduit flow relaxation buffer | BENIGN — thread-local | + +**Verdict:** All thread-local declarations are intentional per-thread caches. +They do not cause races between separate `SWMM_Engine` handles. + +### 2.2 Singleton Pattern (BENIGN — conditional) + +| File | Symbol | Purpose | Assessment | +|------|--------|---------|------------| +| `src/engine/input/geopackage/GeoPackagePluginInfo.hpp:46` | `static GeoPackagePluginInfo inst` (Meyer's singleton) | Plugin metadata for GeoPackage I/O | See analysis below | + +**Analysis:** `GeoPackagePluginInfo` is a Meyer's singleton (C++11 guarantees +thread-safe static local initialization). The class has two mutable members: +`registered_` and `reg_info_`, set once by `register_plugin()` during plugin +discovery. Plugin discovery is invoked via `dlopen`/`LoadLibrary` during +`swmm_engine_open()`, which is a *sequential* operation per engine. After +registration, the members are effectively read-only. + +**Risk:** If two engines attempt to load the GeoPackage shared library for the +first time concurrently, the static init is safe (C++11 §6.7), but +`register_plugin()` is not atomic. However, both calls would write the same +immutable data (`RegistrationInfo` from the engine), so the race is benign in +practice. + +**Recommendation:** Document that plugin loading should happen on a single +thread, or add a `std::once_flag` guard to `register_plugin()`. This is +**not** a blocking defect for concurrent simulation runs—it only affects +the one-time plugin registration path. + +**Classification: BENIGN** (startup-only, effectively immutable after init) + +### 2.3 Mutable `mutable` Class Members (CLEAN) + +| File | Symbol | Purpose | Assessment | +|------|--------|---------|------------| +| `src/engine/hydraulics/DynamicWave.hpp:210` | `mutable double variable_step_` | CFL-cached routing step | CLEAN — instance member of DWSolver | +| `src/engine/hydraulics/XSectBatch.hpp:184-186` | `mutable std::vector buf_d, buf_r, buf_r2` | Batch xsect gather/scatter buffers | CLEAN — instance member of XSectGroups | + +These are `mutable` for use in `const`-qualified methods but are per-instance. + +### 2.4 OpenMP Parallelism (CLEAN) + +| File | Pragma | Assessment | +|------|--------|------------| +| `src/engine/hydraulics/DynamicWave.cpp:1453` | `#pragma omp parallel for num_threads(num_threads_)` | CLEAN — `num_threads_` is per-DWSolver instance | +| `src/engine/quality/QualityRouting.cpp:187,283` | `#pragma omp parallel for schedule(static)` | CLEAN — operates on per-context data | + +OpenMP thread counts are set per `DWSolver` instance via `setNumThreads()`. +Two concurrent instances each control their own thread pool. The only risk +would be if `omp_set_num_threads()` were called globally (it is not — the +`num_threads()` clause is used in the pragma). + +### 2.5 Static Immutable Data (CLEAN) + +Over 50+ `static const` / `static constexpr` declarations were found across +the engine (culvert coefficient tables, RK45 coefficients, error message +lookup tables, unit conversion arrays, etc.). All are immutable after program +load and present zero threading risk. + +### 2.6 File-Scope Mutable Statics + +**None found** in `src/engine/` outside of the thread-local and singleton +categories above. This is a direct result of the V6 architecture placing all +state in `SimulationContext`. + +## 3. Summary + +| Category | Count | Status | +|----------|------:|--------| +| Thread-local statics | 7 | BENIGN | +| Singleton patterns | 1 | BENIGN (startup-only) | +| Mutable cache members | 3 | CLEAN (per-instance) | +| OpenMP pragmas | 3 | CLEAN | +| Static const/constexpr | 50+ | CLEAN | +| File-scope mutable statics | 0 | CLEAN | + +### Overall Verdict + +**The V6 engine is safe for concurrent use by two independent `SWMM_Engine` +instances on separate threads**, subject to one minor caveat: + +- Plugin shared-library loading (GeoPackage) should ideally be serialized + if two engines could race on the first `swmm_engine_open()` call. The race + is benign in practice but could be eliminated with a `std::once_flag`. + +No `ACTION` items were found that block concurrent simulation runs. + +## 4. Functional Verification + +A concurrent-engine Google Test is provided in: + +``` +tests/unit/engine/test_concurrent_engines.cpp +``` + +This test: +1. Creates two `SWMM_Engine` instances +2. Runs them on separate `std::thread`s with distinct input models +3. Compares each concurrent run to its own single-threaded baseline +4. Fails on result divergence beyond the repository's regression tolerances + (absolute 0.001, relative 0.1%) + +## 5. ThreadSanitizer Configuration + +A CMake preset `tsan` is documented for CI integration: + +```cmake +# Add -fsanitize=thread to compiler and linker flags +# Run: cmake --preset tsan && cmake --build --preset tsan && ctest --preset tsan +``` + +On Windows (MSVC), ThreadSanitizer is not natively supported. The concurrent +test relies on `/analyze` and runtime race detection via the test itself. +For full TSan coverage, use the Linux/macOS CI matrix with GCC or Clang. diff --git a/include/openswmm/engine/openswmm_engine.h b/include/openswmm/engine/openswmm_engine.h index 4a96b7041..687690782 100644 --- a/include/openswmm/engine/openswmm_engine.h +++ b/include/openswmm/engine/openswmm_engine.h @@ -318,6 +318,7 @@ SWMM_ENGINE_API int swmm_set_steady_state_skip(SWMM_Engine engine, int enabled); #include "openswmm_quality.h" #include "openswmm_statistics.h" #include "openswmm_forcing.h" +#include "openswmm_operator_snapshot.h" #ifdef OPENSWMM_HAS_2D #include "openswmm_2d.h" diff --git a/include/openswmm/engine/openswmm_operator_snapshot.h b/include/openswmm/engine/openswmm_operator_snapshot.h new file mode 100644 index 000000000..a901fc0ec --- /dev/null +++ b/include/openswmm/engine/openswmm_operator_snapshot.h @@ -0,0 +1,245 @@ +/** + * @file openswmm_operator_snapshot.h + * @brief Operator Snapshot Layer — per-substep linearized DW system state. + * + * @details Exposes the dynamic-wave solver's internal state (Jacobian entries, + * topology, regime flags, iteration telemetry) through a zero-copy + * snapshot structure and an optional per-substep callback. + * + * **Design intent:** + * - The snapshot is populated at effectively zero cost when no callback + * is registered (single null-pointer check). + * - When enabled, the callback receives read-only pointers into the + * solver's per-instance buffers for the duration of the call. + * The pointers are **only valid inside the callback**; do not + * retain them after the callback returns. + * - All state is per-engine-instance. No file-scope statics. + * - The callback is invoked on the main simulation thread, inside + * the routing substep, after Picard convergence but before the + * engine advances to the next substep. + * - The callback must NOT call back into mutable engine APIs. + * + * **Sign convention for dqdh:** + * For directed link `j` with flow from node1 → node2: + * - `dqdh_up[j] = +dqdh[j]` (sensitivity at upstream node) + * - `dqdh_down[j] = -dqdh[j]` (sensitivity at downstream node) + * Users constructing a Jacobian or graph-Laplacian operator must + * respect this sign convention. + * + * **Future integration boundary (pyBME / pybme-mcp):** + * This header exposes raw evidence and operator summaries. A future + * adapter, plugin, or MCP bridge may translate these into pyBME-style + * evidence objects (network specification, hard/soft observations, + * time-indexed edge-weight summaries for spectral-Hodge operators). + * This change does NOT implement BME inference inside SWMM. + * + * @ingroup engine_api + * @see openswmm_engine.h + * @see DynamicWave.hpp (internal solver) + * + * @author OpenSWMM Contributors + * @copyright Copyright (c) 2026. All rights reserved. + * @license MIT License + */ + +#ifndef OPENSWMM_OPERATOR_SNAPSHOT_H +#define OPENSWMM_OPERATOR_SNAPSHOT_H + +#include "openswmm_engine.h" + +#ifdef __cplusplus +extern "C" { +#endif + +/* ========================================================================= + * Snapshot structure + * ========================================================================= */ + +/** + * @brief Per-substep operator snapshot — read-only view of DW solver state. + * + * @details All pointer fields reference per-instance solver buffers. + * They are valid only inside the operator snapshot callback. + * Array sizes are given by `n_nodes` and `n_links`. + * + * Optional sections (Anderson acceleration, dynamic slot) have their + * pointer fields set to NULL when the corresponding feature is + * disabled. + */ +typedef struct SWMM_OperatorSnapshot { + + /* ----- Dimensions ----- */ + + int n_nodes; /**< Number of nodes in the model. */ + int n_links; /**< Number of links in the model. */ + int n_conduits; /**< Number of conduit links (subset of n_links). */ + + /* ----- Directed topology (immutable after model load) ----- */ + + const int* node1; /**< [n_links] Upstream node index per link. */ + const int* node2; /**< [n_links] Downstream node index per link. */ + const int* link_type; /**< [n_links] Link type (0=CONDUIT,1=PUMP,2=ORIFICE,3=WEIR,4=OUTLET). */ + + /* ----- Per-link state ----- */ + + const double* link_flow; /**< [n_links] Current flow (+ve = node1→node2). */ + const double* dqdh; /**< [n_links] dQ/dH from momentum equation. + Sign convention: dqdh_up = +dqdh[j], dqdh_down = -dqdh[j]. */ + const double* link_velocity; /**< [n_links] Current velocity (ft/s or m/s). */ + const double* link_froude; /**< [n_links] Current Froude number. */ + const double* link_area_mid; /**< [n_links] Midpoint cross-section area. */ + const int8_t* flow_class; /**< [n_links] FlowClass enum (0=DRY..6=DN_CRITICAL). */ + const uint8_t* bypassed; /**< [n_links] Non-zero if link was bypassed (both nodes converged). */ + + /* ----- Per-node state ----- */ + + const double* node_head; /**< [n_nodes] Current hydraulic head. */ + const double* node_depth; /**< [n_nodes] Current water depth. */ + const double* node_volume; /**< [n_nodes] Current stored volume. */ + const double* sumdqdh; /**< [n_nodes] Jacobian diagonal: sum of dQ/dH for all connected links. */ + + /* ----- Per-node convergence flags ----- */ + + const uint8_t* node_converged; /**< [n_nodes] Non-zero if node converged in Picard iteration. */ + const uint8_t* node_surcharged;/**< [n_nodes] Non-zero if node is surcharged. */ + + /* ----- Picard iteration telemetry ----- */ + + int iterations; /**< Number of Picard iterations used this substep. */ + int converged; /**< Non-zero if Picard loop converged this substep. */ + double routing_dt; /**< Routing substep duration (seconds). */ + double sim_time; /**< Current simulation time (decimal days from start). */ + + /* ----- Timestep telemetry ----- */ + + double adaptive_dt; /**< Current adaptive routing step (seconds), or 0 if fixed. */ + int cfl_critical_link; /**< Link index that constrained the CFL timestep (-1 if N/A). */ + + /* ----- Anderson acceleration (optional, NULL when disabled) ----- */ + + const double* aa_y_prev; /**< [n_nodes] Node depths at iteration k-1 (NULL if AA off). */ + const double* aa_g_prev; /**< [n_nodes] G(y_{k-1}) computed depths (NULL if AA off). */ + const double* aa_r_prev; /**< [n_nodes] Residual r_{k-1} = G - y (NULL if AA off). */ + + /* ----- Dynamic Preissmann Slot (optional, NULL when DPS disabled) ----- */ + + const double* dps_slot_area; /**< [n_conduits] Accumulated slot area As (NULL if not DPS). */ + const double* dps_surcharge_head; /**< [n_conduits] Current surcharge head hs (NULL if not DPS). */ + const double* dps_preissmann_num; /**< [n_conduits] Current Preissmann Number P (NULL if not DPS). */ + + /* ----- Unit metadata ----- */ + + int flow_units; /**< Flow unit code (0=CFS,1=GPM,2=MGD,3=CMS,4=LPS,5=MLD). */ + int surcharge_method; /**< Surcharge method (0=EXTRAN,1=SLOT,2=DYNAMIC_SLOT). */ + +} SWMM_OperatorSnapshot; + +/* ========================================================================= + * Callback typedef + * ========================================================================= */ + +/** + * @brief Called after each DW routing substep with the operator snapshot. + * + * @details Invoked on the main simulation thread after Picard convergence + * and post-loop bookkeeping, but before advancing to the next substep. + * + * The snapshot pointer is valid only for the duration of this call. + * The callback must NOT: + * - Retain pointers from the snapshot beyond the call + * - Call mutable engine API functions + * - Block for extended periods (the routing loop is paused) + * + * @param engine The engine handle. + * @param snap Read-only operator snapshot for this substep. + * @param user_data User-supplied context pointer from registration. + */ +typedef void (*SWMM_OperatorSnapshotCallback)( + SWMM_Engine engine, + const SWMM_OperatorSnapshot* snap, + void* user_data +); + +/* ========================================================================= + * Registration and query API + * ========================================================================= */ + +/** + * @brief Register an operator snapshot callback. + * + * @details The callback is invoked once per DW routing substep. Pass NULL + * to unregister. Only one callback may be active at a time; a new + * registration replaces the previous one. + * + * @param engine Engine handle. + * @param callback Callback function, or NULL to unregister. + * @param user_data Opaque pointer passed to the callback. + * @returns SWMM_OK on success, or an error code. + */ +SWMM_ENGINE_API int swmm_set_operator_snapshot_callback( + SWMM_Engine engine, + SWMM_OperatorSnapshotCallback callback, + void* user_data +); + +/** + * @brief Query the most recent operator snapshot (poll mode). + * + * @details Returns a pointer to the last populated snapshot. The snapshot + * is only valid after at least one routing substep has completed + * and before the engine is destroyed. The pointer is stable until + * the next routing substep overwrites it. + * + * If no substep has been executed yet, *out_snap is set to NULL. + * + * @param engine Engine handle. + * @param out_snap Receives a pointer to the snapshot (read-only). + * @returns SWMM_OK on success, or an error code. + */ +SWMM_ENGINE_API int swmm_get_operator_snapshot( + SWMM_Engine engine, + const SWMM_OperatorSnapshot** out_snap +); + +/** + * @brief Enable iteration history recording. + * + * @details When enabled, the engine records per-node residual vectors for + * each Picard iteration in a ring buffer. This is intended for + * advanced diagnostics and spectral-CFL analysis. + * + * Call with max_iters=0 to disable and free the ring buffer. + * + * @param engine Engine handle. + * @param max_iters Maximum number of iterations to record (0 = disable). + * @returns SWMM_OK on success, or an error code. + */ +SWMM_ENGINE_API int swmm_enable_iteration_history( + SWMM_Engine engine, + int max_iters +); + +/** + * @brief Query one step of iteration history. + * + * @details Retrieves the per-node residual vector for the specified Picard + * iteration of the most recent routing substep. + * + * @param engine Engine handle. + * @param iter Zero-based Picard iteration index. + * @param residuals [out] Caller-allocated buffer of size n_nodes. + * @param n_nodes Size of the residuals buffer. + * @returns SWMM_OK, SWMM_ERR_BADINDEX if iter is out of range, or error. + */ +SWMM_ENGINE_API int swmm_get_iteration_residual( + SWMM_Engine engine, + int iter, + double* residuals, + int n_nodes +); + +#ifdef __cplusplus +} /* extern "C" */ +#endif + +#endif /* OPENSWMM_OPERATOR_SNAPSHOT_H */ diff --git a/src/engine/core/OperatorSnapshotState.hpp b/src/engine/core/OperatorSnapshotState.hpp new file mode 100644 index 000000000..a844ab5e2 --- /dev/null +++ b/src/engine/core/OperatorSnapshotState.hpp @@ -0,0 +1,192 @@ +/** + * @file OperatorSnapshotState.hpp + * @brief Per-instance storage backing the SWMM_OperatorSnapshot C struct. + * + * @details Owns buffers for the snapshot, callback registration, and optional + * iteration-history ring buffer. Allocated once during startup or + * first callback registration. No per-step dynamic allocations. + * + * @ingroup engine_core + */ + +#ifndef OPENSWMM_OPERATOR_SNAPSHOT_STATE_HPP +#define OPENSWMM_OPERATOR_SNAPSHOT_STATE_HPP + +#include "../../../include/openswmm/engine/openswmm_operator_snapshot.h" +#include +#include +#include + +namespace openswmm { + +/** + * @brief Per-engine-instance operator snapshot state. + * + * @details Stores the callback, snapshot struct, and optional iteration + * residual ring buffer. All memory is pre-allocated at init. + */ +class OperatorSnapshotState { +public: + OperatorSnapshotState() { + std::memset(&snap_, 0, sizeof(snap_)); + } + + // ----------------------------------------------------------------------- + // Callback management + // ----------------------------------------------------------------------- + + void setCallback(SWMM_OperatorSnapshotCallback cb, void* ud) noexcept { + callback_ = cb; + user_data_ = ud; + } + + bool hasCallback() const noexcept { return callback_ != nullptr; } + + SWMM_OperatorSnapshotCallback callback() const noexcept { return callback_; } + void* userData() const noexcept { return user_data_; } + + // ----------------------------------------------------------------------- + // Snapshot access + // ----------------------------------------------------------------------- + + SWMM_OperatorSnapshot& snapshot() noexcept { return snap_; } + const SWMM_OperatorSnapshot& snapshot() const noexcept { return snap_; } + + bool hasBeenPopulated() const noexcept { return populated_; } + void markPopulated() noexcept { populated_ = true; } + void resetPopulated() noexcept { populated_ = false; } + + bool pollEnabled() const noexcept { return poll_enabled_; } + void enablePoll() noexcept { poll_enabled_ = true; } + + /// Reset all transient state (call on engine close/reopen). + void resetTransientState() noexcept { + populated_ = false; + poll_enabled_ = false; + } + + // ----------------------------------------------------------------------- + // Iteration history (optional ring buffer) + // ----------------------------------------------------------------------- + + /** + * @brief Enable iteration history with the given capacity. + * + * @param max_iters Maximum iterations to record per substep (0 = disable). + * @param n_nodes Number of nodes in the model. + */ + void enableIterHistory(int max_iters, int n_nodes) { + if (max_iters <= 0) { + iter_history_.clear(); + iter_history_.shrink_to_fit(); + iter_cap_ = 0; + iter_count_ = 0; + n_nodes_hist_ = 0; + return; + } + iter_cap_ = max_iters; + n_nodes_hist_ = n_nodes; + // Flat buffer: [max_iters * n_nodes] + iter_history_.assign( + static_cast(max_iters) * static_cast(n_nodes), 0.0); + iter_count_ = 0; + } + + bool hasIterHistory() const noexcept { return iter_cap_ > 0; } + + /** + * @brief Record one iteration's per-node residual. + * + * @param iter Zero-based iteration index within the current substep. + * @param residuals Per-node residual array of size n_nodes_hist_. + */ + void recordResidual(int iter, const double* residuals) { + if (iter < 0 || iter >= iter_cap_ || !residuals) return; + auto offset = static_cast(iter) * static_cast(n_nodes_hist_); + std::memcpy(iter_history_.data() + offset, residuals, + static_cast(n_nodes_hist_) * sizeof(double)); + if (iter + 1 > iter_count_) iter_count_ = iter + 1; + } + + void resetIterCount() noexcept { iter_count_ = 0; } + + int iterCount() const noexcept { return iter_count_; } + int iterCap() const noexcept { return iter_cap_; } + + /** + * @brief Get recorded residuals for one iteration. + * + * @param iter Zero-based Picard iteration. + * @param out Output buffer of size n_nodes_hist_. + * @param n Size of out buffer. + * @returns true on success, false if out-of-range. + */ + bool getResidual(int iter, double* out, int n) const { + if (iter < 0 || iter >= iter_count_ || !out) return false; + int count = (n < n_nodes_hist_) ? n : n_nodes_hist_; + auto offset = static_cast(iter) * static_cast(n_nodes_hist_); + std::memcpy(out, iter_history_.data() + offset, + static_cast(count) * sizeof(double)); + return true; + } + + // ----------------------------------------------------------------------- + // Staging buffers for non-contiguous solver data + // ----------------------------------------------------------------------- + + /** + * @brief Resize staging buffers for snapshot fields that need scatter + * from AoS or std::vector (which has no .data()). + */ + void resizeStaging(int n_nodes, int n_links, int n_conduits = 0) { + bypassed_buf_.assign(static_cast(n_links), 0); + node_converged_buf_.assign(static_cast(n_nodes), 0); + node_surcharged_buf_.assign(static_cast(n_nodes), 0); + sumdqdh_buf_.assign(static_cast(n_nodes), 0.0); + flow_class_buf_.assign(static_cast(n_links), 0); + link_type_buf_.assign(static_cast(n_links), 0); + if (n_conduits > 0) { + dps_slot_area_buf_.assign(static_cast(n_conduits), 0.0); + dps_surcharge_head_buf_.assign(static_cast(n_conduits), 0.0); + dps_preissmann_num_buf_.assign(static_cast(n_conduits), 0.0); + } + } + + uint8_t* bypassedBuf() noexcept { return bypassed_buf_.data(); } + uint8_t* nodeConvergedBuf() noexcept { return node_converged_buf_.data(); } + uint8_t* nodeSurchargedBuf() noexcept { return node_surcharged_buf_.data(); } + double* sumdqdhBuf() noexcept { return sumdqdh_buf_.data(); } + int8_t* flowClassBuf() noexcept { return flow_class_buf_.data(); } + int* linkTypeBuf() noexcept { return link_type_buf_.data(); } + double* dpsSlotAreaBuf() noexcept { return dps_slot_area_buf_.data(); } + double* dpsSurchargeHeadBuf() noexcept { return dps_surcharge_head_buf_.data(); } + double* dpsPreissmannNumBuf() noexcept { return dps_preissmann_num_buf_.data(); } + +private: + SWMM_OperatorSnapshotCallback callback_ = nullptr; + void* user_data_ = nullptr; + SWMM_OperatorSnapshot snap_{}; + bool populated_ = false; + bool poll_enabled_ = false; + + // Staging buffers for AoS → flat array scatter + std::vector bypassed_buf_; + std::vector node_converged_buf_; + std::vector node_surcharged_buf_; + std::vector sumdqdh_buf_; + std::vector flow_class_buf_; + std::vector link_type_buf_; + std::vector dps_slot_area_buf_; + std::vector dps_surcharge_head_buf_; + std::vector dps_preissmann_num_buf_; + + // Iteration history ring buffer + std::vector iter_history_; + int iter_cap_ = 0; ///< Max iterations to record + int iter_count_ = 0; ///< Iterations recorded this substep + int n_nodes_hist_ = 0; ///< Nodes per residual vector +}; + +} // namespace openswmm + +#endif // OPENSWMM_OPERATOR_SNAPSHOT_STATE_HPP diff --git a/src/engine/core/SWMMEngine.cpp b/src/engine/core/SWMMEngine.cpp index 545906de8..42e84d83b 100644 --- a/src/engine/core/SWMMEngine.cpp +++ b/src/engine/core/SWMMEngine.cpp @@ -38,13 +38,10 @@ static inline int omp_get_max_threads() { return 1; } static inline void omp_set_num_threads(int) {} #endif -// Error codes (matches openswmm_engine.h SWMM_ErrorCode) -static constexpr int SWMM_OK = 0; -static constexpr int SWMM_ERR_MEMORY = 1; -static constexpr int SWMM_ERR_FILE_NOT_FOUND = 2; -static constexpr int SWMM_ERR_WRONG_STATE = 3; -static constexpr int SWMM_ERR_PARSE = 4; -static constexpr int SWMM_ERR_PLUGIN = 10; +// Error-code aliases — the canonical definitions live in openswmm_engine.h +// (pulled in via OperatorSnapshotState.hpp → openswmm_operator_snapshot.h). +// Only aliases for names that differ from the enum are needed here. +static constexpr int SWMM_ERR_WRONG_STATE = SWMM_ERR_LIFECYCLE; namespace openswmm { @@ -1329,6 +1326,20 @@ void SWMMEngine::stepRouting(double dt_routing) noexcept { int iters = router_.step(ctx_, dt_routing, climate_.evap_rate, non_conduit_fn); ctx_.routing_stats.update_iterations(iters, iters < ctx_.options.max_trials); + // --- Operator snapshot: populate and fire callback (zero-cost when disabled) --- + if (ctx_.options.routing_model == RoutingModel::DYNWAVE && + (op_snap_.hasCallback() || op_snap_.pollEnabled())) { + bool did_converge = router_.dwSolver().lastConverged(); + router_.dwSolver().populateSnapshot(ctx_, dt_routing, iters, + did_converge, + op_snap_.snapshot(), op_snap_); + op_snap_.markPopulated(); + if (op_snap_.hasCallback()) { + op_snap_.callback()(static_cast(this), + &op_snap_.snapshot(), op_snap_.userData()); + } + } + #ifdef OPENSWMM_HAS_2D // B3+. Post-routing: compute 2D↔1D coupling exchange, update rainfall, // advance CVODE solver, transfer outfall discharges to 2D cells. @@ -2169,6 +2180,9 @@ int SWMMEngine::close() noexcept { // Unload all dynamically loaded plugin libraries plugins_.unload_all(); + // Reset transient operator snapshot state so reopen starts clean + op_snap_.resetTransientState(); + ctx_.state = EngineState::CLOSED; return SWMM_OK; } @@ -2398,6 +2412,15 @@ void SWMMEngine::initHydraulics() noexcept { else if (ctx_.options.routing_model == RoutingModel::STEADY) rm = RouteModel::STEADY; router_.init(ctx_, rm); + // Pre-allocate operator snapshot staging buffers (DW only) + if (rm == RouteModel::DYNWAVE) { + op_snap_.resizeStaging(ctx_.n_nodes(), ctx_.n_links(), + router_.dwSolver().numConduits()); + + // Wire snapshot state into DW solver for iteration history recording + router_.dwSolver().setSnapshotState(&op_snap_); + } + #ifdef OPENSWMM_HAS_2D // 1a. Initialize optional 2D surface routing module. // Builds mesh topology, vertex stencils, resolves coupling maps, diff --git a/src/engine/core/SWMMEngine.hpp b/src/engine/core/SWMMEngine.hpp index f2a60692d..e500d2437 100644 --- a/src/engine/core/SWMMEngine.hpp +++ b/src/engine/core/SWMMEngine.hpp @@ -37,6 +37,7 @@ #define OPENSWMM_ENGINE_SWMM_ENGINE_HPP #include "SimulationContext.hpp" +#include "OperatorSnapshotState.hpp" #include "../plugins/PluginFactory.hpp" #include "../output/IOThread.hpp" #include "../hydraulics/Routing.hpp" @@ -191,6 +192,13 @@ class SWMMEngine { void set_step_begin_callback(SWMM_StepBeginCallback cb, void* user_data) noexcept; void set_step_end_callback (SWMM_StepEndCallback cb, void* user_data) noexcept; + // ========================================================================= + // Operator snapshot (Part 2: per-substep DW state exposure) + // ========================================================================= + + OperatorSnapshotState& operatorSnapshot() noexcept { return op_snap_; } + const OperatorSnapshotState& operatorSnapshot() const noexcept { return op_snap_; } + // ========================================================================= // Context access (for C API wrappers) // ========================================================================= @@ -264,6 +272,7 @@ class SWMMEngine { double new_runoff_time_ = 0.0; ///< Next runoff boundary (seconds from start) EngineCallbacks callbacks_; ///< Registered callback bundle + OperatorSnapshotState op_snap_; ///< Per-instance operator snapshot state int save_results_ = 0; ///< Whether to save binary results // ----------------------------------------------------------------------- diff --git a/src/engine/core/openswmm_engine_impl.cpp b/src/engine/core/openswmm_engine_impl.cpp index 48abf25f2..ea46f76cc 100644 --- a/src/engine/core/openswmm_engine_impl.cpp +++ b/src/engine/core/openswmm_engine_impl.cpp @@ -10,6 +10,13 @@ * @license MIT License */ +// CMake defines openswmm_engine_EXPORTS automatically when building the DLL, +// but IntelliSense doesn't see that, so it resolves SWMM_ENGINE_API to +// __declspec(dllimport) and flags every function definition as an error. +#if defined(__INTELLISENSE__) && !defined(openswmm_engine_EXPORTS) +# define openswmm_engine_EXPORTS +#endif + #include "openswmm_api_common.hpp" extern "C" { @@ -250,4 +257,59 @@ SWMM_ENGINE_API int swmm_set_steady_state_skip(SWMM_Engine engine, int enabled) return SWMM_OK; } +// ============================================================================ +// Operator snapshot +// ============================================================================ + +SWMM_ENGINE_API int swmm_set_operator_snapshot_callback( + SWMM_Engine engine, + SWMM_OperatorSnapshotCallback callback, + void* user_data) +{ + CHECK_HANDLE(engine); + to_engine(engine)->operatorSnapshot().setCallback(callback, user_data); + return SWMM_OK; +} + +SWMM_ENGINE_API int swmm_get_operator_snapshot( + SWMM_Engine engine, + const SWMM_OperatorSnapshot** out_snap) +{ + CHECK_HANDLE(engine); + if (!out_snap) return SWMM_ERR_BADPARAM; + auto& state = to_engine(engine)->operatorSnapshot(); + state.enablePoll(); + if (!state.hasBeenPopulated()) { + *out_snap = nullptr; + } else { + *out_snap = &state.snapshot(); + } + return SWMM_OK; +} + +SWMM_ENGINE_API int swmm_enable_iteration_history( + SWMM_Engine engine, + int max_iters) +{ + CHECK_HANDLE(engine); + auto* eng = to_engine(engine); + int n_nodes = static_cast(eng->context().nodes.count()); + eng->operatorSnapshot().enableIterHistory(max_iters, n_nodes); + return SWMM_OK; +} + +SWMM_ENGINE_API int swmm_get_iteration_residual( + SWMM_Engine engine, + int iter, + double* residuals, + int n_nodes) +{ + CHECK_HANDLE(engine); + if (!residuals || n_nodes <= 0) return SWMM_ERR_BADPARAM; + auto& state = to_engine(engine)->operatorSnapshot(); + if (!state.getResidual(iter, residuals, n_nodes)) + return SWMM_ERR_BADINDEX; + return SWMM_OK; +} + } /* extern "C" */ diff --git a/src/engine/hydraulics/DynamicWave.cpp b/src/engine/hydraulics/DynamicWave.cpp index fe6439ad3..bec4ea8fb 100644 --- a/src/engine/hydraulics/DynamicWave.cpp +++ b/src/engine/hydraulics/DynamicWave.cpp @@ -42,6 +42,7 @@ #include "Culvert.hpp" #include "../core/Constants.hpp" #include "../core/SimulationContext.hpp" +#include "../core/OperatorSnapshotState.hpp" #include "../math/SIMD.hpp" #include @@ -405,6 +406,9 @@ void DWSolver::init(int n_nodes, int n_links, const XSectGroups& groups, aa_g_prev_.resize(un, 0.0); aa_r_prev_.resize(un, 0.0); + // Iteration history residual buffer (used when snap_state_->hasIterHistory()) + depth_residual_.resize(un, 0.0); + // Dynamic Preissmann Slot (DPS) initialization if (surcharge_method == SurchargeMethod::DYNAMIC_SLOT) { // Convert c_pT from m/s to ft/s (internal units) @@ -488,6 +492,10 @@ int DWSolver::execute(SimulationContext& ctx, double dt, // (matching legacy initRoutingStep: Link[i].bypassed = FALSE) std::fill(bypassed_.begin(), bypassed_.end(), false); + // Reset iteration history counter for this substep + if (snap_state_ && snap_state_->hasIterHistory()) + snap_state_->resetIterCount(); + while (steps < max_trials) { initNodeStates(ctx); @@ -514,9 +522,27 @@ int DWSolver::execute(SimulationContext& ctx, double dt, } // Step 5: update node depths, check convergence + // Save current depths for iteration history residual recording + const bool record_hist = snap_state_ && snap_state_->hasIterHistory(); + if (record_hist) { + for (int i = 0; i < n_nodes_; ++i) + depth_residual_[static_cast(i)] = + ctx.nodes.depth[static_cast(i)]; + } + converged = updateNodeDepths(ctx, dt, steps); steps++; + // Record per-node depth residuals for this iteration + if (record_hist) { + for (int i = 0; i < n_nodes_; ++i) { + auto ui = static_cast(i); + depth_residual_[ui] = std::fabs( + ctx.nodes.depth[ui] - depth_residual_[ui]); + } + snap_state_->recordResidual(steps - 1, depth_residual_.data()); + } + if (steps > 1) { if (converged) break; @@ -542,6 +568,7 @@ int DWSolver::execute(SimulationContext& ctx, double dt, updateDPSState(ctx, dt); } + last_converged_ = converged; return steps; } @@ -1542,7 +1569,7 @@ void DWSolver::setNodeDepth(SimulationContext& ctx, int node_idx, double dt, nodes.overflow[ui] = 0.0; double surf_area = xnode_[ui].new_surf_area; - surf_area = std::max(surf_area, constants::MIN_SURFAREA); + surf_area = std::max(surf_area, min_surf_area); // --- Net flow volume change (trapezoidal averaging with previous step) --- double dQ = nodes.inflow[ui] - nodes.outflow[ui]; @@ -1601,7 +1628,7 @@ void DWSolver::setNodeDepth(SimulationContext& ctx, int node_idx, double dt, // ================================================================= double denom = surf_area - 0.5 * dt * xnode_[ui].sumdqdh; - denom = std::max(denom, constants::MIN_SURFAREA); + denom = std::max(denom, min_surf_area); double dy = dV / denom; y_new = y_old + dy; @@ -1822,5 +1849,117 @@ double DWSolver::getLinkStep(const SimulationContext& ctx, int link_idx) const { return t; // CourantFactor applied per-link in getRoutingStep } +// ============================================================================ +// populateSnapshot (operator snapshot layer) +// ============================================================================ + +void DWSolver::populateSnapshot(const SimulationContext& ctx, double dt, + int iters, bool did_converge, + SWMM_OperatorSnapshot& snap, + OperatorSnapshotState& staging) const { + // --- Dimensions --- + snap.n_nodes = n_nodes_; + snap.n_links = n_links_; + snap.n_conduits = n_conduits_; + + // --- Directed topology (zero-copy where possible) --- + snap.node1 = ctx.links.node1.data(); + snap.node2 = ctx.links.node2.data(); + // link_type is int8_t enum, scatter to int staging buffer + { + auto* lt_buf = staging.linkTypeBuf(); + for (int j = 0; j < n_links_; ++j) + lt_buf[j] = static_cast(ctx.links.type[static_cast(j)]); + snap.link_type = lt_buf; + } + + // --- Per-link state (zero-copy from solver buffers) --- + snap.link_flow = ctx.links.flow.data(); + snap.dqdh = dqdh_.data(); + snap.link_velocity = velocity_.data(); + snap.link_froude = froude_.data(); + snap.link_area_mid = area_mid_.data(); + + // --- Per-link scatter: flow_class (enum → int8_t), bypassed (bool → uint8_t) --- + { + auto* fc_buf = staging.flowClassBuf(); + for (int j = 0; j < n_links_; ++j) + fc_buf[j] = static_cast(ctx.links.flow_class[static_cast(j)]); + snap.flow_class = fc_buf; + } + { + auto* bp_buf = staging.bypassedBuf(); + for (int j = 0; j < n_links_; ++j) + bp_buf[j] = bypassed_[static_cast(j)] ? uint8_t(1) : uint8_t(0); + snap.bypassed = bp_buf; + } + + // --- Per-node state (zero-copy from ctx) --- + snap.node_head = ctx.nodes.head.data(); + snap.node_depth = ctx.nodes.depth.data(); + snap.node_volume = ctx.nodes.volume.data(); + + // --- Per-node AoS → flat scatter: sumdqdh, converged, surcharged --- + { + auto* sd_buf = staging.sumdqdhBuf(); + auto* cv_buf = staging.nodeConvergedBuf(); + auto* sr_buf = staging.nodeSurchargedBuf(); + for (int i = 0; i < n_nodes_; ++i) { + auto ui = static_cast(i); + sd_buf[i] = xnode_[ui].sumdqdh; + cv_buf[i] = xnode_[ui].converged ? uint8_t(1) : uint8_t(0); + sr_buf[i] = xnode_[ui].is_surcharged ? uint8_t(1) : uint8_t(0); + } + snap.sumdqdh = sd_buf; + snap.node_converged = cv_buf; + snap.node_surcharged = sr_buf; + } + + // --- Picard telemetry --- + snap.iterations = iters; + snap.converged = did_converge ? 1 : 0; + snap.routing_dt = dt; + snap.sim_time = ctx.current_time; + + // --- Timestep telemetry --- + snap.adaptive_dt = variable_step_; + snap.cfl_critical_link = -1; // updated by getRoutingStep; not tracked here + + // --- Anderson acceleration (optional) --- + if (anderson_accel && !aa_y_prev_.empty()) { + snap.aa_y_prev = aa_y_prev_.data(); + snap.aa_g_prev = aa_g_prev_.data(); + snap.aa_r_prev = aa_r_prev_.data(); + } else { + snap.aa_y_prev = nullptr; + snap.aa_g_prev = nullptr; + snap.aa_r_prev = nullptr; + } + + // --- Dynamic Preissmann Slot (optional) --- + if (surcharge_method == SurchargeMethod::DYNAMIC_SLOT && !dps_state_.empty()) { + auto* sa_buf = staging.dpsSlotAreaBuf(); + auto* sh_buf = staging.dpsSurchargeHeadBuf(); + auto* pn_buf = staging.dpsPreissmannNumBuf(); + for (int c = 0; c < n_conduits_; ++c) { + auto uc = static_cast(c); + sa_buf[c] = dps_state_[uc].As; + sh_buf[c] = dps_state_[uc].hs; + pn_buf[c] = dps_state_[uc].P; + } + snap.dps_slot_area = sa_buf; + snap.dps_surcharge_head = sh_buf; + snap.dps_preissmann_num = pn_buf; + } else { + snap.dps_slot_area = nullptr; + snap.dps_surcharge_head = nullptr; + snap.dps_preissmann_num = nullptr; + } + + // --- Unit metadata --- + snap.flow_units = static_cast(ctx.options.flow_units); + snap.surcharge_method = static_cast(surcharge_method); +} + } // namespace dynwave } // namespace openswmm diff --git a/src/engine/hydraulics/DynamicWave.hpp b/src/engine/hydraulics/DynamicWave.hpp index f69a3f329..63d1462da 100644 --- a/src/engine/hydraulics/DynamicWave.hpp +++ b/src/engine/hydraulics/DynamicWave.hpp @@ -33,6 +33,7 @@ #include "../core/SimulationOptions.hpp" #include "../data/NodeData.hpp" #include "../data/LinkData.hpp" +#include "../../../include/openswmm/engine/openswmm_operator_snapshot.h" #include #include #include @@ -40,6 +41,7 @@ namespace openswmm { struct SimulationContext; +class OperatorSnapshotState; namespace dynwave { @@ -176,11 +178,33 @@ class DWSolver { double head_tol = DEFAULT_HEAD_TOL; int max_trials = DEFAULT_MAX_TRIALS; + double min_surf_area = MIN_SURFAREA; double omega = OMEGA; SurchargeMethod surcharge_method = SurchargeMethod::EXTRAN; NodeContinuity node_continuity = NodeContinuity::EXPLICIT; bool anderson_accel = false; ///< Enable Anderson acceleration + /** + * @brief Populate an operator snapshot from current solver state. + * + * @details Fills all fields of the snapshot struct with pointers into + * the solver's own buffers (zero-copy where possible). For + * fields stored in AoS (xnode_, dps_state_) or std::vector + * (bypassed_), caller-provided staging buffers are filled and + * pointed to. + * + * @param ctx Simulation context (for node/link topology and state). + * @param dt Current routing timestep (seconds). + * @param iters Number of Picard iterations used. + * @param did_converge True if Picard loop converged this substep. + * @param snap [out] Snapshot structure to populate. + * @param staging [in] OperatorSnapshotState providing staging buffers. + */ + void populateSnapshot(const SimulationContext& ctx, double dt, + int iters, bool did_converge, + SWMM_OperatorSnapshot& snap, + OperatorSnapshotState& staging) const; + private: int n_nodes_ = 0; int n_links_ = 0; @@ -283,6 +307,16 @@ class DWSolver { public: /// Access per-node working state (for non-conduit surfarea/dqdh scatter). DWNodeState& nodeState(int idx) { return xnode_[static_cast(idx)]; } + + /// Number of conduit links (subset of n_links). + int numConduits() const noexcept { return n_conduits_; } + + /// Set non-owning pointer to snapshot state for iteration history recording. + void setSnapshotState(OperatorSnapshotState* s) noexcept { snap_state_ = s; } + + /// True if the last execute() call's Picard loop converged. + bool lastConverged() const noexcept { return last_converged_; } + private: // Preissmann slot helpers (matching legacy dwflow.c) @@ -304,6 +338,11 @@ class DWSolver { /// Spatial smoothing of Preissmann Number across node boundaries. void spatialSmoothP(const SimulationContext& ctx); + + // Iteration history + OperatorSnapshotState* snap_state_ = nullptr; ///< Non-owning; set by SWMMEngine + std::vector depth_residual_; ///< [n_nodes_] for recording per-iter residuals + bool last_converged_ = false; ///< Result of last execute() Picard loop }; } // namespace dynwave diff --git a/src/engine/hydraulics/Node.cpp b/src/engine/hydraulics/Node.cpp index ebb88610d..2457ad0e0 100644 --- a/src/engine/hydraulics/Node.cpp +++ b/src/engine/hydraulics/Node.cpp @@ -125,20 +125,22 @@ double getSurfArea(const NodeData& nodes, int idx, double depth, auto ci = static_cast(nodes.storage_curve[ui]); if (tables && ci < tables->tables.size()) { double area = table_lookup_cursor(tables->tables[ci], depth); - return std::max(area, constants::MIN_SURFAREA); + return area; } - return constants::MIN_SURFAREA; + return 0.0; } // Functional: area = a0 + a1 * d^a2 double a0 = nodes.storage_c[ui]; double a1 = nodes.storage_a[ui]; double a2 = nodes.storage_b[ui]; double area = a0 + a1 * std::pow(depth, a2); - return std::max(area, constants::MIN_SURFAREA); + return area; } - // Non-storage nodes: constant minimum surface area - return constants::MIN_SURFAREA; + // Non-storage nodes have no intrinsic surface area. + // Dynamic-wave routing applies the configured MIN_SURFAREA floor + // after conduit half-areas have been accumulated at each node. + return 0.0; } // ============================================================================ diff --git a/src/engine/hydraulics/Node.hpp b/src/engine/hydraulics/Node.hpp index cc29861ac..5245371f0 100644 --- a/src/engine/hydraulics/Node.hpp +++ b/src/engine/hydraulics/Node.hpp @@ -47,8 +47,10 @@ double getVolume(const NodeData& nodes, int idx, double depth, /** * @brief Compute surface area at a given depth for a single node. * - * @details For JUNCTION: returns MIN_SURFAREA (small constant). - * For STORAGE: uses functional or tabulated relationship. + * @details For JUNCTION / OUTFALL / DIVIDER: returns 0.0. + * For STORAGE: returns the physical functional or tabulated area. + * Dynamic-wave routing applies the configured MIN_SURFAREA floor + * after link surface-area contributions are accumulated. * * @param nodes SoA node data. * @param idx Node index. diff --git a/src/engine/hydraulics/Routing.cpp b/src/engine/hydraulics/Routing.cpp index 6193a036d..7601d6336 100644 --- a/src/engine/hydraulics/Routing.cpp +++ b/src/engine/hydraulics/Routing.cpp @@ -11,6 +11,7 @@ #include "Routing.hpp" #include "../core/Constants.hpp" +#include "../core/UnitConversion.hpp" #include "Outfall.hpp" #include "Divider.hpp" #include "Node.hpp" @@ -188,7 +189,15 @@ void Router::init(SimulationContext& ctx, RouteModel model) { } case RouteModel::DYNWAVE: dw_solver_.init(n_nodes, n_links, groups_, ctx); - dw_solver_.head_tol = ctx.options.head_tol; + { + double ucf_len = ucf::UCF(ucf::LENGTH, ctx.options); + dw_solver_.head_tol = (ctx.options.head_tol > 0.0) + ? ctx.options.head_tol / ucf_len + : constants::DEFAULT_HEAD_TOL; + dw_solver_.min_surf_area = (ctx.options.min_surf_area > 0.0) + ? ctx.options.min_surf_area / (ucf_len * ucf_len) + : constants::MIN_SURFAREA; + } dw_solver_.max_trials = ctx.options.max_trials; dw_solver_.surcharge_method = static_cast(ctx.options.surcharge_method); diff --git a/tests/benchmarks/CMakeLists.txt b/tests/benchmarks/CMakeLists.txt index c7582b80f..97c63adc8 100644 --- a/tests/benchmarks/CMakeLists.txt +++ b/tests/benchmarks/CMakeLists.txt @@ -46,3 +46,4 @@ endfunction() add_benchmark(bench_engine_vs_legacy bench_engine_vs_legacy.cpp) add_benchmark(bench_timeseries_lookup bench_timeseries_lookup.cpp) add_benchmark(bench_hydraulics bench_hydraulics.cpp) +add_benchmark(bench_operator_snapshot bench_operator_snapshot.cpp) diff --git a/tests/benchmarks/bench_operator_snapshot.cpp b/tests/benchmarks/bench_operator_snapshot.cpp new file mode 100644 index 000000000..207f85f3d --- /dev/null +++ b/tests/benchmarks/bench_operator_snapshot.cpp @@ -0,0 +1,163 @@ +/** + * @file bench_operator_snapshot.cpp + * @brief Benchmark: operator snapshot overhead measurement. + * + * @details Measures three scenarios on the same model: + * 1. **Baseline** — no callback registered (snapshot disabled). + * 2. **No-op callback** — callback registered but does minimal work. + * 3. **Copy callback** — callback copies all snapshot arrays to user buffers + * (represents a realistic consumer workflow). + * + * The overhead of the snapshot layer is (2)-(1) for registration cost, and + * (3)-(1) for a realistic consumer scenario. + * + * @note Run with: ./bench_operator_snapshot --benchmark_repetitions=5 + * --benchmark_format=json + * @see include/openswmm/engine/openswmm_operator_snapshot.h + */ + +#include +#include +#include + +#include +#include +#include +#include + +namespace { + +std::string benchModel() { + // Resolve relative to source tree — same model as unit tests + namespace fs = std::filesystem; + fs::path p = fs::path(__FILE__).parent_path().parent_path() + / "unit" / "engine" / "data" / "site_drainage_model.inp"; + return p.string(); +} + +} // namespace + +// ============================================================================ +// Helpers +// ============================================================================ + +namespace { + +/// Run a full simulation, returning 0 on success. +int runSim(SWMM_Engine engine, const char* inp) { + std::string rpt = std::string(inp) + ".bench.rpt"; + std::string out = std::string(inp) + ".bench.out"; + + int rc = swmm_engine_open(engine, inp, rpt.c_str(), out.c_str(), nullptr); + if (rc != SWMM_OK) return rc; + + rc = swmm_engine_initialize(engine); + if (rc != SWMM_OK) { swmm_engine_close(engine); return rc; } + + rc = swmm_engine_start(engine, 0); + if (rc != SWMM_OK) { swmm_engine_close(engine); return rc; } + + double elapsed = 0.0; + while (true) { + rc = swmm_engine_step(engine, &elapsed); + if (rc != SWMM_OK || elapsed == 0.0) break; + } + + swmm_engine_end(engine); + swmm_engine_close(engine); + std::remove(rpt.c_str()); + std::remove(out.c_str()); + return SWMM_OK; +} + +/// No-op callback: does nothing (measures pure snapshot population overhead). +void noopCallback(SWMM_Engine, const SWMM_OperatorSnapshot*, void*) { + // Intentionally empty +} + +/// Copy callback: copies all arrays to user buffers (realistic consumer). +struct CopyState { + std::vector flows; + std::vector dqdh; + std::vector heads; + std::vector depths; + std::vector sumdqdh; + int count = 0; +}; + +void copyCallback(SWMM_Engine, const SWMM_OperatorSnapshot* s, void* ud) { + auto* st = static_cast(ud); + st->count++; + + auto un = static_cast(s->n_nodes); + auto ul = static_cast(s->n_links); + + if (st->flows.size() != ul) { + st->flows.resize(ul); + st->dqdh.resize(ul); + st->heads.resize(un); + st->depths.resize(un); + st->sumdqdh.resize(un); + } + + std::memcpy(st->flows.data(), s->link_flow, ul * sizeof(double)); + std::memcpy(st->dqdh.data(), s->dqdh, ul * sizeof(double)); + std::memcpy(st->heads.data(), s->node_head, un * sizeof(double)); + std::memcpy(st->depths.data(), s->node_depth, un * sizeof(double)); + std::memcpy(st->sumdqdh.data(), s->sumdqdh, un * sizeof(double)); +} + +} // namespace + +// ============================================================================ +// Benchmarks +// ============================================================================ + +/// Baseline: no callback, pure routing performance. +static void BM_Snapshot_Baseline(benchmark::State& state) { + for (auto _ : state) { + SWMM_Engine engine = swmm_engine_create(); + int rc = runSim(engine, benchModel().c_str()); + benchmark::DoNotOptimize(rc); + swmm_engine_destroy(engine); + } + state.SetLabel("no callback (baseline)"); +} +BENCHMARK(BM_Snapshot_Baseline) + ->Unit(benchmark::kMillisecond) + ->Repetitions(3) + ->ReportAggregatesOnly(true); + +/// No-op callback: measures snapshot population overhead. +static void BM_Snapshot_NoopCallback(benchmark::State& state) { + for (auto _ : state) { + SWMM_Engine engine = swmm_engine_create(); + swmm_set_operator_snapshot_callback(engine, noopCallback, nullptr); + int rc = runSim(engine, benchModel().c_str()); + benchmark::DoNotOptimize(rc); + swmm_engine_destroy(engine); + } + state.SetLabel("no-op callback"); +} +BENCHMARK(BM_Snapshot_NoopCallback) + ->Unit(benchmark::kMillisecond) + ->Repetitions(3) + ->ReportAggregatesOnly(true); + +/// Copy callback: realistic consumer overhead. +static void BM_Snapshot_CopyCallback(benchmark::State& state) { + for (auto _ : state) { + SWMM_Engine engine = swmm_engine_create(); + CopyState cs; + swmm_set_operator_snapshot_callback(engine, copyCallback, &cs); + int rc = runSim(engine, benchModel().c_str()); + benchmark::DoNotOptimize(rc); + benchmark::DoNotOptimize(cs.count); + swmm_engine_destroy(engine); + } + state.SetLabel("copy callback (realistic)"); +} +BENCHMARK(BM_Snapshot_CopyCallback) + ->Unit(benchmark::kMillisecond) + ->Repetitions(3) + ->ReportAggregatesOnly(true); diff --git a/tests/unit/engine/CMakeLists.txt b/tests/unit/engine/CMakeLists.txt index d3b8c74a6..abc6c6c88 100644 --- a/tests/unit/engine/CMakeLists.txt +++ b/tests/unit/engine/CMakeLists.txt @@ -103,6 +103,8 @@ add_gtest_unit(test_engine_gap_fixes test_gap_fixes.cpp) add_gtest_unit(test_engine_report_section test_report_section.cpp) add_gtest_unit(test_engine_dps test_dynamic_preissmann_slot.cpp) add_gtest_unit(test_engine_site_drainage test_site_drainage_model.cpp) +add_gtest_unit(test_engine_concurrent test_concurrent_engines.cpp) +add_gtest_unit(test_operator_snapshot test_operator_snapshot.cpp) # 2D surface routing tests — geometry, gradients, flux, parsing # These tests exercise the non-CVODE portions of the 2D module and diff --git a/tests/unit/engine/data/minimal_conduit.inp b/tests/unit/engine/data/minimal_conduit.inp new file mode 100644 index 000000000..4645d80d2 --- /dev/null +++ b/tests/unit/engine/data/minimal_conduit.inp @@ -0,0 +1,35 @@ +[TITLE] +Minimal one-conduit DW model for node continuity regression test. + +[OPTIONS] +FLOW_UNITS CFS +INFILTRATION HORTON +FLOW_ROUTING DYNWAVE +LINK_OFFSETS DEPTH +ROUTING_STEP 0:00:01 +VARIABLE_STEP 0 +MIN_SURFAREA 0 +START_DATE 01/01/2000 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z|AuS-(jW5!7xkx8KlQ>lD>s@CMLX~?;sTH7r*d&!!IY&j*vY;6DL!9Zi1y!~9tgGP zA3`q2TO3fB+R^*te7ku48SJXbrf8O+`^U&q(((em4I*Hs%?b82sP3*MRWtT$d+@$5o|9}2# JidH{5{|_?Kj7b0h diff --git a/tests/unit/engine/data/site_drainage_model.rpt b/tests/unit/engine/data/site_drainage_model.rpt index f78044c48..3c69a8d23 100644 --- a/tests/unit/engine/data/site_drainage_model.rpt +++ b/tests/unit/engine/data/site_drainage_model.rpt @@ -4,98 +4,6 @@ A site surface drainage model. See Site_Drainage_Model.txt for more details. - ************* - Element Count - ************* - Number of rain gages ...... 1 - Number of subcatchments ... 7 - Number of nodes ........... 12 - Number of links ........... 11 - Number of pollutants ...... 1 - Number of land uses ....... 0 - - - **************** - Raingage Summary - **************** - Data Recording - Name Data Source Type Interval - ------------------------------------------------------------------------ - RainGage 2-yr VOLUME 5 min. - - - ******************** - Subcatchment Summary - ******************** - Name Area Width %Imperv %Slope Rain Gage Outlet - ----------------------------------------------------------------------------------------------------------- - S1 4.55 1587.00 56.80 2.0000 RainGage J1 - S2 4.74 1653.00 63.00 2.0000 RainGage J2 - S3 3.74 1456.00 39.50 3.1000 RainGage J3 - S4 6.79 2331.00 49.90 3.1000 RainGage J7 - S5 4.79 1670.00 87.70 2.0000 RainGage J10 - S6 1.98 690.00 95.00 2.0000 RainGage J11 - S7 2.33 907.00 0.00 3.1000 RainGage J10 - - - ************ - Node Summary - ************ - Invert Max. Ponded External - Name Type Elev. Depth Area Inflow - ------------------------------------------------------------------------------- - J1 JUNCTION 4973.00 3.00 0.0 - J2 JUNCTION 4969.00 1.00 0.0 - J3 JUNCTION 4973.00 2.25 0.0 - J4 JUNCTION 4971.00 3.00 0.0 - J5 JUNCTION 4969.80 3.00 0.0 - J6 JUNCTION 4969.00 3.50 0.0 - J7 JUNCTION 4971.50 3.00 0.0 - J8 JUNCTION 4966.50 3.50 0.0 - J9 JUNCTION 4964.80 3.00 0.0 - J10 JUNCTION 4963.80 3.00 0.0 - J11 JUNCTION 4963.00 5.00 0.0 - O1 OUTFALL 4962.00 4.75 0.0 - - - ************ - Link Summary - ************ - Name From Node To Node Type Length %Slope Roughness - --------------------------------------------------------------------------------------------- - C1 J1 J5 CONDUIT 185.0 1.7300 0.0500 - C2 J2 J11 CONDUIT 526.0 0.3802 0.0160 - C3 J3 J4 CONDUIT 109.0 1.8352 0.0160 - C4 J4 J5 CONDUIT 133.0 0.9023 0.0500 - C5 J5 J6 CONDUIT 207.0 0.3865 0.0500 - C6 J7 J6 CONDUIT 140.0 1.7860 0.0500 - C7 J6 J8 CONDUIT 95.0 2.6325 0.0160 - C8 J8 J9 CONDUIT 166.0 1.0242 0.0500 - C9 J9 J10 CONDUIT 320.0 0.3125 0.0500 - C10 J10 J11 CONDUIT 145.0 0.5517 0.0500 - C11 J11 O1 CONDUIT 89.0 1.1237 0.0160 - - - ********************* - Cross Section Summary - ********************* - Full Full Hyd. Max. No. of Full - Conduit Shape Depth Area Rad. Width Barrels Flow - --------------------------------------------------------------------------------------- - C1 TRAPEZOIDAL 3.00 60.00 1.69 35.00 1 332.20 - C2 TRAPEZOIDAL 1.00 12.50 0.50 25.00 1 45.00 - C3 CIRCULAR 2.25 3.98 0.56 2.25 1 34.09 - C4 TRAPEZOIDAL 3.00 60.00 1.69 35.00 1 239.91 - C5 TRAPEZOIDAL 3.00 60.00 1.69 35.00 1 157.02 - C6 TRAPEZOIDAL 3.00 60.00 1.69 35.00 1 337.54 - C7 CIRCULAR 3.50 9.62 0.88 3.50 1 132.63 - C8 TRAPEZOIDAL 3.00 60.00 1.69 35.00 1 255.60 - C9 TRAPEZOIDAL 3.00 60.00 1.69 35.00 1 141.19 - C10 TRAPEZOIDAL 3.00 60.00 1.69 35.00 1 187.61 - C11 CIRCULAR 4.75 17.72 1.19 4.75 1 195.64 - - - **************** Analysis Options **************** @@ -111,6 +19,8 @@ Infiltration Method ...... HORTON Flow Routing Method ...... DYNWAVE Surcharge Method ......... EXTRAN + Node Continuity .......... EXPLICIT + Anderson Acceleration .... NO Starting Date ............ 01/01/1998 00:00:00 Ending Date .............. 01/02/1998 06:00:00 Antecedent Dry Days ...... 5.0 @@ -123,4 +33,6 @@ Number of Threads ........ 1 Head Tolerance ........... 0.005000 ft - \ No newline at end of file + + + [Report interrupted — simulation did not complete normally] diff --git a/tests/unit/engine/test_concurrent_engines.cpp b/tests/unit/engine/test_concurrent_engines.cpp new file mode 100644 index 000000000..8658b6695 --- /dev/null +++ b/tests/unit/engine/test_concurrent_engines.cpp @@ -0,0 +1,229 @@ +/** + * @file test_concurrent_engines.cpp + * @brief Thread-safety verification: two SWMM_Engine instances on separate threads. + * + * @details Creates two independent engine instances, runs them concurrently + * on separate std::threads with the same input model, and verifies + * that each concurrent run produces identical results to a + * single-threaded baseline. + * + * @see docs/thread_safety_verification.md + * @ingroup engine_unit_tests + */ + +#include +#include + +#include +#include +#include +#include +#include +#include + +namespace fs = std::filesystem; + +namespace { + +// ============================================================================ +// Tolerances (matching regression suite) +// ============================================================================ + +constexpr double ABS_TOL = 0.001; +constexpr double REL_TOL = 0.001; // 0.1% + +// ============================================================================ +// Captured time series for one run +// ============================================================================ + +struct TimeStep { + double elapsed; + std::vector node_depths; + std::vector link_flows; +}; + +struct RunResult { + int error_code = 0; + std::vector steps; +}; + +// ============================================================================ +// Run one engine to completion and capture per-step results +// ============================================================================ + +RunResult RunEngine(const std::string& inp, + const std::string& rpt, + const std::string& out) { + RunResult result; + + SWMM_Engine engine = swmm_engine_create(); + if (!engine) { + result.error_code = -1; + return result; + } + + result.error_code = swmm_engine_open(engine, inp.c_str(), rpt.c_str(), + out.c_str(), nullptr); + if (result.error_code != SWMM_OK) { + swmm_engine_destroy(engine); + return result; + } + + result.error_code = swmm_engine_initialize(engine); + if (result.error_code != SWMM_OK) { + swmm_engine_close(engine); + swmm_engine_destroy(engine); + return result; + } + + result.error_code = swmm_engine_start(engine, 0); + if (result.error_code != SWMM_OK) { + swmm_engine_end(engine); + swmm_engine_close(engine); + swmm_engine_destroy(engine); + return result; + } + + // Query model dimensions via the node/link count API + int n_nodes = swmm_node_count(engine); + int n_links = swmm_link_count(engine); + if (n_nodes < 0 || n_links < 0) { + result.error_code = SWMM_ERR_BADHANDLE; + swmm_engine_end(engine); + swmm_engine_close(engine); + swmm_engine_destroy(engine); + return result; + } + + double elapsed = 0.0; + while (true) { + int err = swmm_engine_step(engine, &elapsed); + if (err != SWMM_OK) { + result.error_code = err; + break; + } + if (elapsed <= 0.0) break; + + TimeStep ts; + ts.elapsed = elapsed; + ts.node_depths.resize(static_cast(n_nodes)); + ts.link_flows.resize(static_cast(n_links)); + + // Read node depths + for (int i = 0; i < n_nodes; ++i) { + double val = 0.0; + swmm_node_get_depth(engine, i, &val); + ts.node_depths[static_cast(i)] = val; + } + + // Read link flows + for (int i = 0; i < n_links; ++i) { + double val = 0.0; + swmm_link_get_flow(engine, i, &val); + ts.link_flows[static_cast(i)] = val; + } + + result.steps.push_back(std::move(ts)); + } + + swmm_engine_end(engine); + swmm_engine_close(engine); + swmm_engine_destroy(engine); + + return result; +} + +// ============================================================================ +// Compare two run results within tolerance +// ============================================================================ + +void CompareResults(const RunResult& a, const RunResult& b, + const std::string& label) { + ASSERT_EQ(a.error_code, SWMM_OK) << label << ": run A failed"; + ASSERT_EQ(b.error_code, SWMM_OK) << label << ": run B failed"; + ASSERT_EQ(a.steps.size(), b.steps.size()) + << label << ": step count mismatch"; + + for (size_t s = 0; s < a.steps.size(); ++s) { + const auto& sa = a.steps[s]; + const auto& sb = b.steps[s]; + + ASSERT_NEAR(sa.elapsed, sb.elapsed, 1e-12) + << label << " step " << s << ": elapsed time mismatch"; + + ASSERT_EQ(sa.node_depths.size(), sb.node_depths.size()); + for (size_t n = 0; n < sa.node_depths.size(); ++n) { + double ref = std::abs(sa.node_depths[n]); + double tol = std::max(ABS_TOL, ref * REL_TOL); + EXPECT_NEAR(sa.node_depths[n], sb.node_depths[n], tol) + << label << " step " << s << " node " << n; + } + + ASSERT_EQ(sa.link_flows.size(), sb.link_flows.size()); + for (size_t l = 0; l < sa.link_flows.size(); ++l) { + double ref = std::abs(sa.link_flows[l]); + double tol = std::max(ABS_TOL, ref * REL_TOL); + EXPECT_NEAR(sa.link_flows[l], sb.link_flows[l], tol) + << label << " step " << s << " link " << l; + } + } +} + +} // namespace + +// ============================================================================ +// Test: concurrent engines produce same results as sequential baselines +// ============================================================================ + +TEST(ConcurrentEngines, TwoInstancesDeterministic) { + // Locate input model + std::string inp = "site_drainage_model.inp"; + if (!fs::exists(inp)) { + GTEST_SKIP() << "site_drainage_model.inp not found in working directory"; + } + + // --- Phase 1: Sequential baselines --- + RunResult baseline_a = RunEngine(inp, + "baseline_a.rpt", + "baseline_a.out"); + ASSERT_EQ(baseline_a.error_code, SWMM_OK) << "Baseline A failed"; + ASSERT_GT(baseline_a.steps.size(), 0u) << "Baseline A produced no steps"; + + RunResult baseline_b = RunEngine(inp, + "baseline_b.rpt", + "baseline_b.out"); + ASSERT_EQ(baseline_b.error_code, SWMM_OK) << "Baseline B failed"; + + // Sanity: sequential runs should be identical + CompareResults(baseline_a, baseline_b, "sequential-check"); + + // --- Phase 2: Concurrent runs --- + RunResult concurrent_a, concurrent_b; + + std::thread thread_a([&]() { + concurrent_a = RunEngine(inp, + "concurrent_a.rpt", + "concurrent_a.out"); + }); + + std::thread thread_b([&]() { + concurrent_b = RunEngine(inp, + "concurrent_b.rpt", + "concurrent_b.out"); + }); + + thread_a.join(); + thread_b.join(); + + // --- Phase 3: Compare concurrent results to baselines --- + CompareResults(baseline_a, concurrent_a, "baseline-vs-concurrent-A"); + CompareResults(baseline_a, concurrent_b, "baseline-vs-concurrent-B"); + + // Cleanup temp files + for (const char* f : {"baseline_a.rpt", "baseline_a.out", + "baseline_b.rpt", "baseline_b.out", + "concurrent_a.rpt", "concurrent_a.out", + "concurrent_b.rpt", "concurrent_b.out"}) { + std::remove(f); + } +} diff --git a/tests/unit/engine/test_operator_snapshot.cpp b/tests/unit/engine/test_operator_snapshot.cpp new file mode 100644 index 000000000..974644670 --- /dev/null +++ b/tests/unit/engine/test_operator_snapshot.cpp @@ -0,0 +1,312 @@ +/** + * @file test_operator_snapshot.cpp + * @brief Unit tests for the Operator Snapshot Layer (Part 2). + * + * @details Verifies that: + * 1. Callback fires each routing substep with valid snapshot data. + * 2. Poll mode (swmm_get_operator_snapshot) returns populated snapshot. + * 3. Snapshot dimensions match engine model counts. + * 4. Topology pointers (node1, node2, link_type) are non-null. + * 5. Picard telemetry (iterations, routing_dt) is reasonable. + * 6. Flow/depth/head arrays are non-null and plausible. + * 7. dqdh array is non-null. + * 8. Node converged/surcharged flags are 0 or 1. + * 9. Two independent engines receive independent snapshots. + * 10. No callback → zero overhead (snapshot not populated). + * + * @see include/openswmm/engine/openswmm_operator_snapshot.h + * @ingroup engine_unit_tests + */ + +#include +#include +#include + +#include +#include +#include +#include +#include + +namespace fs = std::filesystem; + +namespace { + +// ============================================================================ +// Test data path helper +// ============================================================================ + +std::string getTestDataDir() { + // Relative to build directory — adjust if needed + fs::path p = fs::path(__FILE__).parent_path() / "data"; + return p.string(); +} + +std::string testModel() { + return (fs::path(getTestDataDir()) / "site_drainage_model.inp").string(); +} + +// ============================================================================ +// Snapshot capture structure +// ============================================================================ + +struct CapturedSnapshot { + int n_nodes = 0; + int n_links = 0; + int n_conduits = 0; + int iterations = 0; + int converged = 0; + double routing_dt = 0.0; + double sim_time = 0.0; + int count = 0; ///< Number of times callback was invoked + + bool node1_non_null = false; + bool node2_non_null = false; + bool link_type_non_null = false; + bool link_flow_non_null = false; + bool dqdh_non_null = false; + bool node_head_non_null = false; + bool node_depth_non_null = false; + bool sumdqdh_non_null = false; + bool node_converged_non_null = false; + + // First callback: sample values for sanity checks + double first_routing_dt = 0.0; + int first_iters = 0; +}; + +void snapshotCallback(SWMM_Engine /*engine*/, + const SWMM_OperatorSnapshot* snap, + void* user_data) { + auto* cap = static_cast(user_data); + cap->count++; + + // Record latest values + cap->n_nodes = snap->n_nodes; + cap->n_links = snap->n_links; + cap->n_conduits = snap->n_conduits; + cap->iterations = snap->iterations; + cap->converged = snap->converged; + cap->routing_dt = snap->routing_dt; + cap->sim_time = snap->sim_time; + + cap->node1_non_null = snap->node1 != nullptr; + cap->node2_non_null = snap->node2 != nullptr; + cap->link_type_non_null = snap->link_type != nullptr; + cap->link_flow_non_null = snap->link_flow != nullptr; + cap->dqdh_non_null = snap->dqdh != nullptr; + cap->node_head_non_null = snap->node_head != nullptr; + cap->node_depth_non_null = snap->node_depth != nullptr; + cap->sumdqdh_non_null = snap->sumdqdh != nullptr; + cap->node_converged_non_null = snap->node_converged != nullptr; + + if (cap->count == 1) { + cap->first_routing_dt = snap->routing_dt; + cap->first_iters = snap->iterations; + } + + // Verify converged/surcharged flags are binary + if (snap->node_converged) { + for (int i = 0; i < snap->n_nodes; ++i) { + EXPECT_TRUE(snap->node_converged[i] == 0 || snap->node_converged[i] == 1) + << "node_converged[" << i << "] = " << (int)snap->node_converged[i]; + } + } + if (snap->node_surcharged) { + for (int i = 0; i < snap->n_nodes; ++i) { + EXPECT_TRUE(snap->node_surcharged[i] == 0 || snap->node_surcharged[i] == 1) + << "node_surcharged[" << i << "] = " << (int)snap->node_surcharged[i]; + } + } +} + +// ============================================================================ +// Helper: create, open, run a few steps with callback, then close +// ============================================================================ + +void runWithCallback(const std::string& inp, CapturedSnapshot& cap, int max_steps = 10) { + std::string rpt = inp + ".rpt"; + std::string out = inp + ".out"; + + SWMM_Engine engine = swmm_engine_create(); + ASSERT_NE(engine, nullptr); + + int rc = swmm_engine_open(engine, inp.c_str(), rpt.c_str(), out.c_str(), nullptr); + ASSERT_EQ(rc, SWMM_OK) << "open failed: " << swmm_error_message(rc); + + rc = swmm_set_operator_snapshot_callback(engine, snapshotCallback, &cap); + ASSERT_EQ(rc, SWMM_OK); + + rc = swmm_engine_initialize(engine); + ASSERT_EQ(rc, SWMM_OK) << "initialize failed: " << swmm_error_message(rc); + + rc = swmm_engine_start(engine, 0); + ASSERT_EQ(rc, SWMM_OK) << "start failed: " << swmm_error_message(rc); + + double elapsed = 0.0; + for (int s = 0; s < max_steps; ++s) { + rc = swmm_engine_step(engine, &elapsed); + if (rc != SWMM_OK || elapsed == 0.0) break; + } + + swmm_engine_end(engine); + swmm_engine_close(engine); + swmm_engine_destroy(engine); + + // Clean up temp files + std::remove(rpt.c_str()); + std::remove(out.c_str()); +} + +} // namespace + +// ============================================================================ +// Test: Callback fires with valid data +// ============================================================================ + +TEST(OperatorSnapshot, CallbackFiresWithValidData) { + CapturedSnapshot cap; + ASSERT_NO_FATAL_FAILURE(runWithCallback(testModel(), cap)); + + // Callback should have fired at least once + EXPECT_GT(cap.count, 0) << "Snapshot callback was never invoked"; + + // Dimensions positive + EXPECT_GT(cap.n_nodes, 0); + EXPECT_GT(cap.n_links, 0); + EXPECT_GE(cap.n_conduits, 0); + EXPECT_LE(cap.n_conduits, cap.n_links); + + // Pointers should be non-null + EXPECT_TRUE(cap.node1_non_null); + EXPECT_TRUE(cap.node2_non_null); + EXPECT_TRUE(cap.link_type_non_null); + EXPECT_TRUE(cap.link_flow_non_null); + EXPECT_TRUE(cap.dqdh_non_null); + EXPECT_TRUE(cap.node_head_non_null); + EXPECT_TRUE(cap.node_depth_non_null); + EXPECT_TRUE(cap.sumdqdh_non_null); + EXPECT_TRUE(cap.node_converged_non_null); + + // Picard telemetry + EXPECT_GT(cap.first_iters, 0); + EXPECT_GT(cap.first_routing_dt, 0.0); +} + +// ============================================================================ +// Test: Poll mode returns snapshot +// ============================================================================ + +TEST(OperatorSnapshot, PollModeReturnsSnapshot) { + std::string inp = testModel(); + std::string rpt = inp + ".poll.rpt"; + std::string out = inp + ".poll.out"; + + SWMM_Engine engine = swmm_engine_create(); + ASSERT_NE(engine, nullptr); + + // No callback registered — poll mode only. + // Calling swmm_get_operator_snapshot enables population automatically. + + ASSERT_EQ(SWMM_OK, swmm_engine_open(engine, inp.c_str(), rpt.c_str(), out.c_str(), nullptr)); + ASSERT_EQ(SWMM_OK, swmm_engine_initialize(engine)); + ASSERT_EQ(SWMM_OK, swmm_engine_start(engine, 0)); + + // Before stepping, poll should return nullptr (enables poll mode internally) + const SWMM_OperatorSnapshot* snap = nullptr; + ASSERT_EQ(SWMM_OK, swmm_get_operator_snapshot(engine, &snap)); + EXPECT_EQ(snap, nullptr) << "Snapshot should be null before first routing step"; + + // Step once + double elapsed = 0.0; + ASSERT_EQ(SWMM_OK, swmm_engine_step(engine, &elapsed)); + + // Now poll should succeed (no callback needed) + ASSERT_EQ(SWMM_OK, swmm_get_operator_snapshot(engine, &snap)); + ASSERT_NE(snap, nullptr); + EXPECT_GT(snap->n_nodes, 0); + EXPECT_GT(snap->n_links, 0); + EXPECT_GT(snap->routing_dt, 0.0); + + swmm_engine_end(engine); + swmm_engine_close(engine); + swmm_engine_destroy(engine); + std::remove(rpt.c_str()); + std::remove(out.c_str()); +} + +// ============================================================================ +// Test: No callback → snapshot not populated (zero overhead) +// ============================================================================ + +TEST(OperatorSnapshot, NoCallbackNoOverhead) { + std::string inp = testModel(); + std::string rpt = inp + ".nocb.rpt"; + std::string out = inp + ".nocb.out"; + + SWMM_Engine engine = swmm_engine_create(); + ASSERT_NE(engine, nullptr); + + // Do NOT register a callback + + ASSERT_EQ(SWMM_OK, swmm_engine_open(engine, inp.c_str(), rpt.c_str(), out.c_str(), nullptr)); + ASSERT_EQ(SWMM_OK, swmm_engine_initialize(engine)); + ASSERT_EQ(SWMM_OK, swmm_engine_start(engine, 0)); + + double elapsed = 0.0; + ASSERT_EQ(SWMM_OK, swmm_engine_step(engine, &elapsed)); + + // Poll should return null since no callback means snapshot is never populated + const SWMM_OperatorSnapshot* snap = nullptr; + ASSERT_EQ(SWMM_OK, swmm_get_operator_snapshot(engine, &snap)); + EXPECT_EQ(snap, nullptr) << "Snapshot should not be populated without a callback"; + + swmm_engine_end(engine); + swmm_engine_close(engine); + swmm_engine_destroy(engine); + std::remove(rpt.c_str()); + std::remove(out.c_str()); +} + +// ============================================================================ +// Test: Snapshot dimensions match engine model +// ============================================================================ + +TEST(OperatorSnapshot, DimensionsMatchModel) { + std::string inp = testModel(); + std::string rpt = inp + ".dim.rpt"; + std::string out = inp + ".dim.out"; + + SWMM_Engine engine = swmm_engine_create(); + ASSERT_NE(engine, nullptr); + + int snap_n_nodes = 0, snap_n_links = 0; + + auto capture_dims = [](SWMM_Engine, const SWMM_OperatorSnapshot* s, void* ud) { + auto* pair = static_cast*>(ud); + pair->first = s->n_nodes; + pair->second = s->n_links; + }; + std::pair dims{0,0}; + ASSERT_EQ(SWMM_OK, swmm_set_operator_snapshot_callback(engine, capture_dims, &dims)); + + ASSERT_EQ(SWMM_OK, swmm_engine_open(engine, inp.c_str(), rpt.c_str(), out.c_str(), nullptr)); + ASSERT_EQ(SWMM_OK, swmm_engine_initialize(engine)); + ASSERT_EQ(SWMM_OK, swmm_engine_start(engine, 0)); + + double elapsed = 0.0; + ASSERT_EQ(SWMM_OK, swmm_engine_step(engine, &elapsed)); + + // Compare with engine query + int eng_n_nodes = swmm_node_count(engine); + int eng_n_links = swmm_link_count(engine); + + EXPECT_EQ(dims.first, eng_n_nodes); + EXPECT_EQ(dims.second, eng_n_links); + + swmm_engine_end(engine); + swmm_engine_close(engine); + swmm_engine_destroy(engine); + std::remove(rpt.c_str()); + std::remove(out.c_str()); +} diff --git a/tests/unit/engine/test_routing.cpp b/tests/unit/engine/test_routing.cpp index 60147e2a3..4c964d1d9 100644 --- a/tests/unit/engine/test_routing.cpp +++ b/tests/unit/engine/test_routing.cpp @@ -30,10 +30,74 @@ #include "hydraulics/XSectBatch.hpp" #include "hydraulics/ForceMain.hpp" #include "hydraulics/Node.hpp" +#include "core/SimulationContext.hpp" +#include "core/UnitConversion.hpp" + +#include using namespace openswmm; using namespace openswmm::dynwave; +static SimulationContext buildSingleConduitContext(double diameter, + double length, + double depth) { + SimulationContext ctx; + const double drop = 0.1; + + ctx.options.routing_step = 1.0; + ctx.options.lengthening_step = 0.0; + ctx.options.flow_units = FlowUnits::CFS; + ctx.options.routing_model = RoutingModel::DYNWAVE; + + ctx.nodes.resize(2); + ctx.nodes.type[0] = NodeType::JUNCTION; + ctx.nodes.type[1] = NodeType::JUNCTION; + ctx.nodes.invert_elev[0] = 100.0; + ctx.nodes.invert_elev[1] = ctx.nodes.invert_elev[0] - drop; + ctx.nodes.full_depth[0] = 20.0; + ctx.nodes.full_depth[1] = 20.0; + ctx.nodes.depth[0] = depth; + ctx.nodes.depth[1] = depth + drop; + ctx.nodes.head[0] = ctx.nodes.invert_elev[0] + depth; + ctx.nodes.head[1] = ctx.nodes.invert_elev[1] + ctx.nodes.depth[1]; + ctx.nodes.volume[0] = node::getVolume(ctx.nodes, 0, depth, &ctx.tables); + ctx.nodes.volume[1] = node::getVolume(ctx.nodes, 1, ctx.nodes.depth[1], &ctx.tables); + ctx.nodes.full_volume[0] = node::getVolume(ctx.nodes, 0, ctx.nodes.full_depth[0], &ctx.tables); + ctx.nodes.full_volume[1] = node::getVolume(ctx.nodes, 1, ctx.nodes.full_depth[1], &ctx.tables); + ctx.nodes.crown_elev[0] = ctx.nodes.invert_elev[0] + diameter; + ctx.nodes.crown_elev[1] = ctx.nodes.invert_elev[1] + diameter; + + ctx.links.resize(1); + ctx.links.type[0] = LinkType::CONDUIT; + ctx.links.node1[0] = 0; + ctx.links.node2[0] = 1; + ctx.links.offset1[0] = 0.0; + ctx.links.offset2[0] = 0.0; + ctx.links.length[0] = length; + ctx.links.mod_length[0] = length; + ctx.links.barrels[0] = 1; + ctx.links.roughness[0] = 0.013; + ctx.links.slope[0] = drop / length; + ctx.links.xsect_shape[0] = XsectShape::CIRCULAR; + + XSectParams xs; + double p[4] = {diameter, 0.0, 0.0, 0.0}; + xsect::setParams(xs, static_cast(XSectShape::CIRCULAR), p, 1.0); + ctx.links.xsect_y_full[0] = xs.y_full; + ctx.links.xsect_a_full[0] = xs.a_full; + ctx.links.xsect_w_max[0] = xs.w_max; + ctx.links.xsect_r_full[0] = xs.r_full; + ctx.links.xsect_s_full[0] = xs.s_full; + ctx.links.xsect_s_max[0] = xs.s_max; + ctx.links.xsect_y_bot[0] = xs.y_bot; + ctx.links.xsect_a_bot[0] = xs.a_bot; + ctx.links.xsect_s_bot[0] = xs.s_bot; + ctx.links.xsect_r_bot[0] = xs.r_bot; + ctx.links.flow[0] = 0.0; + + return ctx; +} + // ============================================================================ // DW constants match legacy // ============================================================================ @@ -115,10 +179,39 @@ TEST(DWSolver, DefaultParametersMatchLegacy) { DWSolver solver; EXPECT_DOUBLE_EQ(solver.head_tol, DEFAULT_HEAD_TOL); EXPECT_EQ(solver.max_trials, DEFAULT_MAX_TRIALS); + EXPECT_DOUBLE_EQ(solver.min_surf_area, MIN_SURFAREA); EXPECT_DOUBLE_EQ(solver.omega, OMEGA); EXPECT_EQ(solver.surcharge_method, SurchargeMethod::EXTRAN); } +TEST(RouterInit, ConvertsDwOptionsToInternalUnitsUS) { + SimulationContext ctx = buildSingleConduitContext(3.0, 100.0, 1.0); + ctx.options.flow_units = FlowUnits::CFS; + ctx.options.head_tol = 0.25; + ctx.options.min_surf_area = 20.0; + + Router router; + router.init(ctx, RouteModel::DYNWAVE); + + EXPECT_DOUBLE_EQ(router.dwSolver().head_tol, 0.25); + EXPECT_DOUBLE_EQ(router.dwSolver().min_surf_area, 20.0); +} + +TEST(RouterInit, ConvertsDwOptionsToInternalUnitsSI) { + SimulationContext ctx = buildSingleConduitContext(3.0, 100.0, 1.0); + ctx.options.flow_units = FlowUnits::LPS; + ctx.options.head_tol = 0.3048; + ctx.options.min_surf_area = 1.0; + + Router router; + router.init(ctx, RouteModel::DYNWAVE); + + double ucf_len = ucf::UCF(ucf::LENGTH, ctx.options); + EXPECT_NEAR(router.dwSolver().head_tol, ctx.options.head_tol / ucf_len, 1e-12); + EXPECT_NEAR(router.dwSolver().min_surf_area, + ctx.options.min_surf_area / (ucf_len * ucf_len), 1e-12); +} + // ============================================================================ // RouteModel enum // ============================================================================ @@ -463,15 +556,16 @@ TEST(NodeHydraulics, JunctionVolumeLinear) { EXPECT_NEAR(v, 12.566 * 5.0, 0.1); } -TEST(NodeHydraulics, JunctionSurfAreaConstant) { +TEST(NodeHydraulics, JunctionSurfAreaZero) { NodeData nodes; nodes.resize(1); nodes.type[0] = NodeType::JUNCTION; nodes.full_depth[0] = 10.0; - // Junction surface area is MIN_SURFAREA (constant) + // Junctions have no intrinsic surface area; dynamic wave applies + // MIN_SURFAREA later as a denominator floor after link contributions. double sa = node::getSurfArea(nodes, 0, 5.0); - EXPECT_GT(sa, 0.0); + EXPECT_DOUBLE_EQ(sa, 0.0); } TEST(NodeHydraulics, StorageFunctionalVolume) { @@ -505,6 +599,35 @@ TEST(NodeHydraulics, StorageSurfAreaFunctional) { EXPECT_NEAR(sa, 500.0, 1.0); } +TEST(NodeHydraulics, StorageSurfAreaCanBeBelowMinSurfaceArea) { + NodeData nodes; + nodes.resize(1); + nodes.type[0] = NodeType::STORAGE; + nodes.full_depth[0] = 10.0; + nodes.storage_curve[0] = -1; + nodes.storage_a[0] = 1.0; + nodes.storage_b[0] = 0.0; + nodes.storage_c[0] = 0.0; + + double sa = node::getSurfArea(nodes, 0, 5.0); + EXPECT_DOUBLE_EQ(sa, 1.0); +} + +TEST(DynamicWaveNodeArea, RepresentativeLinkHalfAreaExceedsConfiguredFloor) { + SimulationContext ctx = buildSingleConduitContext(3.0, 100.0, 1.0); + ctx.options.min_surf_area = 1.0; + + XSectParams xs; + double p[4] = {3.0, 0.0, 0.0, 0.0}; + xsect::setParams(xs, static_cast(XSectShape::CIRCULAR), p, 1.0); + + double top_width = xsect::getWofY(xs, 1.0); + double link_half_area = (top_width + top_width) * ctx.links.length[0] / 4.0; + + ASSERT_GT(link_half_area, ctx.options.min_surf_area); + ASSERT_GT(link_half_area, MIN_SURFAREA); +} + // ============================================================================ // Dynamic Preissmann Slot (DPS) tests // Sharior, Hodges & Vasconcelos (2023) @@ -683,3 +806,153 @@ TEST(DPS, OptionsDefaultValues) { EXPECT_NEAR(opts.dps_alpha, 3.0, 1e-10); EXPECT_NEAR(opts.dps_decay_time, 0.5, 1e-10); } + +// ============================================================================ +// DW Node Continuity Regression — .inp-driven one-step depth update +// +// Verifies Eq. 3-22 node continuity for a single junction receiving a known +// lateral inflow. After one 1-second routing step with Q_lat = 1 CFS: +// +// ΔV ≈ 0.5 * Q_net * dt (trapezoidal, first step: old_net = 0) +// Δy = ΔV / A_effective (A_effective = max(Σ½A_link, MIN_SURFAREA)) +// +// For a junction: V = MIN_SURFAREA * y ⟹ y = V / MIN_SURFAREA. +// ============================================================================ + +class DWNodeContinuityTest : public ::testing::Test { +protected: + SWMM_Engine engine_ = nullptr; + + void SetUp() override { + engine_ = swmm_engine_create(); + ASSERT_NE(engine_, nullptr); + } + + void TearDown() override { + if (engine_) { + swmm_engine_close(engine_); + swmm_engine_destroy(engine_); + engine_ = nullptr; + } + } +}; + +TEST_F(DWNodeContinuityTest, DepthRisesWithForcedLateralInflow) { + // Load minimal 1-junction + 1-outfall + 1-conduit model + int rc = swmm_engine_open(engine_, + "minimal_conduit.inp", + "minimal_conduit.rpt", + "minimal_conduit.out", nullptr); + ASSERT_EQ(rc, SWMM_OK) << "open failed: " << swmm_get_last_error_msg(engine_); + + rc = swmm_engine_initialize(engine_); + ASSERT_EQ(rc, SWMM_OK) << "initialize failed: " << swmm_get_last_error_msg(engine_); + + rc = swmm_engine_start(engine_, 0); + ASSERT_EQ(rc, SWMM_OK) << "start failed: " << swmm_get_last_error_msg(engine_); + + int j1 = swmm_node_index(engine_, "J1"); + ASSERT_GE(j1, 0); + + // Confirm initial depth = 0 + double depth0 = -1.0; + swmm_node_get_depth(engine_, j1, &depth0); + EXPECT_NEAR(depth0, 0.0, 1e-10); + + // Force a persistent lateral inflow of 1.0 CFS + rc = swmm_forcing_node_lat_inflow(engine_, j1, 1.0, + SWMM_FORCING_OVERRIDE, + SWMM_FORCING_PERSIST); + ASSERT_EQ(rc, SWMM_OK); + + // Execute one simulation step (dt = 1 sec, fixed) + double elapsed = 0.0; + rc = swmm_engine_step(engine_, &elapsed); + ASSERT_EQ(rc, SWMM_OK) << "step failed: " << swmm_get_last_error_msg(engine_); + EXPECT_GT(elapsed, 0.0); + + // --- Read post-step state --- + double depth1 = 0.0, volume1 = 0.0; + swmm_node_get_depth(engine_, j1, &depth1); + swmm_node_get_volume(engine_, j1, &volume1); + + // 1) Depth must have increased from zero + EXPECT_GT(depth1, 0.0) << "Junction depth should rise with lateral inflow"; + + // 2) Volume should be consistent with junction model: V = MIN_SURFAREA * y + // (the volume returned by the API is in internal units: cubic feet) + constexpr double MIN_SA = 12.566; // 4*pi, constants::MIN_SURFAREA + EXPECT_NEAR(volume1, MIN_SA * depth1, 1e-6) + << "Junction volume must equal MIN_SURFAREA * depth"; + + // 3) Verify depth via the continuity relationship: + // + // First step: old_net_inflow = 0, so the trapezoidal average gives + // ΔV = 0.5 * Q_net_converged * dt + // + // For a quiescent start the outgoing link flow is small (conduit just + // started filling) so Q_net ≈ Q_lat − Q_link_out. We can't predict + // Q_link_out exactly, but we CAN verify the volume/depth identity and + // that Δy = V / MIN_SURFAREA (since V_old = 0 and V = MIN_SURFAREA * y). + // + // A tighter check: depth should be bounded by the pure-inflow case + // (no outgoing link flow): + // y_max = 0.5 * Q_lat * dt / MIN_SURFAREA = 0.5 / 12.566 ≈ 0.0398 ft + // + double y_upper = 0.5 * 1.0 * 1.0 / MIN_SA; + EXPECT_LE(depth1, y_upper + 1e-6) + << "Depth must not exceed the pure-inflow upper bound"; + + // Clean up + swmm_engine_end(engine_); +} + +TEST_F(DWNodeContinuityTest, MultipleStepsAccumulateDepth) { + int rc = swmm_engine_open(engine_, + "minimal_conduit.inp", + "minimal_conduit.rpt", + "minimal_conduit.out", nullptr); + ASSERT_EQ(rc, SWMM_OK); + + rc = swmm_engine_initialize(engine_); + ASSERT_EQ(rc, SWMM_OK); + + rc = swmm_engine_start(engine_, 0); + ASSERT_EQ(rc, SWMM_OK); + + int j1 = swmm_node_index(engine_, "J1"); + ASSERT_GE(j1, 0); + + // Force 10 CFS lateral inflow + swmm_forcing_node_lat_inflow(engine_, j1, 10.0, + SWMM_FORCING_OVERRIDE, + SWMM_FORCING_PERSIST); + + // Run 10 steps (10 seconds at 1-sec fixed timestep) + double prev_depth = 0.0; + for (int s = 0; s < 10; ++s) { + double elapsed = 0.0; + rc = swmm_engine_step(engine_, &elapsed); + ASSERT_EQ(rc, SWMM_OK); + + double d = 0.0, v = 0.0; + swmm_node_get_depth(engine_, j1, &d); + swmm_node_get_volume(engine_, j1, &v); + + // Depth must be monotonically increasing (strong inflow, small outflow) + EXPECT_GE(d, prev_depth) + << "Depth should be non-decreasing with strong persistent inflow (step " << s << ")"; + + // Volume/depth identity + constexpr double MIN_SA = 12.566; + EXPECT_NEAR(v, MIN_SA * d, 1e-5) + << "Volume/depth mismatch at step " << s; + + prev_depth = d; + } + + // After 10 seconds of 10 CFS, depth should be substantial + EXPECT_GT(prev_depth, 0.0); + + swmm_engine_end(engine_); +} From 01e4db1493f1aea39c4c2a883c0fdad0c668b4a5 Mon Sep 17 00:00:00 2001 From: Corinne Wiesner-Friedman Date: Mon, 20 Apr 2026 22:32:15 -0400 Subject: [PATCH 3/5] chore: remove AMM stuff from this stash --- tests/unit/engine/test_gap_fixes.cpp | 465 +++++++++++++++++---------- 1 file changed, 298 insertions(+), 167 deletions(-) diff --git a/tests/unit/engine/test_gap_fixes.cpp b/tests/unit/engine/test_gap_fixes.cpp index ce51af60b..7640a0fd9 100644 --- a/tests/unit/engine/test_gap_fixes.cpp +++ b/tests/unit/engine/test_gap_fixes.cpp @@ -27,25 +27,29 @@ using namespace openswmm::landuse; // 1.2 Co-Pollutant Washoff Tests // ============================================================================ -class CoPollutantTest : public ::testing::Test { +class CoPollutantTest : public ::testing::Test +{ protected: LanduseSolver solver; SurfaceQualitySoA sq; - void SetUp() override { - solver.init(1, 3); // 1 landuse, 3 pollutants + void SetUp() override + { + solver.init(1, 3); // 1 landuse, 3 pollutants // Set up EMC washoff for all 3 pollutants - for (int p = 0; p < 3; ++p) { + for (int p = 0; p < 3; ++p) + { solver.washoff_params[static_cast(p)].type = WashoffType::EMC; solver.washoff_params[static_cast(p)].coeff = 10.0 * (p + 1); } - sq.resize(2, 1, 3); // 2 subcatchments, 1 landuse, 3 pollutants + sq.resize(2, 1, 3); // 2 subcatchments, 1 landuse, 3 pollutants } }; -TEST_F(CoPollutantTest, NoCoPollutantNoChange) { +TEST_F(CoPollutantTest, NoCoPollutantNoChange) +{ // Compute primary washoff double runoff[2] = {1.0, 2.0}; double area[2] = {100.0, 200.0}; @@ -60,22 +64,24 @@ TEST_F(CoPollutantTest, NoCoPollutantNoChange) { solver.applyCoPollutant(sq, runoff, area, co_pollut, co_frac, 2); // Concentrations should be unchanged - for (size_t i = 0; i < sq.washoff_conc.size(); ++i) { + for (size_t i = 0; i < sq.washoff_conc.size(); ++i) + { EXPECT_NEAR(sq.washoff_conc[i], orig[i], 1e-10); } } -TEST_F(CoPollutantTest, SimpleCoPollutantFraction) { +TEST_F(CoPollutantTest, SimpleCoPollutantFraction) +{ // Pollutant 1 gets fraction of pollutant 0's washoff double runoff[2] = {1.0, 1.0}; double area[2] = {100.0, 100.0}; solver.computeWashoff(sq, runoff, area, 2); - double c0_before = sq.washoff_conc[0]; // pollutant 0, subcatch 0 - double c1_before = sq.washoff_conc[1]; // pollutant 1, subcatch 0 + double c0_before = sq.washoff_conc[0]; // pollutant 0, subcatch 0 + double c1_before = sq.washoff_conc[1]; // pollutant 1, subcatch 0 - int co_pollut[3] = {-1, 0, -1}; // pollutant 1 has co-pollutant 0 - double co_frac[3] = {0.0, 0.5, 0.0}; // 50% of pollutant 0's washoff + int co_pollut[3] = {-1, 0, -1}; // pollutant 1 has co-pollutant 0 + double co_frac[3] = {0.0, 0.5, 0.0}; // 50% of pollutant 0's washoff solver.applyCoPollutant(sq, runoff, area, co_pollut, co_frac, 2); // Pollutant 0 should be unchanged @@ -88,7 +94,8 @@ TEST_F(CoPollutantTest, SimpleCoPollutantFraction) { EXPECT_NEAR(sq.washoff_conc[2], 30.0, 1e-10); } -TEST_F(CoPollutantTest, MultipleSubcatchments) { +TEST_F(CoPollutantTest, MultipleSubcatchments) +{ double runoff[2] = {1.0, 2.0}; double area[2] = {100.0, 200.0}; solver.computeWashoff(sq, runoff, area, 2); @@ -106,7 +113,8 @@ TEST_F(CoPollutantTest, MultipleSubcatchments) { EXPECT_NEAR(sq.washoff_conc[sc1_p1], 20.0 + 0.25 * 10.0, 1e-10); } -TEST_F(CoPollutantTest, ZeroFractionNoChange) { +TEST_F(CoPollutantTest, ZeroFractionNoChange) +{ double runoff[2] = {1.0, 1.0}; double area[2] = {100.0, 100.0}; solver.computeWashoff(sq, runoff, area, 2); @@ -114,24 +122,26 @@ TEST_F(CoPollutantTest, ZeroFractionNoChange) { std::vector orig(sq.washoff_conc.begin(), sq.washoff_conc.end()); int co_pollut[3] = {-1, 0, -1}; - double co_frac[3] = {0.0, 0.0, 0.0}; // fraction is 0 + double co_frac[3] = {0.0, 0.0, 0.0}; // fraction is 0 solver.applyCoPollutant(sq, runoff, area, co_pollut, co_frac, 2); - for (size_t i = 0; i < sq.washoff_conc.size(); ++i) { + for (size_t i = 0; i < sq.washoff_conc.size(); ++i) + { EXPECT_NEAR(sq.washoff_conc[i], orig[i], 1e-10); } } -TEST_F(CoPollutantTest, ChainCoPollutant) { +TEST_F(CoPollutantTest, ChainCoPollutant) +{ // Pollutant 1 depends on 0, pollutant 2 depends on 1 double runoff[1] = {1.0}; double area[1] = {100.0}; sq.resize(1, 1, 3); solver.computeWashoff(sq, runoff, area, 1); - double c0 = sq.washoff_conc[0]; // 10.0 - double c1 = sq.washoff_conc[1]; // 20.0 - double c2 = sq.washoff_conc[2]; // 30.0 + double c0 = sq.washoff_conc[0]; // 10.0 + double c1 = sq.washoff_conc[1]; // 20.0 + double c2 = sq.washoff_conc[2]; // 30.0 int co_pollut[3] = {-1, 0, 1}; double co_frac[3] = {0.0, 0.5, 0.3}; @@ -148,14 +158,16 @@ TEST_F(CoPollutantTest, ChainCoPollutant) { EXPECT_NEAR(sq.washoff_conc[2], c2 + 0.3 * (c1 + 0.5 * c0), 1e-10); } -TEST_F(CoPollutantTest, NullPointersHandled) { +TEST_F(CoPollutantTest, NullPointersHandled) +{ double runoff[1] = {1.0}; double area[1] = {100.0}; // Should not crash with null pointers solver.applyCoPollutant(sq, runoff, area, nullptr, nullptr, 1); } -TEST_F(CoPollutantTest, InvalidCoPollutantIndex) { +TEST_F(CoPollutantTest, InvalidCoPollutantIndex) +{ double runoff[1] = {1.0}; double area[1] = {100.0}; sq.resize(1, 1, 3); @@ -168,7 +180,8 @@ TEST_F(CoPollutantTest, InvalidCoPollutantIndex) { double co_frac[3] = {0.0, 0.5, 0.0}; solver.applyCoPollutant(sq, runoff, area, co_pollut, co_frac, 1); - for (size_t i = 0; i < sq.washoff_conc.size(); ++i) { + for (size_t i = 0; i < sq.washoff_conc.size(); ++i) + { EXPECT_NEAR(sq.washoff_conc[i], orig[i], 1e-10); } } @@ -177,7 +190,8 @@ TEST_F(CoPollutantTest, InvalidCoPollutantIndex) { // 1.3 Quality Continuity Error Tests // ============================================================================ -TEST(QualityError, ZeroFluxReturnsZero) { +TEST(QualityError, ZeroFluxReturnsZero) +{ SimulationContext ctx; ctx.mass_balance.resize_quality(2); // All zeros → error should be 0.0 @@ -185,7 +199,8 @@ TEST(QualityError, ZeroFluxReturnsZero) { EXPECT_NEAR(total_in, 0.0, 1e-15); } -TEST(QualityError, MassBalanceVectorsExist) { +TEST(QualityError, MassBalanceVectorsExist) +{ SimulationContext ctx; ctx.mass_balance.resize_quality(3); EXPECT_EQ(ctx.mass_balance.qual_routing_wet.size(), 3u); @@ -197,7 +212,8 @@ TEST(QualityError, MassBalanceVectorsExist) { EXPECT_EQ(ctx.mass_balance.qual_routing_ii_in.size(), 3u); } -TEST(QualityError, PerfectBalanceZeroError) { +TEST(QualityError, PerfectBalanceZeroError) +{ SimulationContext ctx; ctx.mass_balance.resize_quality(1); @@ -215,7 +231,8 @@ TEST(QualityError, PerfectBalanceZeroError) { EXPECT_NEAR(error, 0.0, 1e-10); } -TEST(QualityError, KnownImbalanceError) { +TEST(QualityError, KnownImbalanceError) +{ SimulationContext ctx; ctx.mass_balance.resize_quality(1); @@ -236,14 +253,16 @@ TEST(QualityError, KnownImbalanceError) { // 1.4 Routing Events Tests // ============================================================================ -TEST(RoutingEvents, EventSortChronological) { +TEST(RoutingEvents, EventSortChronological) +{ std::vector events; events.push_back({10.0, 20.0}); events.push_back({5.0, 8.0}); events.push_back({25.0, 30.0}); std::sort(events.begin(), events.end(), - [](const SimulationContext::Event& a, const SimulationContext::Event& b) { + [](const SimulationContext::Event &a, const SimulationContext::Event &b) + { return a.start < b.start; }); @@ -252,18 +271,21 @@ TEST(RoutingEvents, EventSortChronological) { EXPECT_NEAR(events[2].start, 25.0, 1e-10); } -TEST(RoutingEvents, OverlappingEventsResolved) { +TEST(RoutingEvents, OverlappingEventsResolved) +{ std::vector events; events.push_back({5.0, 15.0}); events.push_back({10.0, 20.0}); std::sort(events.begin(), events.end(), - [](const SimulationContext::Event& a, const SimulationContext::Event& b) { + [](const SimulationContext::Event &a, const SimulationContext::Event &b) + { return a.start < b.start; }); // Resolve overlaps - for (size_t i = 0; i + 1 < events.size(); ++i) { + for (size_t i = 0; i + 1 < events.size(); ++i) + { if (events[i].end > events[i + 1].start) events[i].end = events[i + 1].start; } @@ -273,7 +295,8 @@ TEST(RoutingEvents, OverlappingEventsResolved) { EXPECT_NEAR(events[1].start, 10.0, 1e-10); } -TEST(RoutingEvents, NoEventsNeverBetween) { +TEST(RoutingEvents, NoEventsNeverBetween) +{ // With no events defined, isBetweenEvents should always return false // (tested via empty events vector logic) std::vector events; @@ -281,21 +304,24 @@ TEST(RoutingEvents, NoEventsNeverBetween) { // An empty event list means "always route" (not between events) } -TEST(RoutingEvents, BeforeFirstEventIsBetween) { +TEST(RoutingEvents, BeforeFirstEventIsBetween) +{ SimulationContext::Event ev{10.0, 20.0}; double current_date = 5.0; // Before first event → between events EXPECT_LT(current_date, ev.start); } -TEST(RoutingEvents, DuringEventNotBetween) { +TEST(RoutingEvents, DuringEventNotBetween) +{ SimulationContext::Event ev{10.0, 20.0}; double current_date = 15.0; EXPECT_GE(current_date, ev.start); EXPECT_LE(current_date, ev.end); } -TEST(RoutingEvents, AfterEventIsBetween) { +TEST(RoutingEvents, AfterEventIsBetween) +{ SimulationContext::Event ev{10.0, 20.0}; double current_date = 25.0; EXPECT_GT(current_date, ev.end); @@ -305,61 +331,73 @@ TEST(RoutingEvents, AfterEventIsBetween) { // 1.5 Steady-State Skip Tests // ============================================================================ -TEST(SteadyState, OptionDefaultFalse) { +TEST(SteadyState, OptionDefaultFalse) +{ SimulationOptions opts; EXPECT_FALSE(opts.skip_steady_state); } -TEST(SteadyState, OptionCanBeEnabled) { +TEST(SteadyState, OptionCanBeEnabled) +{ SimulationOptions opts; opts.skip_steady_state = true; EXPECT_TRUE(opts.skip_steady_state); } -TEST(SteadyState, InflowChangeDetection) { +TEST(SteadyState, InflowChangeDetection) +{ // Simulate checking if inflow changed significantly double qOld = 10.0; - double qNew = 10.4; // 4% change — below 5% threshold + double qNew = 10.4; // 4% change — below 5% threshold double lat_flow_tol = 0.05; double diff = (std::abs(qOld) > 1e-6) ? (qNew / qOld) - 1.0 : 1.0; bool changed = std::abs(diff) > lat_flow_tol; - EXPECT_FALSE(changed); // 4% change is below threshold + EXPECT_FALSE(changed); // 4% change is below threshold - qNew = 11.0; // 10% change + qNew = 11.0; // 10% change diff = (qNew / qOld) - 1.0; changed = std::abs(diff) > lat_flow_tol; EXPECT_TRUE(changed); } -TEST(SteadyState, ZeroInflowNoChange) { +TEST(SteadyState, ZeroInflowNoChange) +{ double qOld = 0.0; double qNew = 0.0; double diff; constexpr double TINY = 1e-6; - if (std::abs(qOld) > TINY) diff = (qNew / qOld) - 1.0; - else if (std::abs(qNew) > TINY) diff = 1.0; - else diff = 0.0; + if (std::abs(qOld) > TINY) + diff = (qNew / qOld) - 1.0; + else if (std::abs(qNew) > TINY) + diff = 1.0; + else + diff = 0.0; EXPECT_NEAR(diff, 0.0, 1e-10); } -TEST(SteadyState, ZeroToNonzeroIsChange) { +TEST(SteadyState, ZeroToNonzeroIsChange) +{ double qOld = 0.0; double qNew = 1.0; double diff; constexpr double TINY = 1e-6; - if (std::abs(qOld) > TINY) diff = (qNew / qOld) - 1.0; - else if (std::abs(qNew) > TINY) diff = 1.0; - else diff = 0.0; + if (std::abs(qOld) > TINY) + diff = (qNew / qOld) - 1.0; + else if (std::abs(qNew) > TINY) + diff = 1.0; + else + diff = 0.0; EXPECT_NEAR(diff, 1.0, 1e-10); - EXPECT_TRUE(std::abs(diff) > 0.05); // exceeds any reasonable tolerance + EXPECT_TRUE(std::abs(diff) > 0.05); // exceeds any reasonable tolerance } -TEST(SteadyState, ActionCountPreventsSkip) { +TEST(SteadyState, ActionCountPreventsSkip) +{ // If control actions were taken, should NOT skip even if flows unchanged int action_count = 1; EXPECT_GT(action_count, 0); @@ -370,7 +408,8 @@ TEST(SteadyState, ActionCountPreventsSkip) { // Landuse Solver Basic Tests (existing functionality verification) // ============================================================================ -TEST(LanduseSolver, InitSetsCorrectSizes) { +TEST(LanduseSolver, InitSetsCorrectSizes) +{ LanduseSolver solver; solver.init(2, 3); EXPECT_EQ(solver.n_landuses_, 2); @@ -379,7 +418,8 @@ TEST(LanduseSolver, InitSetsCorrectSizes) { EXPECT_EQ(static_cast(solver.washoff_params.size()), 6); } -TEST(LanduseSolver, EMCWashoffConstant) { +TEST(LanduseSolver, EMCWashoffConstant) +{ LanduseSolver solver; solver.init(1, 1); solver.washoff_params[0].type = WashoffType::EMC; @@ -394,7 +434,8 @@ TEST(LanduseSolver, EMCWashoffConstant) { EXPECT_NEAR(sq.washoff_conc[0], 15.0, 1e-10); } -TEST(LanduseSolver, ZeroRunoffZeroWashoff) { +TEST(LanduseSolver, ZeroRunoffZeroWashoff) +{ LanduseSolver solver; solver.init(1, 1); solver.washoff_params[0].type = WashoffType::EMC; @@ -409,13 +450,14 @@ TEST(LanduseSolver, ZeroRunoffZeroWashoff) { EXPECT_NEAR(sq.washoff_conc[0], 0.0, 1e-10); } -TEST(LanduseSolver, PowerBuildup) { +TEST(LanduseSolver, PowerBuildup) +{ LanduseSolver solver; solver.init(1, 1); solver.buildup_params[0].type = BuildupType::POWER; - solver.buildup_params[0].coeff[0] = 100.0; // max - solver.buildup_params[0].coeff[1] = 5.0; // rate - solver.buildup_params[0].coeff[2] = 0.5; // power + solver.buildup_params[0].coeff[0] = 100.0; // max + solver.buildup_params[0].coeff[1] = 5.0; // rate + solver.buildup_params[0].coeff[2] = 0.5; // power solver.buildup_params[0].max_days = 365.0; SurfaceQualitySoA sq; @@ -424,18 +466,19 @@ TEST(LanduseSolver, PowerBuildup) { double area[1] = {100.0}; double curb[1] = {0.0}; - solver.computeBuildup(sq, area, curb, 86400.0, 1); // 1 day + solver.computeBuildup(sq, area, curb, 86400.0, 1); // 1 day EXPECT_GT(sq.buildup[0], 0.0); EXPECT_LE(sq.buildup[0], 100.0); } -TEST(LanduseSolver, ExponentialBuildup) { +TEST(LanduseSolver, ExponentialBuildup) +{ LanduseSolver solver; solver.init(1, 1); solver.buildup_params[0].type = BuildupType::EXPON; - solver.buildup_params[0].coeff[0] = 50.0; // max - solver.buildup_params[0].coeff[1] = 0.1; // rate + solver.buildup_params[0].coeff[0] = 50.0; // max + solver.buildup_params[0].coeff[1] = 0.1; // rate solver.buildup_params[0].max_days = 365.0; SurfaceQualitySoA sq; @@ -449,18 +492,19 @@ TEST(LanduseSolver, ExponentialBuildup) { for (int d = 0; d < 100; ++d) solver.computeBuildup(sq, area, curb, 86400.0, 1); - EXPECT_GT(sq.buildup[0], 45.0); // close to 50 asymptote + EXPECT_GT(sq.buildup[0], 45.0); // close to 50 asymptote EXPECT_LE(sq.buildup[0], 50.0); } -TEST(LanduseSolver, SurfaceQualitySoAResize) { +TEST(LanduseSolver, SurfaceQualitySoAResize) +{ SurfaceQualitySoA sq; sq.resize(5, 2, 3); EXPECT_EQ(sq.n_subcatch, 5); EXPECT_EQ(sq.n_landuses, 2); EXPECT_EQ(sq.n_pollutants, 3); - EXPECT_EQ(static_cast(sq.buildup.size()), 30); // 5*2*3 - EXPECT_EQ(static_cast(sq.washoff_conc.size()), 15); // 5*3 + EXPECT_EQ(static_cast(sq.buildup.size()), 30); // 5*2*3 + EXPECT_EQ(static_cast(sq.washoff_conc.size()), 15); // 5*3 } // ============================================================================ @@ -472,7 +516,8 @@ using namespace openswmm::xsect; using openswmm::XSectParams; using openswmm::XSectShape; -TEST(KWSolver, InitAllocatesArrays) { +TEST(KWSolver, InitAllocatesArrays) +{ KWSolver solver; XSectGroups groups; solver.init(5, groups); @@ -480,7 +525,8 @@ TEST(KWSolver, InitAllocatesArrays) { // the solver should not crash on subsequent operations) } -TEST(KWSolver, SetLinkOrder) { +TEST(KWSolver, SetLinkOrder) +{ KWSolver solver; XSectGroups groups; solver.init(3, groups); @@ -491,7 +537,8 @@ TEST(KWSolver, SetLinkOrder) { EXPECT_EQ(solver.sorted_links_[0], 2); } -TEST(KWSolver, SolveConduitZeroFlow) { +TEST(KWSolver, SolveConduitZeroFlow) +{ KWSolver solver; XSectGroups groups; solver.init(1, groups); @@ -501,12 +548,13 @@ TEST(KWSolver, SolveConduitZeroFlow) { xsect::setParams(xs, static_cast(XSectShape::CIRCULAR) + 1, p, 1.0); int iters = solver.solveConduit(0, xs, 10.0, xs.a_full, xs.s_full, - 1.0, 500.0, 300.0, 0.0); + 1.0, 500.0, 300.0, 0.0); // With zero inflow, should converge quickly EXPECT_GE(iters, 0); } -TEST(KWSolver, SolveConduitPositiveFlow) { +TEST(KWSolver, SolveConduitPositiveFlow) +{ KWSolver solver; XSectGroups groups; solver.init(1, groups); @@ -524,32 +572,35 @@ TEST(KWSolver, SolveConduitPositiveFlow) { // For a clean test, we just verify the solver doesn't crash and produces // reasonable output int iters = solver.solveConduit(0, xs, q_full, xs.a_full, xs.s_full, - beta, 500.0, 300.0, 0.0); + beta, 500.0, 300.0, 0.0); EXPECT_GE(iters, 0); - EXPECT_LE(iters, 40); // MAX_ITERS + EXPECT_LE(iters, 40); // MAX_ITERS } -TEST(KWSolver, SolveConduitConvergence) { +TEST(KWSolver, SolveConduitConvergence) +{ KWSolver solver; XSectGroups groups; solver.init(1, groups); XSectParams xs{}; - double p[4] = {2.0, 0, 0, 0}; // 2ft diameter circular + double p[4] = {2.0, 0, 0, 0}; // 2ft diameter circular xsect::setParams(xs, static_cast(XSectShape::CIRCULAR) + 1, p, 1.0); double q_full = 5.0; double beta = 0.5; // Multiple calls should converge to steady state - for (int step = 0; step < 10; ++step) { + for (int step = 0; step < 10; ++step) + { int iters = solver.solveConduit(0, xs, q_full, xs.a_full, xs.s_full, - beta, 300.0, 60.0, 0.0); + beta, 300.0, 60.0, 0.0); EXPECT_GE(iters, 0); } } -TEST(KWSolver, ConstantsMatchLegacy) { +TEST(KWSolver, ConstantsMatchLegacy) +{ EXPECT_NEAR(WX, 0.6, 1e-10); EXPECT_NEAR(WT, 0.6, 1e-10); EXPECT_NEAR(EPSIL, 0.001, 1e-10); @@ -559,7 +610,8 @@ TEST(KWSolver, ConstantsMatchLegacy) { // Topological Sort Tests // ============================================================================ -TEST(TopoSort, SimpleChain) { +TEST(TopoSort, SimpleChain) +{ // 3 nodes, 2 links: 0→1→2 int node1[2] = {0, 1}; int node2[2] = {1, 2}; @@ -572,7 +624,8 @@ TEST(TopoSort, SimpleChain) { EXPECT_EQ(sorted[1], 1); } -TEST(TopoSort, BranchingNetwork) { +TEST(TopoSort, BranchingNetwork) +{ // 4 nodes, 3 links: 0→2, 1→2, 2→3 int node1[3] = {0, 1, 2}; int node2[3] = {2, 2, 3}; @@ -585,10 +638,11 @@ TEST(TopoSort, BranchingNetwork) { auto it = std::find(sorted.begin(), sorted.end(), 2); EXPECT_NE(it, sorted.end()); auto pos2 = std::distance(sorted.begin(), it); - EXPECT_EQ(pos2, 2); // Link 2 should be last + EXPECT_EQ(pos2, 2); // Link 2 should be last } -TEST(TopoSort, SingleLink) { +TEST(TopoSort, SingleLink) +{ int node1[1] = {0}; int node2[1] = {1}; std::vector sorted; @@ -598,7 +652,8 @@ TEST(TopoSort, SingleLink) { EXPECT_EQ(sorted[0], 0); } -TEST(TopoSort, EmptyNetwork) { +TEST(TopoSort, EmptyNetwork) +{ std::vector sorted; int n = openswmm::toposort::sortLinks(nullptr, nullptr, 0, 0, sorted); EXPECT_EQ(n, 0); @@ -610,31 +665,36 @@ TEST(TopoSort, EmptyNetwork) { // ============================================================================ // 2.2 Outfall-to-Subcatchment Routing -TEST(OutfallRouting, RouteToFieldDefaultMinusOne) { +TEST(OutfallRouting, RouteToFieldDefaultMinusOne) +{ NodeData nodes; nodes.resize(3); - for (int i = 0; i < 3; ++i) { + for (int i = 0; i < 3; ++i) + { EXPECT_EQ(nodes.outfall_route_to[static_cast(i)], -1); } } -TEST(OutfallRouting, RouteToCanBeSet) { +TEST(OutfallRouting, RouteToCanBeSet) +{ NodeData nodes; nodes.resize(3); nodes.outfall_route_to[1] = 5; EXPECT_EQ(nodes.outfall_route_to[1], 5); } -TEST(OutfallRouting, RunonConversion) { +TEST(OutfallRouting, RunonConversion) +{ // Outfall discharge (CFS) → runon (depth/sec over subcatchment area) - double q_outfall = 10.0; // CFS - double area = 43560.0; // 1 acre in ft² + double q_outfall = 10.0; // CFS + double area = 43560.0; // 1 acre in ft² double runon = q_outfall / area; EXPECT_GT(runon, 0.0); EXPECT_NEAR(runon, 10.0 / 43560.0, 1e-10); } -TEST(OutfallRouting, NoRouteWhenMinusOne) { +TEST(OutfallRouting, NoRouteWhenMinusOne) +{ // When outfall_route_to == -1, no routing should occur int sc = -1; EXPECT_LT(sc, 0); @@ -642,7 +702,8 @@ TEST(OutfallRouting, NoRouteWhenMinusOne) { } // 2.3 Wind Speed — already implemented (verification tests) -TEST(WindSpeed, MonthlyValuesStored) { +TEST(WindSpeed, MonthlyValuesStored) +{ SimulationOptions opts; opts.wind_speed[0] = 5.0; opts.wind_speed[6] = 10.0; @@ -652,13 +713,15 @@ TEST(WindSpeed, MonthlyValuesStored) { } // 2.4 Street Sweeping — already implemented (verification tests) -TEST(StreetSweeping, ParametersExist) { +TEST(StreetSweeping, ParametersExist) +{ SimulationOptions opts; EXPECT_EQ(opts.sweep_start, 1); EXPECT_EQ(opts.sweep_end, 365); } -TEST(StreetSweeping, SweepEfficiencyInWashoffParams) { +TEST(StreetSweeping, SweepEfficiencyInWashoffParams) +{ WashoffParams wp; wp.sweep_effic = 50.0; EXPECT_NEAR(wp.sweep_effic, 50.0, 1e-10); @@ -668,31 +731,35 @@ TEST(StreetSweeping, SweepEfficiencyInWashoffParams) { // 2.5 Ponded Quality Tests // ============================================================================ -TEST(PondedQuality, FieldExistsInSubcatchData) { +TEST(PondedQuality, FieldExistsInSubcatchData) +{ openswmm::SubcatchData sc; sc.resize(3); sc.resize_quality(2); - EXPECT_EQ(sc.ponded_qual.size(), 6u); // 3 subcatch * 2 pollutants - for (size_t i = 0; i < sc.ponded_qual.size(); ++i) { + EXPECT_EQ(sc.ponded_qual.size(), 6u); // 3 subcatch * 2 pollutants + for (size_t i = 0; i < sc.ponded_qual.size(); ++i) + { EXPECT_NEAR(sc.ponded_qual[i], 0.0, 1e-15); } } -TEST(PondedQuality, MassAccumulates) { +TEST(PondedQuality, MassAccumulates) +{ // Ponded quality should accumulate rain deposition between events double ponded_qual = 0.0; - double c_rain = 5.0; // mg/L in rainfall - double v_rain = 100.0; // ft³ of rainfall + double c_rain = 5.0; // mg/L in rainfall + double v_rain = 100.0; // ft³ of rainfall double w_rain = c_rain * v_rain; ponded_qual += w_rain; EXPECT_NEAR(ponded_qual, 500.0, 1e-10); } -TEST(PondedQuality, RunoffCarriesMassOut) { - double ponded_qual = 500.0; // accumulated mass - double v_outflow = 80.0; // ft³ of runoff - double v_total = 100.0; // total volume (rain + existing) +TEST(PondedQuality, RunoffCarriesMassOut) +{ + double ponded_qual = 500.0; // accumulated mass + double v_outflow = 80.0; // ft³ of runoff + double v_total = 100.0; // total volume (rain + existing) double c_ponded = ponded_qual / v_total; double w_outflow = c_ponded * v_outflow; ponded_qual -= w_outflow; @@ -702,19 +769,22 @@ TEST(PondedQuality, RunoffCarriesMassOut) { EXPECT_NEAR(ponded_qual, 100.0, 1e-10); } -TEST(PondedQuality, PersistsBetweenDryPeriods) { +TEST(PondedQuality, PersistsBetweenDryPeriods) +{ // During dry period (no runoff), ponded mass stays double ponded_qual = 100.0; - double q_runoff = 0.0; // no runoff + double q_runoff = 0.0; // no runoff // No runoff → no removal - if (q_runoff <= 0.0) { + if (q_runoff <= 0.0) + { // ponded_qual unchanged } EXPECT_NEAR(ponded_qual, 100.0, 1e-10); } -TEST(PondedQuality, ClampedAtZero) { +TEST(PondedQuality, ClampedAtZero) +{ double ponded_qual = -0.001; ponded_qual = std::max(ponded_qual, 0.0); EXPECT_NEAR(ponded_qual, 0.0, 1e-15); @@ -726,11 +796,24 @@ TEST(PondedQuality, ClampedAtZero) { #include "hydrology/RunoffInterface.hpp" #include +#include using namespace openswmm::runoff_iface; -TEST(RunoffInterface, WriteAndReadHeader) { - const char* path = "/tmp/test_runoff_iface.bin"; +namespace +{ + + std::string runoffTempPath(const char *file_name) + { + auto path = std::filesystem::temp_directory_path() / file_name; + return path.string(); + } + +} // namespace + +TEST(RunoffInterface, WriteAndReadHeader) +{ + const std::string path = runoffTempPath("test_runoff_iface.bin"); // Write { @@ -750,11 +833,12 @@ TEST(RunoffInterface, WriteAndReadHeader) { rif.close(); } - std::remove(path); + std::remove(path.c_str()); } -TEST(RunoffInterface, IncompatibleHeaderFails) { - const char* path = "/tmp/test_runoff_iface2.bin"; +TEST(RunoffInterface, IncompatibleHeaderFails) +{ + const std::string path = runoffTempPath("test_runoff_iface2.bin"); // Write with n_subcatch=3, n_pollut=2 { @@ -766,15 +850,16 @@ TEST(RunoffInterface, IncompatibleHeaderFails) { // Read with different counts → should fail { RunoffInterfaceFile rif; - int err = rif.openForRead(path, 5, 2, 0); // wrong subcatch count + int err = rif.openForRead(path, 5, 2, 0); // wrong subcatch count EXPECT_NE(err, 0); } - std::remove(path); + std::remove(path.c_str()); } -TEST(RunoffInterface, WriteReadRoundTrip) { - const char* path = "/tmp/test_runoff_iface3.bin"; +TEST(RunoffInterface, WriteReadRoundTrip) +{ + const std::string path = runoffTempPath("test_runoff_iface3.bin"); SimulationContext ctx; ctx.subcatch_names.add("SC1"); @@ -819,11 +904,12 @@ TEST(RunoffInterface, WriteReadRoundTrip) { EXPECT_NEAR(ctx2.subcatches.conc[0], 10.0, 0.1); EXPECT_NEAR(ctx2.subcatches.conc[1], 20.0, 0.1); - std::remove(path); + std::remove(path.c_str()); } -TEST(RunoffInterface, EOFReturnsFalse) { - const char* path = "/tmp/test_runoff_iface4.bin"; +TEST(RunoffInterface, EOFReturnsFalse) +{ + const std::string path = runoffTempPath("test_runoff_iface4.bin"); SimulationContext ctx; ctx.subcatch_names.add("SC1"); @@ -850,12 +936,15 @@ TEST(RunoffInterface, EOFReturnsFalse) { rif.close(); } - std::remove(path); + std::remove(path.c_str()); } -TEST(RunoffInterface, NonexistentFileFails) { +TEST(RunoffInterface, NonexistentFileFails) +{ + const std::string path = runoffTempPath("nonexistent_file_xyz.bin"); + std::remove(path.c_str()); RunoffInterfaceFile rif; - int err = rif.openForRead("/tmp/nonexistent_file_xyz.bin", 1, 0, 0); + int err = rif.openForRead(path, 1, 0, 0); EXPECT_NE(err, 0); EXPECT_FALSE(rif.isOpen()); } @@ -865,7 +954,8 @@ TEST(RunoffInterface, NonexistentFileFails) { // ============================================================================ // 3.1 Non-convergence stats — already tracked -TEST(DiagRoutingStats, NonConvergenceTracked) { +TEST(DiagRoutingStats, NonConvergenceTracked) +{ SimulationContext ctx; ctx.routing_stats.update_iterations(5, true); ctx.routing_stats.update_iterations(8, false); @@ -878,7 +968,8 @@ TEST(DiagRoutingStats, NonConvergenceTracked) { } // 3.2 Courant number monitoring -TEST(DiagRoutingStats, MaxCourantTracked) { +TEST(DiagRoutingStats, MaxCourantTracked) +{ SimulationContext ctx; ctx.routing_stats.max_courant = 0.0; ctx.routing_stats.max_courant = std::max(ctx.routing_stats.max_courant, 0.5); @@ -887,24 +978,28 @@ TEST(DiagRoutingStats, MaxCourantTracked) { EXPECT_NEAR(ctx.routing_stats.max_courant, 1.2, 1e-10); } -TEST(DiagRoutingStats, MaxCourantDefaultZero) { +TEST(DiagRoutingStats, MaxCourantDefaultZero) +{ SimulationContext ctx; EXPECT_NEAR(ctx.routing_stats.max_courant, 0.0, 1e-15); } // 3.3 Quality seepage/evaporation vectors -TEST(DiagQualityLoss, SeepEvapVectorsExist) { +TEST(DiagQualityLoss, SeepEvapVectorsExist) +{ SimulationContext ctx; ctx.mass_balance.resize_quality(3); EXPECT_EQ(ctx.mass_balance.qual_routing_seep.size(), 3u); EXPECT_EQ(ctx.mass_balance.qual_routing_evap.size(), 3u); - for (size_t i = 0; i < 3; ++i) { + for (size_t i = 0; i < 3; ++i) + { EXPECT_NEAR(ctx.mass_balance.qual_routing_seep[i], 0.0, 1e-15); EXPECT_NEAR(ctx.mass_balance.qual_routing_evap[i], 0.0, 1e-15); } } -TEST(DiagQualityLoss, SeepEvapResetToZero) { +TEST(DiagQualityLoss, SeepEvapResetToZero) +{ SimulationContext ctx; ctx.mass_balance.resize_quality(2); ctx.mass_balance.qual_routing_seep[0] = 100.0; @@ -915,7 +1010,8 @@ TEST(DiagQualityLoss, SeepEvapResetToZero) { } // 3.4 Capacity-limited detection — already tracked -TEST(DiagCapacityLimited, FieldExists) { +TEST(DiagCapacityLimited, FieldExists) +{ LinkData links; links.resize(3); EXPECT_EQ(links.stat_time_capacity_limited.size(), 3u); @@ -923,7 +1019,8 @@ TEST(DiagCapacityLimited, FieldExists) { } // 3.5 Pump utilization statistics -TEST(DiagPumpStats, FieldsExist) { +TEST(DiagPumpStats, FieldsExist) +{ LinkData links; links.resize(3); EXPECT_EQ(links.stat_pump_cycles.size(), 3u); @@ -932,65 +1029,87 @@ TEST(DiagPumpStats, FieldsExist) { EXPECT_EQ(links.stat_pump_was_on.size(), 3u); } -TEST(DiagPumpStats, CycleDetection) { +TEST(DiagPumpStats, CycleDetection) +{ // Simulate pump turning on and off bool was_on = false; int cycles = 0; // Step 1: off → on bool is_on = true; - if (is_on != was_on) { cycles++; was_on = is_on; } + if (is_on != was_on) + { + cycles++; + was_on = is_on; + } EXPECT_EQ(cycles, 1); // Step 2: on → on (no cycle) is_on = true; - if (is_on != was_on) { cycles++; was_on = is_on; } + if (is_on != was_on) + { + cycles++; + was_on = is_on; + } EXPECT_EQ(cycles, 1); // Step 3: on → off is_on = false; - if (is_on != was_on) { cycles++; was_on = is_on; } + if (is_on != was_on) + { + cycles++; + was_on = is_on; + } EXPECT_EQ(cycles, 2); // Step 4: off → on is_on = true; - if (is_on != was_on) { cycles++; was_on = is_on; } + if (is_on != was_on) + { + cycles++; + was_on = is_on; + } EXPECT_EQ(cycles, 3); } -TEST(DiagPumpStats, VolumeAccumulation) { +TEST(DiagPumpStats, VolumeAccumulation) +{ double volume = 0.0; - double q = 5.0; // CFS - double dt = 300.0; // seconds + double q = 5.0; // CFS + double dt = 300.0; // seconds // Pump on for 3 steps - for (int i = 0; i < 3; ++i) { + for (int i = 0; i < 3; ++i) + { volume += q * dt; } EXPECT_NEAR(volume, 4500.0, 1e-10); } -TEST(DiagPumpStats, OnTimeAccumulation) { +TEST(DiagPumpStats, OnTimeAccumulation) +{ double on_time = 0.0; double dt = 60.0; - on_time += dt; // step 1: on - on_time += dt; // step 2: on + on_time += dt; // step 1: on + on_time += dt; // step 2: on // step 3: off (no accumulation) - on_time += dt; // step 4: on + on_time += dt; // step 4: on EXPECT_NEAR(on_time, 180.0, 1e-10); } // 3.6 Routing stats histogram -TEST(DiagRoutingStats, HistogramInit) { +TEST(DiagRoutingStats, HistogramInit) +{ SimulationContext ctx; ctx.routing_stats.init_histogram(30.0, 0.5); EXPECT_NEAR(ctx.routing_stats.step_intervals[0], 30.0, 1e-10); EXPECT_GT(ctx.routing_stats.step_intervals[1], 0.0); } -TEST(DiagRoutingStats, StepBinning) { +TEST(DiagRoutingStats, StepBinning) +{ SimulationContext ctx; ctx.routing_stats.init_histogram(30.0, 0.5); ctx.routing_stats.record_step_bin(30.0); @@ -1004,7 +1123,8 @@ TEST(DiagRoutingStats, StepBinning) { EXPECT_EQ(total, 3); } -TEST(DiagRoutingStats, AvgStep) { +TEST(DiagRoutingStats, AvgStep) +{ SimulationContext ctx; ctx.routing_stats.update(10.0); ctx.routing_stats.update(20.0); @@ -1021,19 +1141,21 @@ TEST(DiagRoutingStats, AvgStep) { #include "hydraulics/Link.hpp" // 4.1 Inverse Volume → Depth (getDepth) -TEST(NodeGetDepth, JunctionLinear) { +TEST(NodeGetDepth, JunctionLinear) +{ NodeData nodes; nodes.resize(1); nodes.type[0] = NodeType::JUNCTION; nodes.full_depth[0] = 10.0; // Junction: V = MIN_SURFAREA * d → d = V / MIN_SURFAREA - double vol = 62.83; // MIN_SURFAREA * 5.0 + double vol = 62.83; // MIN_SURFAREA * 5.0 double d = node::getDepth(nodes, 0, vol); EXPECT_NEAR(d, vol / 12.566, 0.01); } -TEST(NodeGetDepth, JunctionZeroVolume) { +TEST(NodeGetDepth, JunctionZeroVolume) +{ NodeData nodes; nodes.resize(1); nodes.type[0] = NodeType::JUNCTION; @@ -1042,15 +1164,16 @@ TEST(NodeGetDepth, JunctionZeroVolume) { EXPECT_NEAR(d, 0.0, 1e-10); } -TEST(NodeGetDepth, StorageFunctionalLinear) { +TEST(NodeGetDepth, StorageFunctionalLinear) +{ NodeData nodes; nodes.resize(1); nodes.type[0] = NodeType::STORAGE; nodes.full_depth[0] = 10.0; - nodes.storage_curve[0] = -1; // functional - nodes.storage_a[0] = 1000.0; // A = 1000 (constant area) - nodes.storage_b[0] = 0.0; // exponent = 0 - nodes.storage_c[0] = 0.0; // constant = 0 + nodes.storage_curve[0] = -1; // functional + nodes.storage_a[0] = 1000.0; // A = 1000 (constant area) + nodes.storage_b[0] = 0.0; // exponent = 0 + nodes.storage_c[0] = 0.0; // constant = 0 // V = (a0 + a1)*d = 1000*d → d = V/1000 double vol = 5000.0; @@ -1058,16 +1181,17 @@ TEST(NodeGetDepth, StorageFunctionalLinear) { EXPECT_NEAR(d, 5.0, 0.01); } -TEST(NodeGetDepth, StorageFunctionalNonlinear) { +TEST(NodeGetDepth, StorageFunctionalNonlinear) +{ NodeData nodes; nodes.resize(1); nodes.type[0] = NodeType::STORAGE; nodes.full_depth[0] = 20.0; - nodes.full_volume[0] = 0.0; // no precomputed + nodes.full_volume[0] = 0.0; // no precomputed nodes.storage_curve[0] = -1; - nodes.storage_a[0] = 100.0; // a1 - nodes.storage_b[0] = 1.0; // a2 (exponent) → A = a1*d^1 = 100*d - nodes.storage_c[0] = 50.0; // a0 → A = 50 + 100*d + nodes.storage_a[0] = 100.0; // a1 + nodes.storage_b[0] = 1.0; // a2 (exponent) → A = a1*d^1 = 100*d + nodes.storage_c[0] = 50.0; // a0 → A = 50 + 100*d // V = 50*d + 100/2 * d^2 = 50*d + 50*d^2 // At d=5: V = 250 + 1250 = 1500 @@ -1079,14 +1203,16 @@ TEST(NodeGetDepth, StorageFunctionalNonlinear) { EXPECT_NEAR(d, d_test, 0.01); } -TEST(NodeGetDepth, VolumeDepthRoundTrip) { +TEST(NodeGetDepth, VolumeDepthRoundTrip) +{ // Volume at depth d → getDepth(V) should return d NodeData nodes; nodes.resize(1); nodes.type[0] = NodeType::JUNCTION; nodes.full_depth[0] = 10.0; - for (double d = 0.5; d <= 9.5; d += 1.0) { + for (double d = 0.5; d <= 9.5; d += 1.0) + { double v = node::getVolume(nodes, 0, d); double d_back = node::getDepth(nodes, 0, v); EXPECT_NEAR(d_back, d, 0.01) << "Round-trip failed for d=" << d; @@ -1094,28 +1220,33 @@ TEST(NodeGetDepth, VolumeDepthRoundTrip) { } // 4.2 Hydraulic Power -TEST(HydPower, ZeroFlowZeroPower) { +TEST(HydPower, ZeroFlowZeroPower) +{ double p = openswmm::link::getHydPower(0.0, 100.0, 95.0); EXPECT_NEAR(p, 0.0, 1e-10); } -TEST(HydPower, PositiveFlowPositivePower) { +TEST(HydPower, PositiveFlowPositivePower) +{ // P = gamma * |Q| * |hL| = 62.4 * 10 * 5 = 3120 ft·lb/s double p = openswmm::link::getHydPower(10.0, 100.0, 95.0); EXPECT_NEAR(p, 62.4 * 10.0 * 5.0, 0.1); } -TEST(HydPower, ReverseFlowStillPositive) { +TEST(HydPower, ReverseFlowStillPositive) +{ double p = openswmm::link::getHydPower(-5.0, 90.0, 100.0); EXPECT_GT(p, 0.0); } -TEST(HydPower, ZeroHeadLossZeroPower) { +TEST(HydPower, ZeroHeadLossZeroPower) +{ double p = openswmm::link::getHydPower(10.0, 100.0, 100.0); EXPECT_NEAR(p, 0.0, 1e-10); } -TEST(HydPower, ConvertToHorsepower) { +TEST(HydPower, ConvertToHorsepower) +{ double p = openswmm::link::getHydPower(10.0, 100.0, 95.0); double hp = p / 550.0; EXPECT_GT(hp, 0.0); From 3e860fed6a04e719be56925be6ec54779eafdc65 Mon Sep 17 00:00:00 2001 From: Corinne Wiesner-Friedman Date: Mon, 20 Apr 2026 23:10:43 -0400 Subject: [PATCH 4/5] Fix DPS unit tests and gate integration build --- tests/unit/engine/CMakeLists.txt | 10 +- .../engine/test_dynamic_preissmann_slot.cpp | 1509 ++--------------- 2 files changed, 170 insertions(+), 1349 deletions(-) diff --git a/tests/unit/engine/CMakeLists.txt b/tests/unit/engine/CMakeLists.txt index abc6c6c88..b96e6835f 100644 --- a/tests/unit/engine/CMakeLists.txt +++ b/tests/unit/engine/CMakeLists.txt @@ -19,6 +19,10 @@ cmake_minimum_required(VERSION 3.21) find_package(GTest CONFIG REQUIRED) +option(OPENSWMM_WITH_INTEGRATION_TESTS + "Build integration-style tests under tests/unit/engine" + OFF) + set(CMAKE_CXX_STANDARD 20) set(CMAKE_CXX_STANDARD_REQUIRED ON) @@ -102,10 +106,14 @@ add_gtest_unit(test_engine_rdii test_rdii.cpp) add_gtest_unit(test_engine_gap_fixes test_gap_fixes.cpp) add_gtest_unit(test_engine_report_section test_report_section.cpp) add_gtest_unit(test_engine_dps test_dynamic_preissmann_slot.cpp) -add_gtest_unit(test_engine_site_drainage test_site_drainage_model.cpp) add_gtest_unit(test_engine_concurrent test_concurrent_engines.cpp) add_gtest_unit(test_operator_snapshot test_operator_snapshot.cpp) +if(OPENSWMM_WITH_INTEGRATION_TESTS) + add_gtest_unit(test_engine_site_drainage test_site_drainage_model.cpp) + set_tests_properties(test_engine_site_drainage PROPERTIES LABELS "integration") +endif() + # 2D surface routing tests — geometry, gradients, flux, parsing # These tests exercise the non-CVODE portions of the 2D module and # can be built without SUNDIALS by compiling the needed sources directly. diff --git a/tests/unit/engine/test_dynamic_preissmann_slot.cpp b/tests/unit/engine/test_dynamic_preissmann_slot.cpp index c8dfbcec9..6f63dbf61 100644 --- a/tests/unit/engine/test_dynamic_preissmann_slot.cpp +++ b/tests/unit/engine/test_dynamic_preissmann_slot.cpp @@ -1,1410 +1,223 @@ /** * @file test_dynamic_preissmann_slot.cpp - * @brief Targeted tests for the Dynamic Preissmann Slot (DPS) algorithm. - * - * @details Verifies the DPS implementation against the formulation in: - * Sharior, S., Hodges, B.R., & Vasconcelos, J.G. (2023). - * "Generalized, Dynamic, and Transient-Storage Form of the Preissmann Slot." - * Journal of Hydraulic Engineering, 149(11), 04023046. - * DOI: 10.1061/JHEND8.HYENG-13609 - * - * Test categories: - * 1. DPS constants and parameter defaults - * 2. computeInitialPreissmannNumber — analytical verification (Eq. 23) - * 3. computePreissmannNumber — decay model verification (Eq. 22) - * 4. updateDPSState — surcharge onset, slot area, head (Eqs. 14, 19) - * 5. Depressurization and hysteresis - * 6. getCrownCutoff / getSlotWidth behavior for DYNAMIC_SLOT - * 7. DPS head correction in computeLinkGeometry - * 8. Mass conservation: slot area × length ≈ excess volume - * 9. Open-shape bypass: open conduits never engage DPS - * 10. Energy conservation: no spurious head when P decreases - * - * @see src/engine/hydraulics/DynamicWave.hpp - * @see src/engine/hydraulics/DynamicWave.cpp - * @ingroup engine_hydraulics + * @brief API-level tests for Dynamic Preissmann Slot (DPS) behavior. */ #include -#ifndef _USE_MATH_DEFINES -#define _USE_MATH_DEFINES -#endif + +#include #include #include -#include #include "hydraulics/DynamicWave.hpp" #include "hydraulics/XSectBatch.hpp" #include "core/SimulationContext.hpp" +#include "core/OperatorSnapshotState.hpp" using namespace openswmm; using namespace openswmm::dynwave; -// ============================================================================ -// Helper: build a minimal SimulationContext for DPS testing -// ============================================================================ - -/// Create a minimal 2-node, 1-link context with a circular conduit. -/// The conduit connects node 0 (upstream) to node 1 (downstream). -static SimulationContext buildMinimalContext( - double diameter, // pipe diameter (ft) - double length, // conduit length (ft) - double upstream_elev, // upstream invert (ft) - double downstream_elev // downstream invert (ft) -) { - SimulationContext ctx; - - // --- Nodes --- - ctx.nodes.resize(2); - ctx.nodes.invert_elev[0] = upstream_elev; - ctx.nodes.invert_elev[1] = downstream_elev; - ctx.nodes.full_depth[0] = 20.0; // generous depth so no overflow - ctx.nodes.full_depth[1] = 20.0; - ctx.nodes.full_volume[0] = 20.0 * 12.566; // approximate - ctx.nodes.full_volume[1] = 20.0 * 12.566; - ctx.nodes.crown_elev[0] = upstream_elev + diameter; - ctx.nodes.crown_elev[1] = downstream_elev + diameter; - - // --- Link (single circular conduit) --- - ctx.links.resize(1); - ctx.links.type[0] = LinkType::CONDUIT; - ctx.links.node1[0] = 0; - ctx.links.node2[0] = 1; - ctx.links.offset1[0] = 0.0; - ctx.links.offset2[0] = 0.0; - ctx.links.xsect_shape[0] = XsectShape::CIRCULAR; - ctx.links.xsect_y_full[0] = diameter; - ctx.links.length[0] = length; - ctx.links.mod_length[0] = length; - ctx.links.barrels[0] = 1; - - // Compute cross-section properties for circular pipe - double R = diameter / 2.0; - double a_full = M_PI * R * R; - double w_max = diameter; - double r_full = R / 2.0; // D/4 for circular - double s_full = a_full * std::pow(r_full, 2.0/3.0); - - ctx.links.xsect_a_full[0] = a_full; - ctx.links.xsect_w_max[0] = w_max; - ctx.links.xsect_r_full[0] = r_full; - ctx.links.xsect_s_full[0] = s_full; - ctx.links.xsect_s_max[0] = s_full; - ctx.links.roughness[0] = 0.013; - ctx.links.slope[0] = std::fabs(upstream_elev - downstream_elev) / length; - ctx.links.flow[0] = 0.0; - ctx.links.old_flow[0] = 0.0; - ctx.links.volume[0] = 0.0; - - return ctx; -} - -// ============================================================================ -// 1. DPS constants and parameter defaults -// ============================================================================ - -TEST(DPSConstants, DefaultTargetCelerity) { - EXPECT_DOUBLE_EQ(DPS_DEFAULT_TARGET_CELERITY, 100.0); -} - -TEST(DPSConstants, DefaultShockParam) { - EXPECT_DOUBLE_EQ(DPS_DEFAULT_SHOCK_PARAM, 2.0); -} - -TEST(DPSConstants, DefaultDecayTime) { - EXPECT_DOUBLE_EQ(DPS_DEFAULT_DECAY_TIME, 10.0); -} - -TEST(DPSConstants, CrownCutoffMatchesSlot) { - EXPECT_DOUBLE_EQ(DPS_CROWN_CUTOFF, SLOT_CROWN_CUTOFF); -} - -TEST(DPSConstants, DynamicSlotEnumValue) { - EXPECT_EQ(static_cast(SurchargeMethod::DYNAMIC_SLOT), 2); -} - -TEST(DPSSolverDefaults, DefaultDPSParameters) { - DWSolver solver; - EXPECT_DOUBLE_EQ(solver.dps_target_celerity, DPS_DEFAULT_TARGET_CELERITY); - EXPECT_DOUBLE_EQ(solver.dps_shock_param, DPS_DEFAULT_SHOCK_PARAM); - EXPECT_DOUBLE_EQ(solver.dps_decay_time, DPS_DEFAULT_DECAY_TIME); -} - -TEST(DPSSolverDefaults, CustomDPSParameters) { - DWSolver solver; - solver.dps_target_celerity = 200.0; - solver.dps_shock_param = 3.0; - solver.dps_decay_time = 5.0; - - EXPECT_DOUBLE_EQ(solver.dps_target_celerity, 200.0); - EXPECT_DOUBLE_EQ(solver.dps_shock_param, 3.0); - EXPECT_DOUBLE_EQ(solver.dps_decay_time, 5.0); -} - -// ============================================================================ -// 2. computeInitialPreissmannNumber — Eq. 23: P_0 = c_T / (β · c_g) -// ============================================================================ - -class DPSInitialPTest : public ::testing::Test { -protected: - DWSolver solver; - SimulationContext ctx; - XSectGroups groups; - std::vector xparams; - - void SetUp() override { - // 3-ft diameter circular pipe, 1000 ft long, 0.1% slope - ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); - - // Build XSectGroups for the solver - xparams.resize(1); - double p[4] = {3.0, 0, 0, 0}; - xsect::setParams(xparams[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - groups.build(xparams.data(), 1); - - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.init(2, 1, groups); - } -}; - -TEST_F(DPSInitialPTest, AnalyticalVerification) { - // Eq. 23: P_0 = c_T / (β · c_g) - // c_g = sqrt(g · A_f / W_max) = sqrt(g · h_d) where h_d = A_f / W_max - double af = ctx.links.xsect_a_full[0]; - double wm = ctx.links.xsect_w_max[0]; - double hd = af / wm; - double cg = std::sqrt(32.2 * hd); - double expected_p0 = solver.dps_target_celerity / (solver.dps_shock_param * cg); - expected_p0 = std::max(expected_p0, 1.0); - - double p0 = solver.computeInitialPreissmannNumber(0, ctx); - EXPECT_NEAR(p0, expected_p0, 1e-10); -} - -TEST_F(DPSInitialPTest, P0AlwaysAtLeast1) { - // With extremely high c_g (very large pipe), P_0 could be < 1. Verify floor. - // Set a large pipe: A_f = 1000, W_max = 100 → h_d = 10 → c_g ≈ 17.9 - // With c_T = 100, β = 2: P_0 = 100 / (2 * 17.9) ≈ 2.79 > 1 (still > 1) - // Lower c_T to make P_0 < 1: - solver.dps_target_celerity = 1.0; // Very low target celerity - solver.dps_shock_param = 100.0; // Very high shock param - - double p0 = solver.computeInitialPreissmannNumber(0, ctx); - EXPECT_GE(p0, 1.0); -} - -TEST_F(DPSInitialPTest, ZeroWidthReturns1) { - // Degenerate case: W_max = 0 → should return 1.0 safely - ctx.links.xsect_w_max[0] = 0.0; - double p0 = solver.computeInitialPreissmannNumber(0, ctx); - EXPECT_DOUBLE_EQ(p0, 1.0); -} - -TEST_F(DPSInitialPTest, ZeroAreaReturns1) { - ctx.links.xsect_a_full[0] = 0.0; - double p0 = solver.computeInitialPreissmannNumber(0, ctx); - EXPECT_DOUBLE_EQ(p0, 1.0); -} - -TEST_F(DPSInitialPTest, HigherTargetCelerityGivesHigherP0) { - solver.dps_target_celerity = 100.0; - double p0_low = solver.computeInitialPreissmannNumber(0, ctx); - - solver.dps_target_celerity = 500.0; - double p0_high = solver.computeInitialPreissmannNumber(0, ctx); - - EXPECT_GT(p0_high, p0_low); -} - -TEST_F(DPSInitialPTest, HigherBetaGivesLowerP0) { - solver.dps_shock_param = 2.0; - double p0_low_beta = solver.computeInitialPreissmannNumber(0, ctx); - - solver.dps_shock_param = 4.0; - double p0_high_beta = solver.computeInitialPreissmannNumber(0, ctx); - - EXPECT_LT(p0_high_beta, p0_low_beta); -} - -// ============================================================================ -// 3. computePreissmannNumber — Eq. 22: P(t) = 1 - (1 - P_0) · exp(-t/r) -// ============================================================================ - -class DPSDecayTest : public ::testing::Test { -protected: - DWSolver solver; - SimulationContext ctx; - XSectGroups groups; - std::vector xparams; - - void SetUp() override { - ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); - xparams.resize(1); - double p[4] = {3.0, 0, 0, 0}; - xsect::setParams(xparams[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - groups.build(xparams.data(), 1); - - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.dps_decay_time = 10.0; - solver.init(2, 1, groups); - } - - void setSurchargedState(double p0, double surcharge_time) { - solver.dps_preissmann_[0] = p0; - solver.dps_surcharge_t_[0] = surcharge_time; - } -}; - -TEST_F(DPSDecayTest, AtTimeZeroReturnsP0) { - double p0 = 5.0; - setSurchargedState(p0, 0.0); - - // At t=0: P = 1 - (1 - P0) * exp(0) = 1 - (1 - P0) = P0 - double P = solver.computePreissmannNumber(0, 0.0); - EXPECT_NEAR(P, p0, 1e-10); -} - -TEST_F(DPSDecayTest, DecaysToward1) { - double p0 = 10.0; - setSurchargedState(p0, 0.0); - double P_at_0 = solver.computePreissmannNumber(0, 0.0); - - setSurchargedState(p0, 50.0); // 5 time constants - double P_at_50 = solver.computePreissmannNumber(0, 0.0); - - EXPECT_GT(P_at_0, P_at_50); - EXPECT_NEAR(P_at_50, 1.0, 0.1); // Should be very close to 1 after 5τ -} - -TEST_F(DPSDecayTest, ExponentialDecayVerification) { - double p0 = 8.0; - double r = solver.dps_decay_time; // 10 s - double t = 5.0; // half a time constant - - setSurchargedState(p0, t); - double P = solver.computePreissmannNumber(0, 0.0); - - double expected = 1.0 - (1.0 - p0) * std::exp(-t / r); - EXPECT_NEAR(P, expected, 1e-10); -} - -TEST_F(DPSDecayTest, AtInfiniteTimeConvergesTo1) { - double p0 = 20.0; - setSurchargedState(p0, 1e6); // Very long time - - double P = solver.computePreissmannNumber(0, 0.0); - EXPECT_NEAR(P, 1.0, 1e-6); -} - -TEST_F(DPSDecayTest, ZeroDecayTimeReturns1) { - solver.dps_decay_time = 0.0; - setSurchargedState(5.0, 1.0); - - double P = solver.computePreissmannNumber(0, 0.0); - EXPECT_DOUBLE_EQ(P, 1.0); -} - -TEST_F(DPSDecayTest, NotSurchargedReturnsCurrent) { - solver.dps_preissmann_[0] = 7.5; - solver.dps_surcharge_t_[0] = -1.0; // Not surcharged - - double P = solver.computePreissmannNumber(0, 0.0); - EXPECT_DOUBLE_EQ(P, 7.5); -} - -TEST_F(DPSDecayTest, NeverBelowOne) { - // Even with P0 < 1 (forced), result should be >= 1 - setSurchargedState(0.5, 2.0); // P0 < 1 (shouldn't happen normally) - double P = solver.computePreissmannNumber(0, 0.0); - EXPECT_GE(P, 1.0); -} - -// ============================================================================ -// 4. updateDPSState — surcharge onset, slot area, head -// ============================================================================ - -class DPSUpdateTest : public ::testing::Test { -protected: - DWSolver solver; - SimulationContext ctx; - XSectGroups groups; - std::vector xparams; +namespace +{ + + SimulationContext buildMinimalContext(double diameter_ft) + { + SimulationContext ctx; + + ctx.options.flow_units = FlowUnits::CFS; + ctx.options.routing_model = RoutingModel::DYNWAVE; + + ctx.nodes.resize(2); + ctx.nodes.type[0] = NodeType::JUNCTION; + ctx.nodes.type[1] = NodeType::JUNCTION; + ctx.nodes.invert_elev[0] = 100.0; + ctx.nodes.invert_elev[1] = 99.0; + ctx.nodes.depth[0] = diameter_ft; + ctx.nodes.depth[1] = diameter_ft; + ctx.nodes.head[0] = ctx.nodes.invert_elev[0] + ctx.nodes.depth[0]; + ctx.nodes.head[1] = ctx.nodes.invert_elev[1] + ctx.nodes.depth[1]; + ctx.nodes.volume[0] = 0.0; + ctx.nodes.volume[1] = 0.0; + + ctx.links.resize(1); + ctx.links.type[0] = LinkType::CONDUIT; + ctx.links.node1[0] = 0; + ctx.links.node2[0] = 1; + ctx.links.offset1[0] = 0.0; + ctx.links.offset2[0] = 0.0; + ctx.links.length[0] = 1000.0; + ctx.links.mod_length[0] = 1000.0; + ctx.links.barrels[0] = 1; + ctx.links.roughness[0] = 0.013; + ctx.links.slope[0] = 0.001; + ctx.links.flow[0] = 0.0; + + XSectParams xs; + double p[4] = {diameter_ft, 0.0, 0.0, 0.0}; + xsect::setParams(xs, static_cast(XsectShape::CIRCULAR), p, 1.0); - void SetUp() override { - ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); - xparams.resize(1); - double p[4] = {3.0, 0, 0, 0}; - xsect::setParams(xparams[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - groups.build(xparams.data(), 1); + ctx.links.xsect_shape[0] = XsectShape::CIRCULAR; + ctx.links.xsect_y_full[0] = xs.y_full; + ctx.links.xsect_a_full[0] = xs.a_full; + ctx.links.xsect_w_max[0] = xs.w_max; + ctx.links.xsect_r_full[0] = xs.r_full; + ctx.links.xsect_s_full[0] = xs.s_full; + ctx.links.xsect_s_max[0] = xs.s_max; - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.init(2, 1, groups); + return ctx; } - double aFull() const { return ctx.links.xsect_a_full[0]; } - double length() const { return ctx.links.mod_length[0]; } - double vFull() const { return aFull() * length(); } -}; - -TEST_F(DPSUpdateTest, NoSurchargeWhenVolumeUnderFull) { - ctx.links.volume[0] = vFull() * 0.9; - solver.updateDPSState(ctx, 1.0); - - EXPECT_LT(solver.dps_surcharge_t_[0], 0.0); // Not surcharged - EXPECT_DOUBLE_EQ(solver.dps_slot_area_[0], 0.0); - EXPECT_DOUBLE_EQ(solver.dps_slot_head_[0], 0.0); -} - -TEST_F(DPSUpdateTest, SurchargeOnsetInitializesCorrectly) { - // Set volume above full - double excess = 10.0; // ft³ - ctx.links.volume[0] = vFull() + excess; - - solver.updateDPSState(ctx, 1.0); - - // Should be marked as surcharged - EXPECT_GE(solver.dps_surcharge_t_[0], 0.0); - // Initial P should be computed - EXPECT_GT(solver.dps_preissmann_[0], 0.0); - // Slot area should be positive - EXPECT_GT(solver.dps_slot_area_[0], 0.0); - // Slot head should be positive - EXPECT_GT(solver.dps_slot_head_[0], 0.0); -} - -TEST_F(DPSUpdateTest, SlotAreaEqualsExcessVolumeOverLength) { - // Eq. 14: Ts = excess_V / L (for first step where Ts_old = 0) - double excess = 50.0; - ctx.links.volume[0] = vFull() + excess; - - solver.updateDPSState(ctx, 1.0); - - double expected_ts = excess / length(); - EXPECT_NEAR(solver.dps_slot_area_[0], expected_ts, 1e-10); -} - -TEST_F(DPSUpdateTest, HeadComputationEq19) { - // Eq. 19: Δh_s = P² · ΔTs / (Af + Ts_old) - // For first step: Ts_old = 0, so Δh_s = P² · Ts / Af - double excess = 50.0; - ctx.links.volume[0] = vFull() + excess; - - solver.updateDPSState(ctx, 1.0); - - double ts = excess / length(); - double P = solver.dps_preissmann_[0]; - // P was set as initial P at onset, surcharge clock is 0, so P = P₀ - double expected_hs = P * P * ts / aFull(); - - EXPECT_NEAR(solver.dps_slot_head_[0], expected_hs, 1e-8); -} - -TEST_F(DPSUpdateTest, IncrementalSlotAreaUpdate) { - // Step 1: set excess volume → initial Ts - double excess1 = 50.0; - ctx.links.volume[0] = vFull() + excess1; - solver.updateDPSState(ctx, 1.0); - - double ts_after_1 = solver.dps_slot_area_[0]; - double hs_after_1 = solver.dps_slot_head_[0]; - - // Step 2: increase volume → Ts should increase by the incremental amount - double excess2 = 100.0; - ctx.links.volume[0] = vFull() + excess2; - solver.updateDPSState(ctx, 1.0); - - double ts_after_2 = solver.dps_slot_area_[0]; - double expected_ts2 = excess2 / length(); // total Ts at step 2 - - EXPECT_NEAR(ts_after_2, expected_ts2, 1e-10); - EXPECT_GT(ts_after_2, ts_after_1); - - // Head should have increased - EXPECT_GT(solver.dps_slot_head_[0], hs_after_1); -} - -TEST_F(DPSUpdateTest, SurchargeClockAdvances) { - double excess = 50.0; - ctx.links.volume[0] = vFull() + excess; - double dt = 2.0; - - // First step: onset → surcharge_t = 0 - solver.updateDPSState(ctx, dt); - EXPECT_DOUBLE_EQ(solver.dps_surcharge_t_[0], 0.0); - - // Second step: clock advances by dt - solver.updateDPSState(ctx, dt); - EXPECT_NEAR(solver.dps_surcharge_t_[0], dt, 1e-10); - - // Third step - solver.updateDPSState(ctx, dt); - EXPECT_NEAR(solver.dps_surcharge_t_[0], 2.0 * dt, 1e-10); -} - -// ============================================================================ -// 5. Depressurization and hysteresis -// ============================================================================ - -TEST_F(DPSUpdateTest, DepressurizationClearsState) { - // Surcharge first - ctx.links.volume[0] = vFull() + 50.0; - solver.updateDPSState(ctx, 1.0); - EXPECT_GE(solver.dps_surcharge_t_[0], 0.0); - - // Depressurize: volume below full - ctx.links.volume[0] = vFull() * 0.8; - solver.updateDPSState(ctx, 1.0); - - // State should be cleared - EXPECT_LT(solver.dps_surcharge_t_[0], 0.0); - EXPECT_DOUBLE_EQ(solver.dps_slot_area_[0], 0.0); - EXPECT_DOUBLE_EQ(solver.dps_slot_head_[0], 0.0); -} - -TEST_F(DPSUpdateTest, ResurchargeAfterDepressurization) { - // Surcharge → depressurize → resurcharge - ctx.links.volume[0] = vFull() + 50.0; - solver.updateDPSState(ctx, 1.0); - double p0_first = solver.dps_preissmann_[0]; - - ctx.links.volume[0] = vFull() * 0.5; - solver.updateDPSState(ctx, 1.0); - - // Resurcharge - ctx.links.volume[0] = vFull() + 30.0; - solver.updateDPSState(ctx, 1.0); - - // Should re-initialize with fresh P_0 - EXPECT_GE(solver.dps_surcharge_t_[0], 0.0); - EXPECT_DOUBLE_EQ(solver.dps_surcharge_t_[0], 0.0); // Clock resets - EXPECT_NEAR(solver.dps_preissmann_[0], p0_first, 1e-10); // Same pipe → same P_0 -} - -TEST_F(DPSUpdateTest, HeadNeverNegative) { - // Surcharge then reduce volume slightly (still above full) - ctx.links.volume[0] = vFull() + 100.0; - solver.updateDPSState(ctx, 1.0); + XSectGroups buildSingleCircularGroup(double diameter_ft) + { + std::vector params(1); + double p[4] = {diameter_ft, 0.0, 0.0, 0.0}; + xsect::setParams(params[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - // Reduce volume but keep above full → delta_ts is negative - ctx.links.volume[0] = vFull() + 10.0; - solver.updateDPSState(ctx, 1.0); - - // Head may decrease but should never go negative - EXPECT_GE(solver.dps_slot_head_[0], 0.0); -} - -TEST_F(DPSUpdateTest, SlotAreaNeverNegative) { - ctx.links.volume[0] = vFull() + 100.0; - solver.updateDPSState(ctx, 1.0); - - // Reduce to barely above full - ctx.links.volume[0] = vFull() + 0.001; - solver.updateDPSState(ctx, 1.0); - - EXPECT_GE(solver.dps_slot_area_[0], 0.0); -} - -// ============================================================================ -// 6. getCrownCutoff / getSlotWidth for DYNAMIC_SLOT -// ============================================================================ - -TEST(DPSSlotBehavior, CrownCutoffMatchesSlotMethod) { - DWSolver solver_dps; - solver_dps.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - - DWSolver solver_slot; - solver_slot.surcharge_method = SurchargeMethod::SLOT; - - EXPECT_DOUBLE_EQ(solver_dps.getCrownCutoff(), solver_slot.getCrownCutoff()); - EXPECT_DOUBLE_EQ(solver_dps.getCrownCutoff(), SLOT_CROWN_CUTOFF); -} - -TEST(DPSSlotBehavior, SlotWidthUsesSjobergFormula) { - // For DYNAMIC_SLOT, at depth = y_full * 0.99 (above SLOT_CROWN_CUTOFF), - // the Sjoberg formula should give a positive width. - DWSolver solver; - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - - double y_full = 3.0; - double w_max = 3.0; - double y = y_full * 0.99; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - - EXPECT_GT(w, 0.0); - - // Should match what SLOT method gives - DWSolver solver_slot; - solver_slot.surcharge_method = SurchargeMethod::SLOT; - double w_slot = solver_slot.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - - EXPECT_DOUBLE_EQ(w, w_slot); -} - -TEST(DPSSlotBehavior, SlotWidthZeroBelowCrownCutoff) { - DWSolver solver; - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - - double y_full = 3.0; - double w_max = 3.0; - double y = y_full * 0.5; // Well below crown cutoff - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - - EXPECT_DOUBLE_EQ(w, 0.0); -} - -TEST(DPSSlotBehavior, SlotWidthCapAt178) { - // For y/yFull > 1.78: slot width = 1% of max width - DWSolver solver; - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - - double y_full = 3.0; - double w_max = 3.0; - double y = y_full * 2.0; // > 1.78 * yFull - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - - EXPECT_NEAR(w, 0.01 * w_max, 1e-10); -} - -// ============================================================================ -// 7. Open-shape bypass: open conduits never engage DPS -// ============================================================================ - -class DPSOpenShapeTest : public ::testing::Test { -protected: - DWSolver solver; - SimulationContext ctx; - XSectGroups groups; - std::vector xparams; - - void SetUp() override { - ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); - // Change to open shape - ctx.links.xsect_shape[0] = XsectShape::TRAPEZOIDAL; - - xparams.resize(1); - double p[4] = {3.0, 5.0, 1.0, 1.0}; - xsect::setParams(xparams[0], static_cast(XsectShape::TRAPEZOIDAL), p, 1.0); - groups.build(xparams.data(), 1); - - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.init(2, 1, groups); + XSectGroups groups; + groups.build(params.data(), static_cast(params.size())); + return groups; } -}; - -TEST_F(DPSOpenShapeTest, OpenShapeNeverSurcharged) { - // Put volume way above "full" - double af = ctx.links.xsect_a_full[0]; - double L = ctx.links.mod_length[0]; - ctx.links.volume[0] = af * L * 2.0; // Double full volume - - solver.updateDPSState(ctx, 1.0); - - EXPECT_LT(solver.dps_surcharge_t_[0], 0.0); - EXPECT_DOUBLE_EQ(solver.dps_slot_area_[0], 0.0); -} -TEST_F(DPSOpenShapeTest, SlotWidthZeroForOpenShape) { - DWSolver s; - s.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + struct SnapshotCapture + { + OperatorSnapshotState staging; + SWMM_OperatorSnapshot snap{}; + }; - double w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::TRAPEZOIDAL); - EXPECT_DOUBLE_EQ(w, 0.0); - - w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::RECT_OPEN); - EXPECT_DOUBLE_EQ(w, 0.0); - - w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::TRIANGULAR); - EXPECT_DOUBLE_EQ(w, 0.0); - - w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::PARABOLIC); - EXPECT_DOUBLE_EQ(w, 0.0); -} - -// ============================================================================ -// 8. Mass conservation: slot area × length ≈ excess volume -// ============================================================================ - -TEST(DPSMassConservation, SlotAreaTimesLengthEqualsExcess) { - auto ctx = buildMinimalContext(3.0, 500.0, 100.0, 99.5); - std::vector xp(1); - double p[4] = {3.0, 0, 0, 0}; - xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - XSectGroups groups; - groups.build(xp.data(), 1); - - DWSolver solver; - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.init(2, 1, groups); - - double af = ctx.links.xsect_a_full[0]; - double L = ctx.links.mod_length[0]; - double v_full = af * L; - - // Test for various excess volumes - double excesses[] = {1.0, 10.0, 50.0, 200.0, 1000.0}; - for (double excess : excesses) { - // Reset state - solver.dps_slot_area_[0] = 0.0; - solver.dps_slot_head_[0] = 0.0; - solver.dps_preissmann_[0] = 0.0; - solver.dps_surcharge_t_[0] = -1.0; - - ctx.links.volume[0] = v_full + excess; - solver.updateDPSState(ctx, 1.0); - - double Ts_times_L = solver.dps_slot_area_[0] * L; - EXPECT_NEAR(Ts_times_L, excess, 1e-6) - << "Failed for excess = " << excess; + SnapshotCapture snapshotFor(DWSolver &solver, + const SimulationContext &ctx, + int n_nodes, + int n_links) + { + SnapshotCapture captured; + captured.staging.resizeStaging(n_nodes, n_links, solver.numConduits()); + solver.populateSnapshot(ctx, 0.0, 0, true, captured.snap, captured.staging); + return captured; } -} - -// ============================================================================ -// 9. Energy conservation: no spurious head when P decreases over time -// ============================================================================ -// The key innovation of the DPS (Eq. 19) is using incremental ΔTs instead of -// total Ts to compute head. This prevents energy-source artifacts when P decays -// and the effective slot width compresses prior slot volume. - -TEST(DPSEnergyConservation, DecreasingExcessReducesHead) { - // If excess volume decreases, head should also decrease (or stay zero) - auto ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); - std::vector xp(1); - double p[4] = {3.0, 0, 0, 0}; - xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - XSectGroups groups; - groups.build(xp.data(), 1); - - DWSolver solver; - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.dps_decay_time = 10.0; - solver.init(2, 1, groups); - - double af = ctx.links.xsect_a_full[0]; - double L = ctx.links.mod_length[0]; - double v_full = af * L; - - // Step 1: large excess → large head - ctx.links.volume[0] = v_full + 200.0; - solver.updateDPSState(ctx, 1.0); - double h1 = solver.dps_slot_head_[0]; - EXPECT_GT(h1, 0.0); - - // Step 2: same excess but P has decayed (surcharge clock advanced) - // delta_Ts = 0 (volume hasn't changed), so delta_hs = 0 - // Head should NOT increase when nothing changes - solver.updateDPSState(ctx, 1.0); - double h2 = solver.dps_slot_head_[0]; - EXPECT_NEAR(h2, h1, 1e-10); // No change in head when delta_Ts = 0 - // Step 3: reduce excess → delta_Ts is negative → head should go DOWN - ctx.links.volume[0] = v_full + 100.0; - solver.updateDPSState(ctx, 1.0); - double h3 = solver.dps_slot_head_[0]; - - // Head should decrease (or at worst stay same due to P²) - // The delta_hs = P² * (-delta) / (Af + Ts_old) → negative increment - // Total head = h2 + negative → h3 < h2 - EXPECT_LE(h3, h2); -} - -TEST(DPSEnergyConservation, SteadyVolumeNoHeadGrowth) { - // Hold excess volume constant for many timesteps. - // Head should not grow — verifies no energy-source artifact. - auto ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); - std::vector xp(1); - double p[4] = {3.0, 0, 0, 0}; - xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - XSectGroups groups; - groups.build(xp.data(), 1); - - DWSolver solver; - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.dps_decay_time = 10.0; - solver.init(2, 1, groups); - - double v_full = ctx.links.xsect_a_full[0] * ctx.links.mod_length[0]; - ctx.links.volume[0] = v_full + 100.0; - - // First step establishes state - solver.updateDPSState(ctx, 1.0); - double h_initial = solver.dps_slot_head_[0]; - - // Many timesteps at constant volume - for (int i = 0; i < 100; ++i) { - solver.updateDPSState(ctx, 1.0); + double expectedP0(const SimulationContext &ctx) + { + const double c_pT_fts = ctx.options.dps_target_celerity * 3.28084; + const double alpha = std::max(ctx.options.dps_alpha, 2.0); + const double af = ctx.links.xsect_a_full[0]; + const double tw = ctx.links.xsect_w_max[0]; + const double l_d = (tw > 0.0) ? af / tw : 0.0; + const double c_g = (l_d > 0.0) ? std::sqrt(32.2 * l_d) : 1.0; + return std::max(c_pT_fts / (alpha * c_g), 1.0); } - double h_final = solver.dps_slot_head_[0]; +} // namespace - // Head should equal the head after step 1 (no growth when delta_Ts = 0) - EXPECT_NEAR(h_final, h_initial, 1e-10); +TEST(DPSOptions, DefaultsLiveInSimulationOptions) +{ + SimulationContext ctx; + EXPECT_DOUBLE_EQ(ctx.options.dps_target_celerity, 25.0); + EXPECT_DOUBLE_EQ(ctx.options.dps_alpha, 3.0); + EXPECT_DOUBLE_EQ(ctx.options.dps_decay_time, 0.5); } -// ============================================================================ -// 10. Celerity verification: P relates to wave speed -// ============================================================================ - -TEST(DPSCelerity, PreissmannNumberRelatesCelerity) { - // Eq. 8: P = c_T / c_p where c_p is the local pressure celerity - // At onset, P_0 = c_T / (β · c_g), so c_p_initial = β · c_g - // This means the initial effective celerity is β times the gravity-wave celerity. - - auto ctx = buildMinimalContext(4.0, 1000.0, 100.0, 99.0); - std::vector xp(1); - double p[4] = {4.0, 0, 0, 0}; - xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - XSectGroups groups; - groups.build(xp.data(), 1); - - DWSolver solver; - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.dps_target_celerity = 200.0; - solver.dps_shock_param = 2.0; - solver.init(2, 1, groups); - - double P0 = solver.computeInitialPreissmannNumber(0, ctx); - - // Verify: c_T / P_0 should equal β · c_g - double af = ctx.links.xsect_a_full[0]; - double wm = ctx.links.xsect_w_max[0]; - double hd = af / wm; - double cg = std::sqrt(32.2 * hd); - double expected_cp = solver.dps_shock_param * cg; - double actual_cp = solver.dps_target_celerity / P0; - - EXPECT_NEAR(actual_cp, expected_cp, 1e-8); +TEST(DPSPublicApi, EnumValueIsStable) +{ + EXPECT_EQ(static_cast(SurchargeMethod::DYNAMIC_SLOT), 2); } -// ============================================================================ -// 11. Multi-barrel conduit handling -// ============================================================================ - -TEST(DPSMultiBarrel, VolumeCorrectlyDividedByBarrels) { - auto ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); - ctx.links.barrels[0] = 3; - - std::vector xp(1); - double p[4] = {3.0, 0, 0, 0}; - xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - XSectGroups groups; - groups.build(xp.data(), 1); +TEST(DPSPublicApi, InitWithContextExposesDpsArraysInSnapshot) +{ + SimulationContext ctx = buildMinimalContext(3.0); + ctx.options.surcharge_method = static_cast(SurchargeMethod::DYNAMIC_SLOT); + XSectGroups groups = buildSingleCircularGroup(3.0); DWSolver solver; solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.init(2, 1, groups); + solver.init(2, 1, groups, ctx); - double af = ctx.links.xsect_a_full[0]; - double L = ctx.links.mod_length[0]; - double v_full_per_barrel = af * L; - double excess_per_barrel = 50.0; - - // Total volume = 3 barrels * (v_full + excess) per barrel - ctx.links.volume[0] = 3.0 * (v_full_per_barrel + excess_per_barrel); - solver.updateDPSState(ctx, 1.0); - - // Slot area should be based on per-barrel excess - double expected_ts = excess_per_barrel / L; - EXPECT_NEAR(solver.dps_slot_area_[0], expected_ts, 1e-10); + SnapshotCapture captured = snapshotFor(solver, ctx, 2, 1); + ASSERT_NE(captured.snap.dps_slot_area, nullptr); + ASSERT_NE(captured.snap.dps_surcharge_head, nullptr); + ASSERT_NE(captured.snap.dps_preissmann_num, nullptr); + EXPECT_GE(captured.snap.dps_preissmann_num[0], 1.0); } -// ============================================================================ -// 12. DPS state initialization after init() -// ============================================================================ - -TEST(DPSInit, StateVectorsInitializedCorrectly) { - std::vector xp(3); - double p[4] = {2.0, 0, 0, 0}; - for (int i = 0; i < 3; ++i) - xsect::setParams(xp[i], static_cast(XsectShape::CIRCULAR), p, 1.0); - XSectGroups groups; - groups.build(xp.data(), 3); +TEST(DPSPublicApi, ExtranModeDoesNotExposeDpsArrays) +{ + SimulationContext ctx = buildMinimalContext(3.0); + XSectGroups groups = buildSingleCircularGroup(3.0); DWSolver solver; - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.init(4, 3, groups); - - for (int i = 0; i < 3; ++i) { - EXPECT_DOUBLE_EQ(solver.dps_slot_area_[i], 0.0); - EXPECT_DOUBLE_EQ(solver.dps_slot_head_[i], 0.0); - EXPECT_DOUBLE_EQ(solver.dps_preissmann_[i], 0.0); - EXPECT_LT(solver.dps_surcharge_t_[i], 0.0); - } -} - -// ============================================================================ -// 13. Different pipe sizes: verify P_0 scales correctly -// ============================================================================ - -TEST(DPSScaling, LargerPipeGivesSmallerP0) { - // Larger pipe → larger c_g → smaller P_0 - auto ctx_small = buildMinimalContext(2.0, 1000.0, 100.0, 99.0); - auto ctx_large = buildMinimalContext(6.0, 1000.0, 100.0, 99.0); - - std::vector xp_s(1), xp_l(1); - double ps[4] = {2.0, 0, 0, 0}; - double pl[4] = {6.0, 0, 0, 0}; - xsect::setParams(xp_s[0], static_cast(XsectShape::CIRCULAR), ps, 1.0); - xsect::setParams(xp_l[0], static_cast(XsectShape::CIRCULAR), pl, 1.0); - - XSectGroups gs, gl; - gs.build(xp_s.data(), 1); - gl.build(xp_l.data(), 1); + solver.surcharge_method = SurchargeMethod::EXTRAN; + solver.init(2, 1, groups, ctx); - DWSolver solver_s, solver_l; - solver_s.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver_l.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver_s.init(2, 1, gs); - solver_l.init(2, 1, gl); - - double p0_small = solver_s.computeInitialPreissmannNumber(0, ctx_small); - double p0_large = solver_l.computeInitialPreissmannNumber(0, ctx_large); - - // Larger pipe has larger c_g → smaller P_0 - EXPECT_GT(p0_small, p0_large); + SnapshotCapture captured = snapshotFor(solver, ctx, 2, 1); + EXPECT_EQ(captured.snap.dps_slot_area, nullptr); + EXPECT_EQ(captured.snap.dps_surcharge_head, nullptr); + EXPECT_EQ(captured.snap.dps_preissmann_num, nullptr); } -// ============================================================================ -// 14. Verify computePreissmannNumber at half-life time -// ============================================================================ - -TEST(DPSDecayPrecision, HalfLifeCheck) { - // For a first-order decay, at t = r * ln(2), the quantity (P-1) should - // be half of (P_0 - 1). - std::vector xp(1); - double p[4] = {3.0, 0, 0, 0}; - xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); - XSectGroups groups; - groups.build(xp.data(), 1); +TEST(DPSPublicApi, InitialPreissmannNumberMatchesConfiguredOptions) +{ + SimulationContext ctx = buildMinimalContext(3.0); + ctx.options.surcharge_method = static_cast(SurchargeMethod::DYNAMIC_SLOT); + ctx.options.dps_target_celerity = 25.0; + ctx.options.dps_alpha = 3.0; + XSectGroups groups = buildSingleCircularGroup(3.0); DWSolver solver; solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.dps_decay_time = 10.0; - solver.init(2, 1, groups); - - double p0 = 9.0; // P_0 - 1 = 8 - double half_life = solver.dps_decay_time * std::log(2.0); - - solver.dps_preissmann_[0] = p0; - solver.dps_surcharge_t_[0] = half_life; - - double P = solver.computePreissmannNumber(0, 0.0); + solver.init(2, 1, groups, ctx); - // At half-life: P - 1 = (P_0 - 1) * 0.5 = 4, so P = 5 - double expected = 1.0 + (p0 - 1.0) * 0.5; - EXPECT_NEAR(P, expected, 1e-10); + SnapshotCapture captured = snapshotFor(solver, ctx, 2, 1); + ASSERT_NE(captured.snap.dps_preissmann_num, nullptr); + EXPECT_NEAR(captured.snap.dps_preissmann_num[0], expectedP0(ctx), 1e-9); } -// ============================================================================ -// 15. Slot width as function of depth — smooth Sjoberg transition -// (User request #1) -// ============================================================================ +TEST(DPSPublicApi, HigherTargetCelerityIncreasesInitialPreissmannNumber) +{ + SimulationContext low_ctx = buildMinimalContext(3.0); + low_ctx.options.surcharge_method = static_cast(SurchargeMethod::DYNAMIC_SLOT); + low_ctx.options.dps_target_celerity = 20.0; -// Shared fixture for slot geometry tests on a circular pipe. -class SlotGeometryTest : public ::testing::Test { -protected: - DWSolver solver; - XSectParams xs; - double y_full, a_full, w_max, r_full; + SimulationContext high_ctx = low_ctx; + high_ctx.options.dps_target_celerity = 40.0; - void SetUp() override { - solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + XSectGroups groups = buildSingleCircularGroup(3.0); - double p[4] = {3.0, 0, 0, 0}; // 3 ft diameter circular - xsect::setParams(xs, static_cast(XsectShape::CIRCULAR), p, 1.0); + DWSolver low_solver; + low_solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + low_solver.init(2, 1, groups, low_ctx); + SnapshotCapture low_captured = snapshotFor(low_solver, low_ctx, 2, 1); - y_full = xs.y_full; // 3.0 - a_full = xs.a_full; - w_max = xs.w_max; // 3.0 - r_full = xs.r_full; - } - - /// Compute combined area at depth y: physical xsect below crown, slot above. - double totalArea(double y) const { - if (y >= y_full) { - double w_slot = solver.getSlotWidth(y, y_full, w_max, - XsectShape::CIRCULAR); - return solver.getSlotArea(y, y_full, a_full, w_slot); - } - return xsect::getAofY(xs, y); - } + DWSolver high_solver; + high_solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + high_solver.init(2, 1, groups, high_ctx); + SnapshotCapture high_captured = snapshotFor(high_solver, high_ctx, 2, 1); - /// Compute combined top width: physical xsect below crown, slot above. - double totalWidth(double y) const { - double w_slot = solver.getSlotWidth(y, y_full, w_max, - XsectShape::CIRCULAR); - if (w_slot > 0.0) return w_slot; - return xsect::getWofY(xs, y); - } -}; - -TEST_F(SlotGeometryTest, SjobergSweepMonotonicallyDecreasing) { - // Slot width from Sjoberg formula should decrease monotonically as depth - // increases above the crown (the slot narrows for deeper surcharge). - double prev_w = 1e10; - int n_steps = 50; - double crown = y_full * SLOT_CROWN_CUTOFF; - double y_max = y_full * 1.78; - double dy = (y_max - crown) / n_steps; - - for (int i = 0; i <= n_steps; ++i) { - double y = crown + i * dy; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_GT(w, 0.0) << "Slot width must be positive at y/yf = " << y / y_full; - EXPECT_LE(w, prev_w) << "Slot width must decrease with depth at y/yf = " - << y / y_full; - prev_w = w; - } + ASSERT_NE(low_captured.snap.dps_preissmann_num, nullptr); + ASSERT_NE(high_captured.snap.dps_preissmann_num, nullptr); + EXPECT_GT(high_captured.snap.dps_preissmann_num[0], low_captured.snap.dps_preissmann_num[0]); } -TEST_F(SlotGeometryTest, SjobergWidthMatchesFormulaExactly) { - // Verify the formula: w = wMax * 0.5423 * exp(-yNorm^2.4) at several points. - double depths[] = {0.99, 1.0, 1.05, 1.2, 1.5, 1.75}; - for (double yNorm : depths) { - double y = y_full * yNorm; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - double expected = w_max * 0.5423 * std::exp(-std::pow(yNorm, 2.4)); - EXPECT_NEAR(w, expected, 1e-12) - << "Sjoberg formula mismatch at y/yf = " << yNorm; - } -} +TEST(DPSPublicApi, HigherAlphaDecreasesInitialPreissmannNumber) +{ + SimulationContext low_alpha_ctx = buildMinimalContext(3.0); + low_alpha_ctx.options.surcharge_method = static_cast(SurchargeMethod::DYNAMIC_SLOT); + low_alpha_ctx.options.dps_alpha = 2.0; -TEST_F(SlotGeometryTest, SlotWidthTransitionRegionSmooth) { - // Check that max step-to-step change in slot width is bounded (no jumps). - // Use a fine sweep from 0.98 to 1.02 across the crown cutoff. - int n = 200; - double y_lo = y_full * 0.98; - double y_hi = y_full * 1.02; - double dy = (y_hi - y_lo) / n; + SimulationContext high_alpha_ctx = low_alpha_ctx; + high_alpha_ctx.options.dps_alpha = 6.0; - double max_delta_w = 0.0; - double prev_w = solver.getSlotWidth(y_lo, y_full, w_max, XsectShape::CIRCULAR); + XSectGroups groups = buildSingleCircularGroup(3.0); - for (int i = 1; i <= n; ++i) { - double y = y_lo + i * dy; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - double delta = std::fabs(w - prev_w); - if (delta > max_delta_w) max_delta_w = delta; - prev_w = w; - } - - // The Sjoberg formula at the cutoff gives: - // w(0.985257) = 3 * 0.5423 * exp(-0.985257^2.4) ≈ 0.606 - // w(0.98) = 0 (below cutoff) - // So there IS a jump at the cutoff point itself of ~0.606. - // But within the active slot region (above cutoff), changes should be small. - // Verify that the jump is at most wMax * 0.5423 * exp(-cutoff^2.4). - double w_at_cutoff = w_max * 0.5423 * - std::exp(-std::pow(SLOT_CROWN_CUTOFF, 2.4)); - EXPECT_LE(max_delta_w, w_at_cutoff + 0.01) - << "Slot width jump is bounded by value at cutoff"; -} + DWSolver low_alpha_solver; + low_alpha_solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + low_alpha_solver.init(2, 1, groups, low_alpha_ctx); + SnapshotCapture low_alpha_captured = snapshotFor(low_alpha_solver, low_alpha_ctx, 2, 1); -// ============================================================================ -// 16. Cross-sectional area, hyd. radius with slot active vs inactive -// (User request #2) -// ============================================================================ + DWSolver high_alpha_solver; + high_alpha_solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + high_alpha_solver.init(2, 1, groups, high_alpha_ctx); + SnapshotCapture high_alpha_captured = snapshotFor(high_alpha_solver, high_alpha_ctx, 2, 1); -TEST_F(SlotGeometryTest, AreaBelowCrownUsesPhysicalXsect) { - // At 50% depth, area should come from the physical circular cross-section. - double y = y_full * 0.5; - double A_phys = xsect::getAofY(xs, y); - double w_slot = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - - EXPECT_DOUBLE_EQ(w_slot, 0.0); // Slot not active below crown - EXPECT_GT(A_phys, 0.0); -} - -TEST_F(SlotGeometryTest, AreaAboveCrownIncludesSlotContribution) { - // Above crown: A = A_full + (y - y_full) * w_slot - double y = y_full * 1.1; - double w_slot = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_GT(w_slot, 0.0); - - double A_slot = solver.getSlotArea(y, y_full, a_full, w_slot); - double A_expected = a_full + (y - y_full) * w_slot; - EXPECT_NEAR(A_slot, A_expected, 1e-12); - // Must exceed A_full - EXPECT_GT(A_slot, a_full); -} - -TEST_F(SlotGeometryTest, AreaAtFullIsAfull) { - double y = y_full; - double w_slot = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - double A_slot = solver.getSlotArea(y, y_full, a_full, w_slot); - - // At exactly y_full, (y - y_full) = 0, so A = A_full regardless of slot - EXPECT_NEAR(A_slot, a_full, 1e-12); -} - -TEST_F(SlotGeometryTest, AreaMonotonicallyIncreasingAboveCrown) { - double prev_A = a_full; - int n = 50; - double dy = y_full * 0.02; // 2% steps from 1.0 to 2.0 - - for (int i = 1; i <= n; ++i) { - double y = y_full + i * dy; - double A = totalArea(y); - EXPECT_GT(A, prev_A) - << "Area must increase with depth at y/yf = " << y / y_full; - prev_A = A; - } -} - -TEST_F(SlotGeometryTest, HydRadAboveCrownEqualsRfull) { - // Preissmann slot convention: hydraulic radius stays at R_full - // for depths above the crown. - double depths[] = {1.0, 1.1, 1.5, 2.0, 5.0}; - for (double yNorm : depths) { - double y = y_full * yNorm; - double R = solver.getSlotHydRad(y, y_full, r_full); - EXPECT_DOUBLE_EQ(R, r_full) - << "Hyd. radius should be R_full above crown at y/yf = " << yNorm; - } -} - -TEST_F(SlotGeometryTest, HydRadBelowCrownFromXsect) { - // Below crown, the solver defers to the batch xsect lookup. - // getSlotHydRad returns r_full even below, because the caller is expected - // to use batch values. But the physical value should differ. - double y = y_full * 0.5; - double R_phys = xsect::getRofY(xs, y); - EXPECT_GT(R_phys, 0.0); - EXPECT_NE(R_phys, r_full); // Physical R at half-depth ≠ R_full -} - -// ============================================================================ -// 17. Top width returns slot width (not zero) above crown — Sjoberg -// (User request #3) -// ============================================================================ - -TEST_F(SlotGeometryTest, TopWidthPositiveAboveCrown) { - // Sweep from crown cutoff to 1.78*y_full; slot width should always be > 0. - int n = 100; - double y_lo = y_full * SLOT_CROWN_CUTOFF; - double y_hi = y_full * 1.78; - double dy = (y_hi - y_lo) / n; - - for (int i = 0; i <= n; ++i) { - double y = y_lo + i * dy; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_GT(w, 0.0) - << "Top width must be positive (slot active) at y/yf = " - << y / y_full; - } -} - -TEST_F(SlotGeometryTest, TopWidthAboveCrownLessThanPhysicalMaxWidth) { - // The slot width should always be much less than the physical w_max. - // At crown cutoff, Sjoberg gives ~0.61 * w_max. At deeper depths it's even less. - double y = y_full * 1.0; // At crown - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_LT(w, w_max) - << "Slot width must be narrower than physical max width"; -} - -TEST_F(SlotGeometryTest, TopWidthBeyond178CapAt1Percent) { - // Beyond 1.78 * y_full, slot width caps at 1% of w_max - double depths[] = {1.79, 2.0, 3.0, 10.0, 100.0}; - double expected = 0.01 * w_max; - for (double yNorm : depths) { - double y = y_full * yNorm; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_NEAR(w, expected, 1e-12) - << "Beyond 1.78: slot width must be 1% of wMax at y/yf = " << yNorm; - } -} - -// ============================================================================ -// 18. Edge cases: exact crown, slightly above/below, very large -// (User request #4) -// ============================================================================ - -TEST_F(SlotGeometryTest, EdgeDepthExactlyAtCrownCutoff) { - // At exactly the crown cutoff, the Sjoberg formula should activate. - double y = y_full * SLOT_CROWN_CUTOFF; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - // yNorm == SLOT_CROWN_CUTOFF is NOT < SLOT_CROWN_CUTOFF, so slot is active - double expected = w_max * 0.5423 * - std::exp(-std::pow(SLOT_CROWN_CUTOFF, 2.4)); - EXPECT_NEAR(w, expected, 1e-12); -} - -TEST_F(SlotGeometryTest, EdgeDepthJustBelowCutoff) { - // One ULP below cutoff — slot should be inactive (return 0). - double y = y_full * std::nextafter(SLOT_CROWN_CUTOFF, 0.0); - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_DOUBLE_EQ(w, 0.0); -} - -TEST_F(SlotGeometryTest, EdgeDepthJustAboveCutoff) { - // One ULP above cutoff — slot should be active. - double y = y_full * std::nextafter(SLOT_CROWN_CUTOFF, 2.0); - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_GT(w, 0.0); -} - -TEST_F(SlotGeometryTest, EdgeDepthExactlyAtFull) { - double y = y_full; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - double A = solver.getSlotArea(y, y_full, a_full, w); - - // y_full / y_full = 1.0 > SLOT_CROWN_CUTOFF, so slot is active - EXPECT_GT(w, 0.0); - // But A = A_full + 0 * w = A_full (no extra volume at exact crown) - EXPECT_NEAR(A, a_full, 1e-12); -} - -TEST_F(SlotGeometryTest, EdgeDepthAtSlotCapBoundary) { - // At exactly 1.78 * y_full: should still use Sjoberg, not the cap. - double y = y_full * 1.78; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - double w_sjoberg = w_max * 0.5423 * std::exp(-std::pow(1.78, 2.4)); - EXPECT_NEAR(w, w_sjoberg, 1e-12); - - // Just above 1.78: should use cap - double y2 = y_full * std::nextafter(1.78, 2.0); - double w2 = solver.getSlotWidth(y2, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_NEAR(w2, 0.01 * w_max, 1e-12); -} - -TEST_F(SlotGeometryTest, EdgeVeryLargeDepth) { - // At extreme depth (100x pipe diameter), slot still returns the cap value. - double y = y_full * 100.0; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_NEAR(w, 0.01 * w_max, 1e-12); - - // Area should be very large - double A = solver.getSlotArea(y, y_full, a_full, w); - EXPECT_GT(A, a_full * 10.0); -} - -TEST_F(SlotGeometryTest, EdgeZeroDepth) { - double w = solver.getSlotWidth(0.0, y_full, w_max, XsectShape::CIRCULAR); - EXPECT_DOUBLE_EQ(w, 0.0); -} - -TEST_F(SlotGeometryTest, EdgeYfullZero) { - // y_full = 0 should return 0 without division by zero. - double w = solver.getSlotWidth(1.0, 0.0, 3.0, XsectShape::CIRCULAR); - EXPECT_DOUBLE_EQ(w, 0.0); -} - -// ============================================================================ -// 19. Slot parameter sensitivity → wave celerity impact -// (User request #5) -// ============================================================================ - -TEST_F(SlotGeometryTest, WiderSlotGivesSlowerCelerity) { - // Wave celerity in a Preissmann slot: c = sqrt(g * A / W) - // where A = A_full + (y-yf)*W_slot and W = W_slot. - // At y = y_full (no extra depth yet): c = sqrt(g * A_full / W_slot) - // Wider slot → smaller c (more compressible). - - double y = y_full * 1.01; // Just above crown - - // Default DYNAMIC_SLOT Sjoberg width - DWSolver solver_ds; - solver_ds.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - double w_ds = solver_ds.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - double A_ds = solver_ds.getSlotArea(y, y_full, a_full, w_ds); - double c_ds = std::sqrt(32.2 * A_ds / w_ds); - - // EXTRAN uses y_full * 0.001 as fixed slot width (narrower → faster) - DWSolver solver_ex; - solver_ex.surcharge_method = SurchargeMethod::EXTRAN; - double w_ex = solver_ex.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - double A_ex = solver_ex.getSlotArea(y, y_full, a_full, w_ex); - double c_ex = (w_ex > 0.0) ? std::sqrt(32.2 * A_ex / w_ex) : 0.0; - - // EXTRAN has much narrower slot → much faster wave celerity - if (w_ex > 0.0) { - EXPECT_GT(c_ex, c_ds) - << "Narrower EXTRAN slot should give faster celerity than Sjoberg"; - } -} - -TEST_F(SlotGeometryTest, CelerityDecreasesWithDepthAboveCrown) { - // As depth increases above crown, the Sjoberg formula narrows the slot. - // Narrower slot → faster celerity (slot acts like column of water). - // But area also increases with depth, so c = sqrt(g*A/W). - // Net effect: since W shrinks faster than A grows, c should INCREASE - // with depth in the Sjoberg region. - - double prev_c = 0.0; - int n = 20; - double y_lo = y_full * 1.01; - double y_hi = y_full * 1.70; - double dy = (y_hi - y_lo) / n; - - for (int i = 0; i <= n; ++i) { - double y = y_lo + i * dy; - double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); - double A = solver.getSlotArea(y, y_full, a_full, w); - if (w > 0.0) { - double c = std::sqrt(32.2 * A / w); - EXPECT_GT(c, prev_c) - << "Celerity should increase as slot narrows at y/yf = " - << y / y_full; - prev_c = c; - } - } -} - -TEST_F(SlotGeometryTest, CelerityAtCrownCutoffBoundsGravityWave) { - // At the crown cutoff, the slot opens with width ≈ 0.61 * w_max. - // The gravity-wave celerity for the open pipe is c_g = sqrt(g * A_full / w_max). - // The slot celerity at cutoff should be in the same ballpark but slower - // (wider effective width → slower). - - double w_cutoff = solver.getSlotWidth(y_full * SLOT_CROWN_CUTOFF, - y_full, w_max, XsectShape::CIRCULAR); - double A_cutoff = a_full; // approximately A_full at crown - double c_slot = std::sqrt(32.2 * A_cutoff / w_cutoff); - - double c_gravity = std::sqrt(32.2 * a_full / w_max); - - // Slot celerity should be faster than gravity wave (slot is narrower than - // pipe width, so sqrt(g*A/W_slot) > sqrt(g*A/W_max)) - EXPECT_GT(c_slot, c_gravity); -} - -// ============================================================================ -// 20. Numerical continuity: A(h) and dA/dh continuous across transition -// (User request #6) -// ============================================================================ - -TEST_F(SlotGeometryTest, AreaContinuousAtCrown) { - // At y = y_full, physical area should equal A_full. - // The slot area formula at y = y_full gives: A_full + 0 * w_slot = A_full. - // So there should be no jump in area at the crown. - - double A_phys_at_crown = xsect::getAofY(xs, y_full); - double w_at_crown = solver.getSlotWidth(y_full, y_full, w_max, - XsectShape::CIRCULAR); - double A_slot_at_crown = solver.getSlotArea(y_full, y_full, a_full, - w_at_crown); - - EXPECT_NEAR(A_phys_at_crown, a_full, 1e-6) - << "Physical area at crown should equal A_full"; - EXPECT_NEAR(A_slot_at_crown, a_full, 1e-12) - << "Slot area at crown should equal A_full"; - EXPECT_NEAR(A_phys_at_crown, A_slot_at_crown, 1e-6) - << "No area jump at the crown transition"; -} - -TEST_F(SlotGeometryTest, dAdh_ContinuousAcrossCrown) { - // Compute dA/dy using finite differences on both sides of y_full. - // Below crown: dA/dy = physical cross-section width W(y) - // Above crown: dA/dy = slot_width (from getSlotWidth formula) - // - // At y = y_full for a circular pipe, physical W → 0 (crown is a point). - // The Sjoberg slot opens at the cutoff (0.985*yf) with w ≈ 0.61*wMax. - // So there IS an inherent mathematical jump in dA/dy at the crown cutoff. - // However, the cutoff is intentionally set below the physical crown - // so that the slot activates BEFORE the physical width hits zero, - // creating an overlap region where both contribute. The Sjoberg formula - // is designed so the combined width transitions smoothly. - // - // Test: verify that in the region just above the cutoff, the slot-augmented - // dA/dy doesn't have large discontinuities relative to the step size. - - double eps = 1e-6; - int n = 100; - double y_lo = y_full * 0.90; - double y_hi = y_full * 1.10; - double dy = (y_hi - y_lo) / n; - - std::vector areas(n + 1); - for (int i = 0; i <= n; ++i) { - areas[i] = totalArea(y_lo + i * dy); - } - - // Compute first derivative via central differences (interior points) - std::vector dAdh(n - 1); - for (int i = 1; i < n; ++i) { - dAdh[i - 1] = (areas[i + 1] - areas[i - 1]) / (2.0 * dy); - } - - // Verify dA/dh is always non-negative (area is monotonically increasing) - for (int i = 0; i < static_cast(dAdh.size()); ++i) { - double y = y_lo + (i + 1) * dy; - EXPECT_GE(dAdh[i], -eps) - << "dA/dh must be non-negative at y/yf = " << y / y_full; - } - - // Verify dA/dh doesn't have large jumps (second derivative bounded) - double max_d2Adh2 = 0.0; - for (int i = 1; i < static_cast(dAdh.size()); ++i) { - double d2 = std::fabs(dAdh[i] - dAdh[i - 1]) / dy; - if (d2 > max_d2Adh2) max_d2Adh2 = d2; - } - - // The second derivative should be bounded — not infinite. - // For a 3 ft pipe, reasonable upper bound is ~100 (dimensionless, ft²/ft²). - EXPECT_LT(max_d2Adh2, 1000.0) - << "d²A/dh² should be bounded across the crown transition"; -} - -TEST_F(SlotGeometryTest, AreaContinuousAtCutoffFiniteDifference) { - // Fine finite-difference check right at the crown cutoff boundary. - // A(y-eps) should be close to A(y+eps) with no large jump. - - double y_cutoff = y_full * SLOT_CROWN_CUTOFF; - double eps = y_full * 1e-8; - - double A_below = totalArea(y_cutoff - eps); - double A_at = totalArea(y_cutoff); - double A_above = totalArea(y_cutoff + eps); - - // The area itself should be continuous (values should be close) - EXPECT_NEAR(A_below, A_at, 0.01) - << "Area should be continuous at the crown cutoff (below vs at)"; - EXPECT_NEAR(A_at, A_above, 0.01) - << "Area should be continuous at the crown cutoff (at vs above)"; -} - -TEST_F(SlotGeometryTest, WidthTransitionAtCutoff) { - // The Sjoberg formula is designed so that the slot width at the cutoff - // approximates the physical pipe width, creating a smooth handoff. - // For a circular pipe at y/yf = 0.985, the physical width is very narrow - // (approaching 0 at the crown). The Sjoberg slot width there is ~0.61 * D. - // - // This test documents the actual magnitudes — the slot is intentionally - // wider than the vanishing physical width to avoid infinite celerity. - - double y_cutoff = y_full * SLOT_CROWN_CUTOFF; - double w_phys = xsect::getWofY(xs, y_cutoff); - double w_slot = solver.getSlotWidth(y_cutoff, y_full, w_max, - XsectShape::CIRCULAR); - - // Both should be positive at the cutoff - EXPECT_GT(w_phys, 0.0); - EXPECT_GT(w_slot, 0.0); - - // The slot width should be larger than the vanishing physical width - // (this is the whole point — prevent near-zero width → infinite celerity) - EXPECT_GT(w_slot, w_phys) - << "Slot width should exceed physical width near the crown to " - "prevent infinite celerity"; -} - -TEST_F(SlotGeometryTest, AreaAndDerivativeSweepNoNaN) { - // Sweep across the full range and verify no NaN or Inf values. - int n = 500; - double dy = y_full * 3.0 / n; - - for (int i = 0; i <= n; ++i) { - double y = i * dy; - if (y <= 0.0) continue; - - double A = totalArea(y); - double W = totalWidth(y); - - EXPECT_FALSE(std::isnan(A)) << "Area is NaN at y = " << y; - EXPECT_FALSE(std::isinf(A)) << "Area is Inf at y = " << y; - EXPECT_FALSE(std::isnan(W)) << "Width is NaN at y = " << y; - EXPECT_FALSE(std::isinf(W)) << "Width is Inf at y = " << y; - EXPECT_GE(A, 0.0) << "Area must be non-negative at y = " << y; - EXPECT_GE(W, 0.0) << "Width must be non-negative at y = " << y; - } + ASSERT_NE(low_alpha_captured.snap.dps_preissmann_num, nullptr); + ASSERT_NE(high_alpha_captured.snap.dps_preissmann_num, nullptr); + EXPECT_LT(high_alpha_captured.snap.dps_preissmann_num[0], low_alpha_captured.snap.dps_preissmann_num[0]); } From a229df318835db3b5958da9cae6bead6a05180e9 Mon Sep 17 00:00:00 2001 From: Corinne Wiesner-Friedman Date: Mon, 20 Apr 2026 23:17:40 -0400 Subject: [PATCH 5/5] Revert "Fix DPS unit tests and gate integration build" This reverts commit 3e860fed6a04e719be56925be6ec54779eafdc65. --- tests/unit/engine/CMakeLists.txt | 10 +- .../engine/test_dynamic_preissmann_slot.cpp | 1509 +++++++++++++++-- 2 files changed, 1349 insertions(+), 170 deletions(-) diff --git a/tests/unit/engine/CMakeLists.txt b/tests/unit/engine/CMakeLists.txt index b96e6835f..abc6c6c88 100644 --- a/tests/unit/engine/CMakeLists.txt +++ b/tests/unit/engine/CMakeLists.txt @@ -19,10 +19,6 @@ cmake_minimum_required(VERSION 3.21) find_package(GTest CONFIG REQUIRED) -option(OPENSWMM_WITH_INTEGRATION_TESTS - "Build integration-style tests under tests/unit/engine" - OFF) - set(CMAKE_CXX_STANDARD 20) set(CMAKE_CXX_STANDARD_REQUIRED ON) @@ -106,14 +102,10 @@ add_gtest_unit(test_engine_rdii test_rdii.cpp) add_gtest_unit(test_engine_gap_fixes test_gap_fixes.cpp) add_gtest_unit(test_engine_report_section test_report_section.cpp) add_gtest_unit(test_engine_dps test_dynamic_preissmann_slot.cpp) +add_gtest_unit(test_engine_site_drainage test_site_drainage_model.cpp) add_gtest_unit(test_engine_concurrent test_concurrent_engines.cpp) add_gtest_unit(test_operator_snapshot test_operator_snapshot.cpp) -if(OPENSWMM_WITH_INTEGRATION_TESTS) - add_gtest_unit(test_engine_site_drainage test_site_drainage_model.cpp) - set_tests_properties(test_engine_site_drainage PROPERTIES LABELS "integration") -endif() - # 2D surface routing tests — geometry, gradients, flux, parsing # These tests exercise the non-CVODE portions of the 2D module and # can be built without SUNDIALS by compiling the needed sources directly. diff --git a/tests/unit/engine/test_dynamic_preissmann_slot.cpp b/tests/unit/engine/test_dynamic_preissmann_slot.cpp index 6f63dbf61..c8dfbcec9 100644 --- a/tests/unit/engine/test_dynamic_preissmann_slot.cpp +++ b/tests/unit/engine/test_dynamic_preissmann_slot.cpp @@ -1,223 +1,1410 @@ /** * @file test_dynamic_preissmann_slot.cpp - * @brief API-level tests for Dynamic Preissmann Slot (DPS) behavior. + * @brief Targeted tests for the Dynamic Preissmann Slot (DPS) algorithm. + * + * @details Verifies the DPS implementation against the formulation in: + * Sharior, S., Hodges, B.R., & Vasconcelos, J.G. (2023). + * "Generalized, Dynamic, and Transient-Storage Form of the Preissmann Slot." + * Journal of Hydraulic Engineering, 149(11), 04023046. + * DOI: 10.1061/JHEND8.HYENG-13609 + * + * Test categories: + * 1. DPS constants and parameter defaults + * 2. computeInitialPreissmannNumber — analytical verification (Eq. 23) + * 3. computePreissmannNumber — decay model verification (Eq. 22) + * 4. updateDPSState — surcharge onset, slot area, head (Eqs. 14, 19) + * 5. Depressurization and hysteresis + * 6. getCrownCutoff / getSlotWidth behavior for DYNAMIC_SLOT + * 7. DPS head correction in computeLinkGeometry + * 8. Mass conservation: slot area × length ≈ excess volume + * 9. Open-shape bypass: open conduits never engage DPS + * 10. Energy conservation: no spurious head when P decreases + * + * @see src/engine/hydraulics/DynamicWave.hpp + * @see src/engine/hydraulics/DynamicWave.cpp + * @ingroup engine_hydraulics */ #include - -#include +#ifndef _USE_MATH_DEFINES +#define _USE_MATH_DEFINES +#endif #include #include +#include #include "hydraulics/DynamicWave.hpp" #include "hydraulics/XSectBatch.hpp" #include "core/SimulationContext.hpp" -#include "core/OperatorSnapshotState.hpp" using namespace openswmm; using namespace openswmm::dynwave; -namespace -{ - - SimulationContext buildMinimalContext(double diameter_ft) - { - SimulationContext ctx; - - ctx.options.flow_units = FlowUnits::CFS; - ctx.options.routing_model = RoutingModel::DYNWAVE; - - ctx.nodes.resize(2); - ctx.nodes.type[0] = NodeType::JUNCTION; - ctx.nodes.type[1] = NodeType::JUNCTION; - ctx.nodes.invert_elev[0] = 100.0; - ctx.nodes.invert_elev[1] = 99.0; - ctx.nodes.depth[0] = diameter_ft; - ctx.nodes.depth[1] = diameter_ft; - ctx.nodes.head[0] = ctx.nodes.invert_elev[0] + ctx.nodes.depth[0]; - ctx.nodes.head[1] = ctx.nodes.invert_elev[1] + ctx.nodes.depth[1]; - ctx.nodes.volume[0] = 0.0; - ctx.nodes.volume[1] = 0.0; - - ctx.links.resize(1); - ctx.links.type[0] = LinkType::CONDUIT; - ctx.links.node1[0] = 0; - ctx.links.node2[0] = 1; - ctx.links.offset1[0] = 0.0; - ctx.links.offset2[0] = 0.0; - ctx.links.length[0] = 1000.0; - ctx.links.mod_length[0] = 1000.0; - ctx.links.barrels[0] = 1; - ctx.links.roughness[0] = 0.013; - ctx.links.slope[0] = 0.001; - ctx.links.flow[0] = 0.0; - - XSectParams xs; - double p[4] = {diameter_ft, 0.0, 0.0, 0.0}; - xsect::setParams(xs, static_cast(XsectShape::CIRCULAR), p, 1.0); +// ============================================================================ +// Helper: build a minimal SimulationContext for DPS testing +// ============================================================================ + +/// Create a minimal 2-node, 1-link context with a circular conduit. +/// The conduit connects node 0 (upstream) to node 1 (downstream). +static SimulationContext buildMinimalContext( + double diameter, // pipe diameter (ft) + double length, // conduit length (ft) + double upstream_elev, // upstream invert (ft) + double downstream_elev // downstream invert (ft) +) { + SimulationContext ctx; - ctx.links.xsect_shape[0] = XsectShape::CIRCULAR; - ctx.links.xsect_y_full[0] = xs.y_full; - ctx.links.xsect_a_full[0] = xs.a_full; - ctx.links.xsect_w_max[0] = xs.w_max; - ctx.links.xsect_r_full[0] = xs.r_full; - ctx.links.xsect_s_full[0] = xs.s_full; - ctx.links.xsect_s_max[0] = xs.s_max; + // --- Nodes --- + ctx.nodes.resize(2); + ctx.nodes.invert_elev[0] = upstream_elev; + ctx.nodes.invert_elev[1] = downstream_elev; + ctx.nodes.full_depth[0] = 20.0; // generous depth so no overflow + ctx.nodes.full_depth[1] = 20.0; + ctx.nodes.full_volume[0] = 20.0 * 12.566; // approximate + ctx.nodes.full_volume[1] = 20.0 * 12.566; + ctx.nodes.crown_elev[0] = upstream_elev + diameter; + ctx.nodes.crown_elev[1] = downstream_elev + diameter; - return ctx; - } + // --- Link (single circular conduit) --- + ctx.links.resize(1); + ctx.links.type[0] = LinkType::CONDUIT; + ctx.links.node1[0] = 0; + ctx.links.node2[0] = 1; + ctx.links.offset1[0] = 0.0; + ctx.links.offset2[0] = 0.0; + ctx.links.xsect_shape[0] = XsectShape::CIRCULAR; + ctx.links.xsect_y_full[0] = diameter; + ctx.links.length[0] = length; + ctx.links.mod_length[0] = length; + ctx.links.barrels[0] = 1; + + // Compute cross-section properties for circular pipe + double R = diameter / 2.0; + double a_full = M_PI * R * R; + double w_max = diameter; + double r_full = R / 2.0; // D/4 for circular + double s_full = a_full * std::pow(r_full, 2.0/3.0); + + ctx.links.xsect_a_full[0] = a_full; + ctx.links.xsect_w_max[0] = w_max; + ctx.links.xsect_r_full[0] = r_full; + ctx.links.xsect_s_full[0] = s_full; + ctx.links.xsect_s_max[0] = s_full; + ctx.links.roughness[0] = 0.013; + ctx.links.slope[0] = std::fabs(upstream_elev - downstream_elev) / length; + ctx.links.flow[0] = 0.0; + ctx.links.old_flow[0] = 0.0; + ctx.links.volume[0] = 0.0; + + return ctx; +} + +// ============================================================================ +// 1. DPS constants and parameter defaults +// ============================================================================ + +TEST(DPSConstants, DefaultTargetCelerity) { + EXPECT_DOUBLE_EQ(DPS_DEFAULT_TARGET_CELERITY, 100.0); +} + +TEST(DPSConstants, DefaultShockParam) { + EXPECT_DOUBLE_EQ(DPS_DEFAULT_SHOCK_PARAM, 2.0); +} - XSectGroups buildSingleCircularGroup(double diameter_ft) - { - std::vector params(1); - double p[4] = {diameter_ft, 0.0, 0.0, 0.0}; - xsect::setParams(params[0], static_cast(XsectShape::CIRCULAR), p, 1.0); +TEST(DPSConstants, DefaultDecayTime) { + EXPECT_DOUBLE_EQ(DPS_DEFAULT_DECAY_TIME, 10.0); +} + +TEST(DPSConstants, CrownCutoffMatchesSlot) { + EXPECT_DOUBLE_EQ(DPS_CROWN_CUTOFF, SLOT_CROWN_CUTOFF); +} - XSectGroups groups; - groups.build(params.data(), static_cast(params.size())); - return groups; +TEST(DPSConstants, DynamicSlotEnumValue) { + EXPECT_EQ(static_cast(SurchargeMethod::DYNAMIC_SLOT), 2); +} + +TEST(DPSSolverDefaults, DefaultDPSParameters) { + DWSolver solver; + EXPECT_DOUBLE_EQ(solver.dps_target_celerity, DPS_DEFAULT_TARGET_CELERITY); + EXPECT_DOUBLE_EQ(solver.dps_shock_param, DPS_DEFAULT_SHOCK_PARAM); + EXPECT_DOUBLE_EQ(solver.dps_decay_time, DPS_DEFAULT_DECAY_TIME); +} + +TEST(DPSSolverDefaults, CustomDPSParameters) { + DWSolver solver; + solver.dps_target_celerity = 200.0; + solver.dps_shock_param = 3.0; + solver.dps_decay_time = 5.0; + + EXPECT_DOUBLE_EQ(solver.dps_target_celerity, 200.0); + EXPECT_DOUBLE_EQ(solver.dps_shock_param, 3.0); + EXPECT_DOUBLE_EQ(solver.dps_decay_time, 5.0); +} + +// ============================================================================ +// 2. computeInitialPreissmannNumber — Eq. 23: P_0 = c_T / (β · c_g) +// ============================================================================ + +class DPSInitialPTest : public ::testing::Test { +protected: + DWSolver solver; + SimulationContext ctx; + XSectGroups groups; + std::vector xparams; + + void SetUp() override { + // 3-ft diameter circular pipe, 1000 ft long, 0.1% slope + ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + + // Build XSectGroups for the solver + xparams.resize(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xparams[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + groups.build(xparams.data(), 1); + + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(2, 1, groups); } +}; + +TEST_F(DPSInitialPTest, AnalyticalVerification) { + // Eq. 23: P_0 = c_T / (β · c_g) + // c_g = sqrt(g · A_f / W_max) = sqrt(g · h_d) where h_d = A_f / W_max + double af = ctx.links.xsect_a_full[0]; + double wm = ctx.links.xsect_w_max[0]; + double hd = af / wm; + double cg = std::sqrt(32.2 * hd); + double expected_p0 = solver.dps_target_celerity / (solver.dps_shock_param * cg); + expected_p0 = std::max(expected_p0, 1.0); + + double p0 = solver.computeInitialPreissmannNumber(0, ctx); + EXPECT_NEAR(p0, expected_p0, 1e-10); +} + +TEST_F(DPSInitialPTest, P0AlwaysAtLeast1) { + // With extremely high c_g (very large pipe), P_0 could be < 1. Verify floor. + // Set a large pipe: A_f = 1000, W_max = 100 → h_d = 10 → c_g ≈ 17.9 + // With c_T = 100, β = 2: P_0 = 100 / (2 * 17.9) ≈ 2.79 > 1 (still > 1) + // Lower c_T to make P_0 < 1: + solver.dps_target_celerity = 1.0; // Very low target celerity + solver.dps_shock_param = 100.0; // Very high shock param + + double p0 = solver.computeInitialPreissmannNumber(0, ctx); + EXPECT_GE(p0, 1.0); +} + +TEST_F(DPSInitialPTest, ZeroWidthReturns1) { + // Degenerate case: W_max = 0 → should return 1.0 safely + ctx.links.xsect_w_max[0] = 0.0; + double p0 = solver.computeInitialPreissmannNumber(0, ctx); + EXPECT_DOUBLE_EQ(p0, 1.0); +} + +TEST_F(DPSInitialPTest, ZeroAreaReturns1) { + ctx.links.xsect_a_full[0] = 0.0; + double p0 = solver.computeInitialPreissmannNumber(0, ctx); + EXPECT_DOUBLE_EQ(p0, 1.0); +} - struct SnapshotCapture - { - OperatorSnapshotState staging; - SWMM_OperatorSnapshot snap{}; - }; +TEST_F(DPSInitialPTest, HigherTargetCelerityGivesHigherP0) { + solver.dps_target_celerity = 100.0; + double p0_low = solver.computeInitialPreissmannNumber(0, ctx); - SnapshotCapture snapshotFor(DWSolver &solver, - const SimulationContext &ctx, - int n_nodes, - int n_links) - { - SnapshotCapture captured; - captured.staging.resizeStaging(n_nodes, n_links, solver.numConduits()); - solver.populateSnapshot(ctx, 0.0, 0, true, captured.snap, captured.staging); - return captured; + solver.dps_target_celerity = 500.0; + double p0_high = solver.computeInitialPreissmannNumber(0, ctx); + + EXPECT_GT(p0_high, p0_low); +} + +TEST_F(DPSInitialPTest, HigherBetaGivesLowerP0) { + solver.dps_shock_param = 2.0; + double p0_low_beta = solver.computeInitialPreissmannNumber(0, ctx); + + solver.dps_shock_param = 4.0; + double p0_high_beta = solver.computeInitialPreissmannNumber(0, ctx); + + EXPECT_LT(p0_high_beta, p0_low_beta); +} + +// ============================================================================ +// 3. computePreissmannNumber — Eq. 22: P(t) = 1 - (1 - P_0) · exp(-t/r) +// ============================================================================ + +class DPSDecayTest : public ::testing::Test { +protected: + DWSolver solver; + SimulationContext ctx; + XSectGroups groups; + std::vector xparams; + + void SetUp() override { + ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + xparams.resize(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xparams[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + groups.build(xparams.data(), 1); + + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.dps_decay_time = 10.0; + solver.init(2, 1, groups); } - double expectedP0(const SimulationContext &ctx) - { - const double c_pT_fts = ctx.options.dps_target_celerity * 3.28084; - const double alpha = std::max(ctx.options.dps_alpha, 2.0); - const double af = ctx.links.xsect_a_full[0]; - const double tw = ctx.links.xsect_w_max[0]; - const double l_d = (tw > 0.0) ? af / tw : 0.0; - const double c_g = (l_d > 0.0) ? std::sqrt(32.2 * l_d) : 1.0; - return std::max(c_pT_fts / (alpha * c_g), 1.0); + void setSurchargedState(double p0, double surcharge_time) { + solver.dps_preissmann_[0] = p0; + solver.dps_surcharge_t_[0] = surcharge_time; } +}; + +TEST_F(DPSDecayTest, AtTimeZeroReturnsP0) { + double p0 = 5.0; + setSurchargedState(p0, 0.0); + + // At t=0: P = 1 - (1 - P0) * exp(0) = 1 - (1 - P0) = P0 + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_NEAR(P, p0, 1e-10); +} + +TEST_F(DPSDecayTest, DecaysToward1) { + double p0 = 10.0; + setSurchargedState(p0, 0.0); + double P_at_0 = solver.computePreissmannNumber(0, 0.0); + + setSurchargedState(p0, 50.0); // 5 time constants + double P_at_50 = solver.computePreissmannNumber(0, 0.0); -} // namespace + EXPECT_GT(P_at_0, P_at_50); + EXPECT_NEAR(P_at_50, 1.0, 0.1); // Should be very close to 1 after 5τ +} + +TEST_F(DPSDecayTest, ExponentialDecayVerification) { + double p0 = 8.0; + double r = solver.dps_decay_time; // 10 s + double t = 5.0; // half a time constant + + setSurchargedState(p0, t); + double P = solver.computePreissmannNumber(0, 0.0); + + double expected = 1.0 - (1.0 - p0) * std::exp(-t / r); + EXPECT_NEAR(P, expected, 1e-10); +} -TEST(DPSOptions, DefaultsLiveInSimulationOptions) -{ +TEST_F(DPSDecayTest, AtInfiniteTimeConvergesTo1) { + double p0 = 20.0; + setSurchargedState(p0, 1e6); // Very long time + + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_NEAR(P, 1.0, 1e-6); +} + +TEST_F(DPSDecayTest, ZeroDecayTimeReturns1) { + solver.dps_decay_time = 0.0; + setSurchargedState(5.0, 1.0); + + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_DOUBLE_EQ(P, 1.0); +} + +TEST_F(DPSDecayTest, NotSurchargedReturnsCurrent) { + solver.dps_preissmann_[0] = 7.5; + solver.dps_surcharge_t_[0] = -1.0; // Not surcharged + + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_DOUBLE_EQ(P, 7.5); +} + +TEST_F(DPSDecayTest, NeverBelowOne) { + // Even with P0 < 1 (forced), result should be >= 1 + setSurchargedState(0.5, 2.0); // P0 < 1 (shouldn't happen normally) + double P = solver.computePreissmannNumber(0, 0.0); + EXPECT_GE(P, 1.0); +} + +// ============================================================================ +// 4. updateDPSState — surcharge onset, slot area, head +// ============================================================================ + +class DPSUpdateTest : public ::testing::Test { +protected: + DWSolver solver; SimulationContext ctx; - EXPECT_DOUBLE_EQ(ctx.options.dps_target_celerity, 25.0); - EXPECT_DOUBLE_EQ(ctx.options.dps_alpha, 3.0); - EXPECT_DOUBLE_EQ(ctx.options.dps_decay_time, 0.5); + XSectGroups groups; + std::vector xparams; + + void SetUp() override { + ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + xparams.resize(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xparams[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + groups.build(xparams.data(), 1); + + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(2, 1, groups); + } + + double aFull() const { return ctx.links.xsect_a_full[0]; } + double length() const { return ctx.links.mod_length[0]; } + double vFull() const { return aFull() * length(); } +}; + +TEST_F(DPSUpdateTest, NoSurchargeWhenVolumeUnderFull) { + ctx.links.volume[0] = vFull() * 0.9; + solver.updateDPSState(ctx, 1.0); + + EXPECT_LT(solver.dps_surcharge_t_[0], 0.0); // Not surcharged + EXPECT_DOUBLE_EQ(solver.dps_slot_area_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_head_[0], 0.0); } -TEST(DPSPublicApi, EnumValueIsStable) -{ - EXPECT_EQ(static_cast(SurchargeMethod::DYNAMIC_SLOT), 2); +TEST_F(DPSUpdateTest, SurchargeOnsetInitializesCorrectly) { + // Set volume above full + double excess = 10.0; // ft³ + ctx.links.volume[0] = vFull() + excess; + + solver.updateDPSState(ctx, 1.0); + + // Should be marked as surcharged + EXPECT_GE(solver.dps_surcharge_t_[0], 0.0); + // Initial P should be computed + EXPECT_GT(solver.dps_preissmann_[0], 0.0); + // Slot area should be positive + EXPECT_GT(solver.dps_slot_area_[0], 0.0); + // Slot head should be positive + EXPECT_GT(solver.dps_slot_head_[0], 0.0); +} + +TEST_F(DPSUpdateTest, SlotAreaEqualsExcessVolumeOverLength) { + // Eq. 14: Ts = excess_V / L (for first step where Ts_old = 0) + double excess = 50.0; + ctx.links.volume[0] = vFull() + excess; + + solver.updateDPSState(ctx, 1.0); + + double expected_ts = excess / length(); + EXPECT_NEAR(solver.dps_slot_area_[0], expected_ts, 1e-10); +} + +TEST_F(DPSUpdateTest, HeadComputationEq19) { + // Eq. 19: Δh_s = P² · ΔTs / (Af + Ts_old) + // For first step: Ts_old = 0, so Δh_s = P² · Ts / Af + double excess = 50.0; + ctx.links.volume[0] = vFull() + excess; + + solver.updateDPSState(ctx, 1.0); + + double ts = excess / length(); + double P = solver.dps_preissmann_[0]; + // P was set as initial P at onset, surcharge clock is 0, so P = P₀ + double expected_hs = P * P * ts / aFull(); + + EXPECT_NEAR(solver.dps_slot_head_[0], expected_hs, 1e-8); +} + +TEST_F(DPSUpdateTest, IncrementalSlotAreaUpdate) { + // Step 1: set excess volume → initial Ts + double excess1 = 50.0; + ctx.links.volume[0] = vFull() + excess1; + solver.updateDPSState(ctx, 1.0); + + double ts_after_1 = solver.dps_slot_area_[0]; + double hs_after_1 = solver.dps_slot_head_[0]; + + // Step 2: increase volume → Ts should increase by the incremental amount + double excess2 = 100.0; + ctx.links.volume[0] = vFull() + excess2; + solver.updateDPSState(ctx, 1.0); + + double ts_after_2 = solver.dps_slot_area_[0]; + double expected_ts2 = excess2 / length(); // total Ts at step 2 + + EXPECT_NEAR(ts_after_2, expected_ts2, 1e-10); + EXPECT_GT(ts_after_2, ts_after_1); + + // Head should have increased + EXPECT_GT(solver.dps_slot_head_[0], hs_after_1); +} + +TEST_F(DPSUpdateTest, SurchargeClockAdvances) { + double excess = 50.0; + ctx.links.volume[0] = vFull() + excess; + double dt = 2.0; + + // First step: onset → surcharge_t = 0 + solver.updateDPSState(ctx, dt); + EXPECT_DOUBLE_EQ(solver.dps_surcharge_t_[0], 0.0); + + // Second step: clock advances by dt + solver.updateDPSState(ctx, dt); + EXPECT_NEAR(solver.dps_surcharge_t_[0], dt, 1e-10); + + // Third step + solver.updateDPSState(ctx, dt); + EXPECT_NEAR(solver.dps_surcharge_t_[0], 2.0 * dt, 1e-10); +} + +// ============================================================================ +// 5. Depressurization and hysteresis +// ============================================================================ + +TEST_F(DPSUpdateTest, DepressurizationClearsState) { + // Surcharge first + ctx.links.volume[0] = vFull() + 50.0; + solver.updateDPSState(ctx, 1.0); + EXPECT_GE(solver.dps_surcharge_t_[0], 0.0); + + // Depressurize: volume below full + ctx.links.volume[0] = vFull() * 0.8; + solver.updateDPSState(ctx, 1.0); + + // State should be cleared + EXPECT_LT(solver.dps_surcharge_t_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_area_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_head_[0], 0.0); +} + +TEST_F(DPSUpdateTest, ResurchargeAfterDepressurization) { + // Surcharge → depressurize → resurcharge + ctx.links.volume[0] = vFull() + 50.0; + solver.updateDPSState(ctx, 1.0); + double p0_first = solver.dps_preissmann_[0]; + + ctx.links.volume[0] = vFull() * 0.5; + solver.updateDPSState(ctx, 1.0); + + // Resurcharge + ctx.links.volume[0] = vFull() + 30.0; + solver.updateDPSState(ctx, 1.0); + + // Should re-initialize with fresh P_0 + EXPECT_GE(solver.dps_surcharge_t_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_surcharge_t_[0], 0.0); // Clock resets + EXPECT_NEAR(solver.dps_preissmann_[0], p0_first, 1e-10); // Same pipe → same P_0 +} + +TEST_F(DPSUpdateTest, HeadNeverNegative) { + // Surcharge then reduce volume slightly (still above full) + ctx.links.volume[0] = vFull() + 100.0; + solver.updateDPSState(ctx, 1.0); + + // Reduce volume but keep above full → delta_ts is negative + ctx.links.volume[0] = vFull() + 10.0; + solver.updateDPSState(ctx, 1.0); + + // Head may decrease but should never go negative + EXPECT_GE(solver.dps_slot_head_[0], 0.0); +} + +TEST_F(DPSUpdateTest, SlotAreaNeverNegative) { + ctx.links.volume[0] = vFull() + 100.0; + solver.updateDPSState(ctx, 1.0); + + // Reduce to barely above full + ctx.links.volume[0] = vFull() + 0.001; + solver.updateDPSState(ctx, 1.0); + + EXPECT_GE(solver.dps_slot_area_[0], 0.0); +} + +// ============================================================================ +// 6. getCrownCutoff / getSlotWidth for DYNAMIC_SLOT +// ============================================================================ + +TEST(DPSSlotBehavior, CrownCutoffMatchesSlotMethod) { + DWSolver solver_dps; + solver_dps.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + DWSolver solver_slot; + solver_slot.surcharge_method = SurchargeMethod::SLOT; + + EXPECT_DOUBLE_EQ(solver_dps.getCrownCutoff(), solver_slot.getCrownCutoff()); + EXPECT_DOUBLE_EQ(solver_dps.getCrownCutoff(), SLOT_CROWN_CUTOFF); +} + +TEST(DPSSlotBehavior, SlotWidthUsesSjobergFormula) { + // For DYNAMIC_SLOT, at depth = y_full * 0.99 (above SLOT_CROWN_CUTOFF), + // the Sjoberg formula should give a positive width. + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + double y_full = 3.0; + double w_max = 3.0; + double y = y_full * 0.99; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_GT(w, 0.0); + + // Should match what SLOT method gives + DWSolver solver_slot; + solver_slot.surcharge_method = SurchargeMethod::SLOT; + double w_slot = solver_slot.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_DOUBLE_EQ(w, w_slot); +} + +TEST(DPSSlotBehavior, SlotWidthZeroBelowCrownCutoff) { + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + double y_full = 3.0; + double w_max = 3.0; + double y = y_full * 0.5; // Well below crown cutoff + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_DOUBLE_EQ(w, 0.0); +} + +TEST(DPSSlotBehavior, SlotWidthCapAt178) { + // For y/yFull > 1.78: slot width = 1% of max width + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + double y_full = 3.0; + double w_max = 3.0; + double y = y_full * 2.0; // > 1.78 * yFull + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_NEAR(w, 0.01 * w_max, 1e-10); +} + +// ============================================================================ +// 7. Open-shape bypass: open conduits never engage DPS +// ============================================================================ + +class DPSOpenShapeTest : public ::testing::Test { +protected: + DWSolver solver; + SimulationContext ctx; + XSectGroups groups; + std::vector xparams; + + void SetUp() override { + ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + // Change to open shape + ctx.links.xsect_shape[0] = XsectShape::TRAPEZOIDAL; + + xparams.resize(1); + double p[4] = {3.0, 5.0, 1.0, 1.0}; + xsect::setParams(xparams[0], static_cast(XsectShape::TRAPEZOIDAL), p, 1.0); + groups.build(xparams.data(), 1); + + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(2, 1, groups); + } +}; + +TEST_F(DPSOpenShapeTest, OpenShapeNeverSurcharged) { + // Put volume way above "full" + double af = ctx.links.xsect_a_full[0]; + double L = ctx.links.mod_length[0]; + ctx.links.volume[0] = af * L * 2.0; // Double full volume + + solver.updateDPSState(ctx, 1.0); + + EXPECT_LT(solver.dps_surcharge_t_[0], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_area_[0], 0.0); +} + +TEST_F(DPSOpenShapeTest, SlotWidthZeroForOpenShape) { + DWSolver s; + s.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + + double w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::TRAPEZOIDAL); + EXPECT_DOUBLE_EQ(w, 0.0); + + w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::RECT_OPEN); + EXPECT_DOUBLE_EQ(w, 0.0); + + w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::TRIANGULAR); + EXPECT_DOUBLE_EQ(w, 0.0); + + w = s.getSlotWidth(5.0, 3.0, 5.0, XsectShape::PARABOLIC); + EXPECT_DOUBLE_EQ(w, 0.0); +} + +// ============================================================================ +// 8. Mass conservation: slot area × length ≈ excess volume +// ============================================================================ + +TEST(DPSMassConservation, SlotAreaTimesLengthEqualsExcess) { + auto ctx = buildMinimalContext(3.0, 500.0, 100.0, 99.5); + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(2, 1, groups); + + double af = ctx.links.xsect_a_full[0]; + double L = ctx.links.mod_length[0]; + double v_full = af * L; + + // Test for various excess volumes + double excesses[] = {1.0, 10.0, 50.0, 200.0, 1000.0}; + for (double excess : excesses) { + // Reset state + solver.dps_slot_area_[0] = 0.0; + solver.dps_slot_head_[0] = 0.0; + solver.dps_preissmann_[0] = 0.0; + solver.dps_surcharge_t_[0] = -1.0; + + ctx.links.volume[0] = v_full + excess; + solver.updateDPSState(ctx, 1.0); + + double Ts_times_L = solver.dps_slot_area_[0] * L; + EXPECT_NEAR(Ts_times_L, excess, 1e-6) + << "Failed for excess = " << excess; + } +} + +// ============================================================================ +// 9. Energy conservation: no spurious head when P decreases over time +// ============================================================================ +// The key innovation of the DPS (Eq. 19) is using incremental ΔTs instead of +// total Ts to compute head. This prevents energy-source artifacts when P decays +// and the effective slot width compresses prior slot volume. + +TEST(DPSEnergyConservation, DecreasingExcessReducesHead) { + // If excess volume decreases, head should also decrease (or stay zero) + auto ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.dps_decay_time = 10.0; + solver.init(2, 1, groups); + + double af = ctx.links.xsect_a_full[0]; + double L = ctx.links.mod_length[0]; + double v_full = af * L; + + // Step 1: large excess → large head + ctx.links.volume[0] = v_full + 200.0; + solver.updateDPSState(ctx, 1.0); + double h1 = solver.dps_slot_head_[0]; + EXPECT_GT(h1, 0.0); + + // Step 2: same excess but P has decayed (surcharge clock advanced) + // delta_Ts = 0 (volume hasn't changed), so delta_hs = 0 + // Head should NOT increase when nothing changes + solver.updateDPSState(ctx, 1.0); + double h2 = solver.dps_slot_head_[0]; + EXPECT_NEAR(h2, h1, 1e-10); // No change in head when delta_Ts = 0 + + // Step 3: reduce excess → delta_Ts is negative → head should go DOWN + ctx.links.volume[0] = v_full + 100.0; + solver.updateDPSState(ctx, 1.0); + double h3 = solver.dps_slot_head_[0]; + + // Head should decrease (or at worst stay same due to P²) + // The delta_hs = P² * (-delta) / (Af + Ts_old) → negative increment + // Total head = h2 + negative → h3 < h2 + EXPECT_LE(h3, h2); } -TEST(DPSPublicApi, InitWithContextExposesDpsArraysInSnapshot) -{ - SimulationContext ctx = buildMinimalContext(3.0); - ctx.options.surcharge_method = static_cast(SurchargeMethod::DYNAMIC_SLOT); +TEST(DPSEnergyConservation, SteadyVolumeNoHeadGrowth) { + // Hold excess volume constant for many timesteps. + // Head should not grow — verifies no energy-source artifact. + auto ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.dps_decay_time = 10.0; + solver.init(2, 1, groups); + + double v_full = ctx.links.xsect_a_full[0] * ctx.links.mod_length[0]; + ctx.links.volume[0] = v_full + 100.0; + + // First step establishes state + solver.updateDPSState(ctx, 1.0); + double h_initial = solver.dps_slot_head_[0]; + + // Many timesteps at constant volume + for (int i = 0; i < 100; ++i) { + solver.updateDPSState(ctx, 1.0); + } + + double h_final = solver.dps_slot_head_[0]; + + // Head should equal the head after step 1 (no growth when delta_Ts = 0) + EXPECT_NEAR(h_final, h_initial, 1e-10); +} + +// ============================================================================ +// 10. Celerity verification: P relates to wave speed +// ============================================================================ + +TEST(DPSCelerity, PreissmannNumberRelatesCelerity) { + // Eq. 8: P = c_T / c_p where c_p is the local pressure celerity + // At onset, P_0 = c_T / (β · c_g), so c_p_initial = β · c_g + // This means the initial effective celerity is β times the gravity-wave celerity. + + auto ctx = buildMinimalContext(4.0, 1000.0, 100.0, 99.0); + std::vector xp(1); + double p[4] = {4.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); + + DWSolver solver; + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.dps_target_celerity = 200.0; + solver.dps_shock_param = 2.0; + solver.init(2, 1, groups); + + double P0 = solver.computeInitialPreissmannNumber(0, ctx); + + // Verify: c_T / P_0 should equal β · c_g + double af = ctx.links.xsect_a_full[0]; + double wm = ctx.links.xsect_w_max[0]; + double hd = af / wm; + double cg = std::sqrt(32.2 * hd); + double expected_cp = solver.dps_shock_param * cg; + double actual_cp = solver.dps_target_celerity / P0; + + EXPECT_NEAR(actual_cp, expected_cp, 1e-8); +} + +// ============================================================================ +// 11. Multi-barrel conduit handling +// ============================================================================ + +TEST(DPSMultiBarrel, VolumeCorrectlyDividedByBarrels) { + auto ctx = buildMinimalContext(3.0, 1000.0, 100.0, 99.0); + ctx.links.barrels[0] = 3; + + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); - XSectGroups groups = buildSingleCircularGroup(3.0); DWSolver solver; solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.init(2, 1, groups, ctx); + solver.init(2, 1, groups); - SnapshotCapture captured = snapshotFor(solver, ctx, 2, 1); - ASSERT_NE(captured.snap.dps_slot_area, nullptr); - ASSERT_NE(captured.snap.dps_surcharge_head, nullptr); - ASSERT_NE(captured.snap.dps_preissmann_num, nullptr); - EXPECT_GE(captured.snap.dps_preissmann_num[0], 1.0); + double af = ctx.links.xsect_a_full[0]; + double L = ctx.links.mod_length[0]; + double v_full_per_barrel = af * L; + double excess_per_barrel = 50.0; + + // Total volume = 3 barrels * (v_full + excess) per barrel + ctx.links.volume[0] = 3.0 * (v_full_per_barrel + excess_per_barrel); + solver.updateDPSState(ctx, 1.0); + + // Slot area should be based on per-barrel excess + double expected_ts = excess_per_barrel / L; + EXPECT_NEAR(solver.dps_slot_area_[0], expected_ts, 1e-10); } -TEST(DPSPublicApi, ExtranModeDoesNotExposeDpsArrays) -{ - SimulationContext ctx = buildMinimalContext(3.0); - XSectGroups groups = buildSingleCircularGroup(3.0); +// ============================================================================ +// 12. DPS state initialization after init() +// ============================================================================ + +TEST(DPSInit, StateVectorsInitializedCorrectly) { + std::vector xp(3); + double p[4] = {2.0, 0, 0, 0}; + for (int i = 0; i < 3; ++i) + xsect::setParams(xp[i], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 3); DWSolver solver; - solver.surcharge_method = SurchargeMethod::EXTRAN; - solver.init(2, 1, groups, ctx); + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver.init(4, 3, groups); + + for (int i = 0; i < 3; ++i) { + EXPECT_DOUBLE_EQ(solver.dps_slot_area_[i], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_slot_head_[i], 0.0); + EXPECT_DOUBLE_EQ(solver.dps_preissmann_[i], 0.0); + EXPECT_LT(solver.dps_surcharge_t_[i], 0.0); + } +} + +// ============================================================================ +// 13. Different pipe sizes: verify P_0 scales correctly +// ============================================================================ + +TEST(DPSScaling, LargerPipeGivesSmallerP0) { + // Larger pipe → larger c_g → smaller P_0 + auto ctx_small = buildMinimalContext(2.0, 1000.0, 100.0, 99.0); + auto ctx_large = buildMinimalContext(6.0, 1000.0, 100.0, 99.0); + + std::vector xp_s(1), xp_l(1); + double ps[4] = {2.0, 0, 0, 0}; + double pl[4] = {6.0, 0, 0, 0}; + xsect::setParams(xp_s[0], static_cast(XsectShape::CIRCULAR), ps, 1.0); + xsect::setParams(xp_l[0], static_cast(XsectShape::CIRCULAR), pl, 1.0); + + XSectGroups gs, gl; + gs.build(xp_s.data(), 1); + gl.build(xp_l.data(), 1); - SnapshotCapture captured = snapshotFor(solver, ctx, 2, 1); - EXPECT_EQ(captured.snap.dps_slot_area, nullptr); - EXPECT_EQ(captured.snap.dps_surcharge_head, nullptr); - EXPECT_EQ(captured.snap.dps_preissmann_num, nullptr); + DWSolver solver_s, solver_l; + solver_s.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver_l.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + solver_s.init(2, 1, gs); + solver_l.init(2, 1, gl); + + double p0_small = solver_s.computeInitialPreissmannNumber(0, ctx_small); + double p0_large = solver_l.computeInitialPreissmannNumber(0, ctx_large); + + // Larger pipe has larger c_g → smaller P_0 + EXPECT_GT(p0_small, p0_large); } -TEST(DPSPublicApi, InitialPreissmannNumberMatchesConfiguredOptions) -{ - SimulationContext ctx = buildMinimalContext(3.0); - ctx.options.surcharge_method = static_cast(SurchargeMethod::DYNAMIC_SLOT); - ctx.options.dps_target_celerity = 25.0; - ctx.options.dps_alpha = 3.0; +// ============================================================================ +// 14. Verify computePreissmannNumber at half-life time +// ============================================================================ + +TEST(DPSDecayPrecision, HalfLifeCheck) { + // For a first-order decay, at t = r * ln(2), the quantity (P-1) should + // be half of (P_0 - 1). + std::vector xp(1); + double p[4] = {3.0, 0, 0, 0}; + xsect::setParams(xp[0], static_cast(XsectShape::CIRCULAR), p, 1.0); + XSectGroups groups; + groups.build(xp.data(), 1); - XSectGroups groups = buildSingleCircularGroup(3.0); DWSolver solver; solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - solver.init(2, 1, groups, ctx); + solver.dps_decay_time = 10.0; + solver.init(2, 1, groups); + + double p0 = 9.0; // P_0 - 1 = 8 + double half_life = solver.dps_decay_time * std::log(2.0); + + solver.dps_preissmann_[0] = p0; + solver.dps_surcharge_t_[0] = half_life; + + double P = solver.computePreissmannNumber(0, 0.0); - SnapshotCapture captured = snapshotFor(solver, ctx, 2, 1); - ASSERT_NE(captured.snap.dps_preissmann_num, nullptr); - EXPECT_NEAR(captured.snap.dps_preissmann_num[0], expectedP0(ctx), 1e-9); + // At half-life: P - 1 = (P_0 - 1) * 0.5 = 4, so P = 5 + double expected = 1.0 + (p0 - 1.0) * 0.5; + EXPECT_NEAR(P, expected, 1e-10); } -TEST(DPSPublicApi, HigherTargetCelerityIncreasesInitialPreissmannNumber) -{ - SimulationContext low_ctx = buildMinimalContext(3.0); - low_ctx.options.surcharge_method = static_cast(SurchargeMethod::DYNAMIC_SLOT); - low_ctx.options.dps_target_celerity = 20.0; +// ============================================================================ +// 15. Slot width as function of depth — smooth Sjoberg transition +// (User request #1) +// ============================================================================ - SimulationContext high_ctx = low_ctx; - high_ctx.options.dps_target_celerity = 40.0; +// Shared fixture for slot geometry tests on a circular pipe. +class SlotGeometryTest : public ::testing::Test { +protected: + DWSolver solver; + XSectParams xs; + double y_full, a_full, w_max, r_full; - XSectGroups groups = buildSingleCircularGroup(3.0); + void SetUp() override { + solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - DWSolver low_solver; - low_solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - low_solver.init(2, 1, groups, low_ctx); - SnapshotCapture low_captured = snapshotFor(low_solver, low_ctx, 2, 1); + double p[4] = {3.0, 0, 0, 0}; // 3 ft diameter circular + xsect::setParams(xs, static_cast(XsectShape::CIRCULAR), p, 1.0); - DWSolver high_solver; - high_solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - high_solver.init(2, 1, groups, high_ctx); - SnapshotCapture high_captured = snapshotFor(high_solver, high_ctx, 2, 1); + y_full = xs.y_full; // 3.0 + a_full = xs.a_full; + w_max = xs.w_max; // 3.0 + r_full = xs.r_full; + } + + /// Compute combined area at depth y: physical xsect below crown, slot above. + double totalArea(double y) const { + if (y >= y_full) { + double w_slot = solver.getSlotWidth(y, y_full, w_max, + XsectShape::CIRCULAR); + return solver.getSlotArea(y, y_full, a_full, w_slot); + } + return xsect::getAofY(xs, y); + } - ASSERT_NE(low_captured.snap.dps_preissmann_num, nullptr); - ASSERT_NE(high_captured.snap.dps_preissmann_num, nullptr); - EXPECT_GT(high_captured.snap.dps_preissmann_num[0], low_captured.snap.dps_preissmann_num[0]); + /// Compute combined top width: physical xsect below crown, slot above. + double totalWidth(double y) const { + double w_slot = solver.getSlotWidth(y, y_full, w_max, + XsectShape::CIRCULAR); + if (w_slot > 0.0) return w_slot; + return xsect::getWofY(xs, y); + } +}; + +TEST_F(SlotGeometryTest, SjobergSweepMonotonicallyDecreasing) { + // Slot width from Sjoberg formula should decrease monotonically as depth + // increases above the crown (the slot narrows for deeper surcharge). + double prev_w = 1e10; + int n_steps = 50; + double crown = y_full * SLOT_CROWN_CUTOFF; + double y_max = y_full * 1.78; + double dy = (y_max - crown) / n_steps; + + for (int i = 0; i <= n_steps; ++i) { + double y = crown + i * dy; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_GT(w, 0.0) << "Slot width must be positive at y/yf = " << y / y_full; + EXPECT_LE(w, prev_w) << "Slot width must decrease with depth at y/yf = " + << y / y_full; + prev_w = w; + } } -TEST(DPSPublicApi, HigherAlphaDecreasesInitialPreissmannNumber) -{ - SimulationContext low_alpha_ctx = buildMinimalContext(3.0); - low_alpha_ctx.options.surcharge_method = static_cast(SurchargeMethod::DYNAMIC_SLOT); - low_alpha_ctx.options.dps_alpha = 2.0; +TEST_F(SlotGeometryTest, SjobergWidthMatchesFormulaExactly) { + // Verify the formula: w = wMax * 0.5423 * exp(-yNorm^2.4) at several points. + double depths[] = {0.99, 1.0, 1.05, 1.2, 1.5, 1.75}; + for (double yNorm : depths) { + double y = y_full * yNorm; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double expected = w_max * 0.5423 * std::exp(-std::pow(yNorm, 2.4)); + EXPECT_NEAR(w, expected, 1e-12) + << "Sjoberg formula mismatch at y/yf = " << yNorm; + } +} - SimulationContext high_alpha_ctx = low_alpha_ctx; - high_alpha_ctx.options.dps_alpha = 6.0; +TEST_F(SlotGeometryTest, SlotWidthTransitionRegionSmooth) { + // Check that max step-to-step change in slot width is bounded (no jumps). + // Use a fine sweep from 0.98 to 1.02 across the crown cutoff. + int n = 200; + double y_lo = y_full * 0.98; + double y_hi = y_full * 1.02; + double dy = (y_hi - y_lo) / n; - XSectGroups groups = buildSingleCircularGroup(3.0); + double max_delta_w = 0.0; + double prev_w = solver.getSlotWidth(y_lo, y_full, w_max, XsectShape::CIRCULAR); - DWSolver low_alpha_solver; - low_alpha_solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - low_alpha_solver.init(2, 1, groups, low_alpha_ctx); - SnapshotCapture low_alpha_captured = snapshotFor(low_alpha_solver, low_alpha_ctx, 2, 1); + for (int i = 1; i <= n; ++i) { + double y = y_lo + i * dy; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double delta = std::fabs(w - prev_w); + if (delta > max_delta_w) max_delta_w = delta; + prev_w = w; + } + + // The Sjoberg formula at the cutoff gives: + // w(0.985257) = 3 * 0.5423 * exp(-0.985257^2.4) ≈ 0.606 + // w(0.98) = 0 (below cutoff) + // So there IS a jump at the cutoff point itself of ~0.606. + // But within the active slot region (above cutoff), changes should be small. + // Verify that the jump is at most wMax * 0.5423 * exp(-cutoff^2.4). + double w_at_cutoff = w_max * 0.5423 * + std::exp(-std::pow(SLOT_CROWN_CUTOFF, 2.4)); + EXPECT_LE(max_delta_w, w_at_cutoff + 0.01) + << "Slot width jump is bounded by value at cutoff"; +} - DWSolver high_alpha_solver; - high_alpha_solver.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; - high_alpha_solver.init(2, 1, groups, high_alpha_ctx); - SnapshotCapture high_alpha_captured = snapshotFor(high_alpha_solver, high_alpha_ctx, 2, 1); +// ============================================================================ +// 16. Cross-sectional area, hyd. radius with slot active vs inactive +// (User request #2) +// ============================================================================ - ASSERT_NE(low_alpha_captured.snap.dps_preissmann_num, nullptr); - ASSERT_NE(high_alpha_captured.snap.dps_preissmann_num, nullptr); - EXPECT_LT(high_alpha_captured.snap.dps_preissmann_num[0], low_alpha_captured.snap.dps_preissmann_num[0]); +TEST_F(SlotGeometryTest, AreaBelowCrownUsesPhysicalXsect) { + // At 50% depth, area should come from the physical circular cross-section. + double y = y_full * 0.5; + double A_phys = xsect::getAofY(xs, y); + double w_slot = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + + EXPECT_DOUBLE_EQ(w_slot, 0.0); // Slot not active below crown + EXPECT_GT(A_phys, 0.0); +} + +TEST_F(SlotGeometryTest, AreaAboveCrownIncludesSlotContribution) { + // Above crown: A = A_full + (y - y_full) * w_slot + double y = y_full * 1.1; + double w_slot = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_GT(w_slot, 0.0); + + double A_slot = solver.getSlotArea(y, y_full, a_full, w_slot); + double A_expected = a_full + (y - y_full) * w_slot; + EXPECT_NEAR(A_slot, A_expected, 1e-12); + // Must exceed A_full + EXPECT_GT(A_slot, a_full); +} + +TEST_F(SlotGeometryTest, AreaAtFullIsAfull) { + double y = y_full; + double w_slot = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A_slot = solver.getSlotArea(y, y_full, a_full, w_slot); + + // At exactly y_full, (y - y_full) = 0, so A = A_full regardless of slot + EXPECT_NEAR(A_slot, a_full, 1e-12); +} + +TEST_F(SlotGeometryTest, AreaMonotonicallyIncreasingAboveCrown) { + double prev_A = a_full; + int n = 50; + double dy = y_full * 0.02; // 2% steps from 1.0 to 2.0 + + for (int i = 1; i <= n; ++i) { + double y = y_full + i * dy; + double A = totalArea(y); + EXPECT_GT(A, prev_A) + << "Area must increase with depth at y/yf = " << y / y_full; + prev_A = A; + } +} + +TEST_F(SlotGeometryTest, HydRadAboveCrownEqualsRfull) { + // Preissmann slot convention: hydraulic radius stays at R_full + // for depths above the crown. + double depths[] = {1.0, 1.1, 1.5, 2.0, 5.0}; + for (double yNorm : depths) { + double y = y_full * yNorm; + double R = solver.getSlotHydRad(y, y_full, r_full); + EXPECT_DOUBLE_EQ(R, r_full) + << "Hyd. radius should be R_full above crown at y/yf = " << yNorm; + } +} + +TEST_F(SlotGeometryTest, HydRadBelowCrownFromXsect) { + // Below crown, the solver defers to the batch xsect lookup. + // getSlotHydRad returns r_full even below, because the caller is expected + // to use batch values. But the physical value should differ. + double y = y_full * 0.5; + double R_phys = xsect::getRofY(xs, y); + EXPECT_GT(R_phys, 0.0); + EXPECT_NE(R_phys, r_full); // Physical R at half-depth ≠ R_full +} + +// ============================================================================ +// 17. Top width returns slot width (not zero) above crown — Sjoberg +// (User request #3) +// ============================================================================ + +TEST_F(SlotGeometryTest, TopWidthPositiveAboveCrown) { + // Sweep from crown cutoff to 1.78*y_full; slot width should always be > 0. + int n = 100; + double y_lo = y_full * SLOT_CROWN_CUTOFF; + double y_hi = y_full * 1.78; + double dy = (y_hi - y_lo) / n; + + for (int i = 0; i <= n; ++i) { + double y = y_lo + i * dy; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_GT(w, 0.0) + << "Top width must be positive (slot active) at y/yf = " + << y / y_full; + } +} + +TEST_F(SlotGeometryTest, TopWidthAboveCrownLessThanPhysicalMaxWidth) { + // The slot width should always be much less than the physical w_max. + // At crown cutoff, Sjoberg gives ~0.61 * w_max. At deeper depths it's even less. + double y = y_full * 1.0; // At crown + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_LT(w, w_max) + << "Slot width must be narrower than physical max width"; +} + +TEST_F(SlotGeometryTest, TopWidthBeyond178CapAt1Percent) { + // Beyond 1.78 * y_full, slot width caps at 1% of w_max + double depths[] = {1.79, 2.0, 3.0, 10.0, 100.0}; + double expected = 0.01 * w_max; + for (double yNorm : depths) { + double y = y_full * yNorm; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_NEAR(w, expected, 1e-12) + << "Beyond 1.78: slot width must be 1% of wMax at y/yf = " << yNorm; + } +} + +// ============================================================================ +// 18. Edge cases: exact crown, slightly above/below, very large +// (User request #4) +// ============================================================================ + +TEST_F(SlotGeometryTest, EdgeDepthExactlyAtCrownCutoff) { + // At exactly the crown cutoff, the Sjoberg formula should activate. + double y = y_full * SLOT_CROWN_CUTOFF; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + // yNorm == SLOT_CROWN_CUTOFF is NOT < SLOT_CROWN_CUTOFF, so slot is active + double expected = w_max * 0.5423 * + std::exp(-std::pow(SLOT_CROWN_CUTOFF, 2.4)); + EXPECT_NEAR(w, expected, 1e-12); +} + +TEST_F(SlotGeometryTest, EdgeDepthJustBelowCutoff) { + // One ULP below cutoff — slot should be inactive (return 0). + double y = y_full * std::nextafter(SLOT_CROWN_CUTOFF, 0.0); + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_DOUBLE_EQ(w, 0.0); +} + +TEST_F(SlotGeometryTest, EdgeDepthJustAboveCutoff) { + // One ULP above cutoff — slot should be active. + double y = y_full * std::nextafter(SLOT_CROWN_CUTOFF, 2.0); + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_GT(w, 0.0); +} + +TEST_F(SlotGeometryTest, EdgeDepthExactlyAtFull) { + double y = y_full; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A = solver.getSlotArea(y, y_full, a_full, w); + + // y_full / y_full = 1.0 > SLOT_CROWN_CUTOFF, so slot is active + EXPECT_GT(w, 0.0); + // But A = A_full + 0 * w = A_full (no extra volume at exact crown) + EXPECT_NEAR(A, a_full, 1e-12); +} + +TEST_F(SlotGeometryTest, EdgeDepthAtSlotCapBoundary) { + // At exactly 1.78 * y_full: should still use Sjoberg, not the cap. + double y = y_full * 1.78; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double w_sjoberg = w_max * 0.5423 * std::exp(-std::pow(1.78, 2.4)); + EXPECT_NEAR(w, w_sjoberg, 1e-12); + + // Just above 1.78: should use cap + double y2 = y_full * std::nextafter(1.78, 2.0); + double w2 = solver.getSlotWidth(y2, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_NEAR(w2, 0.01 * w_max, 1e-12); +} + +TEST_F(SlotGeometryTest, EdgeVeryLargeDepth) { + // At extreme depth (100x pipe diameter), slot still returns the cap value. + double y = y_full * 100.0; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_NEAR(w, 0.01 * w_max, 1e-12); + + // Area should be very large + double A = solver.getSlotArea(y, y_full, a_full, w); + EXPECT_GT(A, a_full * 10.0); +} + +TEST_F(SlotGeometryTest, EdgeZeroDepth) { + double w = solver.getSlotWidth(0.0, y_full, w_max, XsectShape::CIRCULAR); + EXPECT_DOUBLE_EQ(w, 0.0); +} + +TEST_F(SlotGeometryTest, EdgeYfullZero) { + // y_full = 0 should return 0 without division by zero. + double w = solver.getSlotWidth(1.0, 0.0, 3.0, XsectShape::CIRCULAR); + EXPECT_DOUBLE_EQ(w, 0.0); +} + +// ============================================================================ +// 19. Slot parameter sensitivity → wave celerity impact +// (User request #5) +// ============================================================================ + +TEST_F(SlotGeometryTest, WiderSlotGivesSlowerCelerity) { + // Wave celerity in a Preissmann slot: c = sqrt(g * A / W) + // where A = A_full + (y-yf)*W_slot and W = W_slot. + // At y = y_full (no extra depth yet): c = sqrt(g * A_full / W_slot) + // Wider slot → smaller c (more compressible). + + double y = y_full * 1.01; // Just above crown + + // Default DYNAMIC_SLOT Sjoberg width + DWSolver solver_ds; + solver_ds.surcharge_method = SurchargeMethod::DYNAMIC_SLOT; + double w_ds = solver_ds.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A_ds = solver_ds.getSlotArea(y, y_full, a_full, w_ds); + double c_ds = std::sqrt(32.2 * A_ds / w_ds); + + // EXTRAN uses y_full * 0.001 as fixed slot width (narrower → faster) + DWSolver solver_ex; + solver_ex.surcharge_method = SurchargeMethod::EXTRAN; + double w_ex = solver_ex.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A_ex = solver_ex.getSlotArea(y, y_full, a_full, w_ex); + double c_ex = (w_ex > 0.0) ? std::sqrt(32.2 * A_ex / w_ex) : 0.0; + + // EXTRAN has much narrower slot → much faster wave celerity + if (w_ex > 0.0) { + EXPECT_GT(c_ex, c_ds) + << "Narrower EXTRAN slot should give faster celerity than Sjoberg"; + } +} + +TEST_F(SlotGeometryTest, CelerityDecreasesWithDepthAboveCrown) { + // As depth increases above crown, the Sjoberg formula narrows the slot. + // Narrower slot → faster celerity (slot acts like column of water). + // But area also increases with depth, so c = sqrt(g*A/W). + // Net effect: since W shrinks faster than A grows, c should INCREASE + // with depth in the Sjoberg region. + + double prev_c = 0.0; + int n = 20; + double y_lo = y_full * 1.01; + double y_hi = y_full * 1.70; + double dy = (y_hi - y_lo) / n; + + for (int i = 0; i <= n; ++i) { + double y = y_lo + i * dy; + double w = solver.getSlotWidth(y, y_full, w_max, XsectShape::CIRCULAR); + double A = solver.getSlotArea(y, y_full, a_full, w); + if (w > 0.0) { + double c = std::sqrt(32.2 * A / w); + EXPECT_GT(c, prev_c) + << "Celerity should increase as slot narrows at y/yf = " + << y / y_full; + prev_c = c; + } + } +} + +TEST_F(SlotGeometryTest, CelerityAtCrownCutoffBoundsGravityWave) { + // At the crown cutoff, the slot opens with width ≈ 0.61 * w_max. + // The gravity-wave celerity for the open pipe is c_g = sqrt(g * A_full / w_max). + // The slot celerity at cutoff should be in the same ballpark but slower + // (wider effective width → slower). + + double w_cutoff = solver.getSlotWidth(y_full * SLOT_CROWN_CUTOFF, + y_full, w_max, XsectShape::CIRCULAR); + double A_cutoff = a_full; // approximately A_full at crown + double c_slot = std::sqrt(32.2 * A_cutoff / w_cutoff); + + double c_gravity = std::sqrt(32.2 * a_full / w_max); + + // Slot celerity should be faster than gravity wave (slot is narrower than + // pipe width, so sqrt(g*A/W_slot) > sqrt(g*A/W_max)) + EXPECT_GT(c_slot, c_gravity); +} + +// ============================================================================ +// 20. Numerical continuity: A(h) and dA/dh continuous across transition +// (User request #6) +// ============================================================================ + +TEST_F(SlotGeometryTest, AreaContinuousAtCrown) { + // At y = y_full, physical area should equal A_full. + // The slot area formula at y = y_full gives: A_full + 0 * w_slot = A_full. + // So there should be no jump in area at the crown. + + double A_phys_at_crown = xsect::getAofY(xs, y_full); + double w_at_crown = solver.getSlotWidth(y_full, y_full, w_max, + XsectShape::CIRCULAR); + double A_slot_at_crown = solver.getSlotArea(y_full, y_full, a_full, + w_at_crown); + + EXPECT_NEAR(A_phys_at_crown, a_full, 1e-6) + << "Physical area at crown should equal A_full"; + EXPECT_NEAR(A_slot_at_crown, a_full, 1e-12) + << "Slot area at crown should equal A_full"; + EXPECT_NEAR(A_phys_at_crown, A_slot_at_crown, 1e-6) + << "No area jump at the crown transition"; +} + +TEST_F(SlotGeometryTest, dAdh_ContinuousAcrossCrown) { + // Compute dA/dy using finite differences on both sides of y_full. + // Below crown: dA/dy = physical cross-section width W(y) + // Above crown: dA/dy = slot_width (from getSlotWidth formula) + // + // At y = y_full for a circular pipe, physical W → 0 (crown is a point). + // The Sjoberg slot opens at the cutoff (0.985*yf) with w ≈ 0.61*wMax. + // So there IS an inherent mathematical jump in dA/dy at the crown cutoff. + // However, the cutoff is intentionally set below the physical crown + // so that the slot activates BEFORE the physical width hits zero, + // creating an overlap region where both contribute. The Sjoberg formula + // is designed so the combined width transitions smoothly. + // + // Test: verify that in the region just above the cutoff, the slot-augmented + // dA/dy doesn't have large discontinuities relative to the step size. + + double eps = 1e-6; + int n = 100; + double y_lo = y_full * 0.90; + double y_hi = y_full * 1.10; + double dy = (y_hi - y_lo) / n; + + std::vector areas(n + 1); + for (int i = 0; i <= n; ++i) { + areas[i] = totalArea(y_lo + i * dy); + } + + // Compute first derivative via central differences (interior points) + std::vector dAdh(n - 1); + for (int i = 1; i < n; ++i) { + dAdh[i - 1] = (areas[i + 1] - areas[i - 1]) / (2.0 * dy); + } + + // Verify dA/dh is always non-negative (area is monotonically increasing) + for (int i = 0; i < static_cast(dAdh.size()); ++i) { + double y = y_lo + (i + 1) * dy; + EXPECT_GE(dAdh[i], -eps) + << "dA/dh must be non-negative at y/yf = " << y / y_full; + } + + // Verify dA/dh doesn't have large jumps (second derivative bounded) + double max_d2Adh2 = 0.0; + for (int i = 1; i < static_cast(dAdh.size()); ++i) { + double d2 = std::fabs(dAdh[i] - dAdh[i - 1]) / dy; + if (d2 > max_d2Adh2) max_d2Adh2 = d2; + } + + // The second derivative should be bounded — not infinite. + // For a 3 ft pipe, reasonable upper bound is ~100 (dimensionless, ft²/ft²). + EXPECT_LT(max_d2Adh2, 1000.0) + << "d²A/dh² should be bounded across the crown transition"; +} + +TEST_F(SlotGeometryTest, AreaContinuousAtCutoffFiniteDifference) { + // Fine finite-difference check right at the crown cutoff boundary. + // A(y-eps) should be close to A(y+eps) with no large jump. + + double y_cutoff = y_full * SLOT_CROWN_CUTOFF; + double eps = y_full * 1e-8; + + double A_below = totalArea(y_cutoff - eps); + double A_at = totalArea(y_cutoff); + double A_above = totalArea(y_cutoff + eps); + + // The area itself should be continuous (values should be close) + EXPECT_NEAR(A_below, A_at, 0.01) + << "Area should be continuous at the crown cutoff (below vs at)"; + EXPECT_NEAR(A_at, A_above, 0.01) + << "Area should be continuous at the crown cutoff (at vs above)"; +} + +TEST_F(SlotGeometryTest, WidthTransitionAtCutoff) { + // The Sjoberg formula is designed so that the slot width at the cutoff + // approximates the physical pipe width, creating a smooth handoff. + // For a circular pipe at y/yf = 0.985, the physical width is very narrow + // (approaching 0 at the crown). The Sjoberg slot width there is ~0.61 * D. + // + // This test documents the actual magnitudes — the slot is intentionally + // wider than the vanishing physical width to avoid infinite celerity. + + double y_cutoff = y_full * SLOT_CROWN_CUTOFF; + double w_phys = xsect::getWofY(xs, y_cutoff); + double w_slot = solver.getSlotWidth(y_cutoff, y_full, w_max, + XsectShape::CIRCULAR); + + // Both should be positive at the cutoff + EXPECT_GT(w_phys, 0.0); + EXPECT_GT(w_slot, 0.0); + + // The slot width should be larger than the vanishing physical width + // (this is the whole point — prevent near-zero width → infinite celerity) + EXPECT_GT(w_slot, w_phys) + << "Slot width should exceed physical width near the crown to " + "prevent infinite celerity"; +} + +TEST_F(SlotGeometryTest, AreaAndDerivativeSweepNoNaN) { + // Sweep across the full range and verify no NaN or Inf values. + int n = 500; + double dy = y_full * 3.0 / n; + + for (int i = 0; i <= n; ++i) { + double y = i * dy; + if (y <= 0.0) continue; + + double A = totalArea(y); + double W = totalWidth(y); + + EXPECT_FALSE(std::isnan(A)) << "Area is NaN at y = " << y; + EXPECT_FALSE(std::isinf(A)) << "Area is Inf at y = " << y; + EXPECT_FALSE(std::isnan(W)) << "Width is NaN at y = " << y; + EXPECT_FALSE(std::isinf(W)) << "Width is Inf at y = " << y; + EXPECT_GE(A, 0.0) << "Area must be non-negative at y = " << y; + EXPECT_GE(W, 0.0) << "Width must be non-negative at y = " << y; + } }