runMultiTest()

void runMultiTest	(	const char *	test_name,
		fl::AutoResearchConfig &	config,
		const fl::MultiRunConfig &	multi_config,
		int &	total,
		int &	passed,
		fl::vector< fl::RunResult > *	out_results )

Definition at line 746 of file AutoResearchTest.cpp.

                                                      {
 
    fl::sstream ss;
    ss << "\n╔════════════════════════════════════════════════════════════════╗\n";
    ss << "║ MULTI-RUN TEST: " << test_name << "\n";
    ss << "║ Runs: " << multi_config.num_runs << " | Print Mode: "
       << (multi_config.print_all_runs ? "All" : "Errors ONLY") << "\n";
    ss << "╚════════════════════════════════════════════════════════════════╝";
    FL_WARN(ss.str());
 
    fl::vector<fl::RunResult> run_results;
 
    // Multi-lane limitation: Only test Lane 0
    size_t channels_to_test = config.tx_configs.size() > 1 ? 1 : config.tx_configs.size();
 
    if (config.tx_configs.size() > 1) {
        FL_WARN("[MULTI-LANE] Testing " << config.tx_configs.size() << " lanes, testing Lane 0 only");
    }
 
    // Execute multiple runs
    for (int run = 1; run <= multi_config.num_runs; run++) {
        // Print progress to keep output flowing (prevents auto-exit timeout)
        if (run % 3 == 1 || multi_config.num_runs <= 5) {
            FL_WARN("[Run " << run << "/" << multi_config.num_runs << "] Testing...");
        }
 
        fl::RunResult result;
        result.run_number = run;
 
        // Test Lane 0 only
        for (size_t config_idx = 0; config_idx < channels_to_test; config_idx++) {
            const auto& leds = config.tx_configs[config_idx].mLeds;
            size_t num_leds = leds.size();
            result.total_leds = num_leds;
            result.totalBytes = num_leds * 3;
 
            // Capture RX data
            size_t bytes_captured = capture(config.rx_channel, config.rx_buffer, config.timing, config.driver_name);
 
            if (bytes_captured == 0) {
                FL_WARN("[Run " << run << "] Capture failed");
                result.passed = false;
                break;
            }
 
            // Check pixel data
            int mismatches = 0;
 
            // DEBUG: Print first 24 bytes of captured data
            FL_WARN("[RUN " << run << "] Driver=" << config.driver_name << ", bytes_captured=" << bytes_captured);
            FL_WARN("[RUN " << run << "] First 24 bytes:");
            for (size_t i = 0; i < 24 && i < bytes_captured; i++) {
                FL_WARN("  [" << i << "] = 0x" << fl::hex << static_cast<int>(config.rx_buffer[i]) << fl::dec);
            }
 
            if (isUCS7604(config.encoder)) {
                // UCS7604: Compare full encoded frame byte-for-byte
                fl::vector<uint8_t> expected_encoded = buildExpectedUCS7604(
                    config.tx_configs[config_idx].mLeds, config.encoder);
                size_t expected_len = expected_encoded.size();
                result.totalBytes = static_cast<int>(expected_len);
 
                size_t compare_len = (bytes_captured < expected_len) ? bytes_captured : expected_len;
                for (size_t i = 0; i < compare_len; i++) {
                    if (expected_encoded[i] != config.rx_buffer[i]) {
                        result.mismatchedBytes++;
                        if ((expected_encoded[i] ^ config.rx_buffer[i]) == 0x01) {
                            result.lsbOnlyErrors++;
                        }
                        mismatches++;
 
                        // Print corruption context for first mismatch only
                        if (mismatches == 1) {
                            FL_WARN("\n[CORRUPTION @ byte " << static_cast<int>(i) << ", Run " << run
                                    << "] expected=0x" << fl::hex << static_cast<int>(expected_encoded[i])
                                    << " actual=0x" << static_cast<int>(config.rx_buffer[i]) << fl::dec);
                        }
 
                        // Store first N errors (using byte-level reporting)
                        if (result.errors.size() < static_cast<size_t>(multi_config.max_errors_per_run)) {
                            result.errors.push_back(fl::LEDError(
                                static_cast<int>(i), expected_encoded[i], 0, 0,
                                config.rx_buffer[i], 0, 0
                            ));
                        }
                    }
                }
                // Count missing bytes as mismatches
                if (bytes_captured < expected_len) {
                    mismatches += static_cast<int>(expected_len - bytes_captured);
                }
            } else {
                // WS2812: Per-LED RGB comparison
                size_t bytes_expected = num_leds * 3;
 
                // Determine front padding offset (PARLIO only)
                const size_t rx_buffer_offset = 0; // No front padding: PARLIO FRONT_PAD_BYTES=0
 
                size_t bytes_to_check = (bytes_captured < bytes_expected + rx_buffer_offset) ?
                                         (bytes_captured > rx_buffer_offset ? bytes_captured - rx_buffer_offset : 0) :
                                         bytes_expected;
                (void)bytes_to_check;
 
                size_t verified_leds = 0;
                for (size_t i = 0; i < num_leds; i++) {
                    size_t byte_offset = rx_buffer_offset + i * 3; // Apply offset for PARLIO front padding
                    if (byte_offset + 2 >= bytes_captured) { // Check against total captured bytes
                        break;
                    }
                    verified_leds = i + 1;
 
                    uint8_t expected_r = leds[i].r;
                    uint8_t expected_g = leds[i].g;
                    uint8_t expected_b = leds[i].b;
 
                    uint8_t actual_r = config.rx_buffer[byte_offset + 0];
                    uint8_t actual_g = config.rx_buffer[byte_offset + 1];
                    uint8_t actual_b = config.rx_buffer[byte_offset + 2];
 
                    // Per-byte comparison for byte-level stats
                    uint8_t exp_bytes[3] = {expected_r, expected_g, expected_b};
                    uint8_t act_bytes[3] = {actual_r, actual_g, actual_b};
                    bool led_mismatch = false;
                    for (int ch = 0; ch < 3; ch++) {
                        if (exp_bytes[ch] != act_bytes[ch]) {
                            result.mismatchedBytes++;
                            if ((exp_bytes[ch] ^ act_bytes[ch]) == 0x01) {
                                result.lsbOnlyErrors++;
                            }
                            led_mismatch = true;
                        }
                    }
 
                    if (led_mismatch) {
                        // Print corruption context for first mismatch only
                        if (mismatches == 0) {
                            FL_WARN("\n[CORRUPTION @ LED " << static_cast<int>(i) << ", Run " << run << "]");
 
                            // Calculate edge index and print timing around corruption point
                            size_t corruption_edge_index = i * 48;
                            size_t offset = corruption_edge_index > 4 ? corruption_edge_index - 4 : 0;
 
                            // Dump raw edge timing around corruption point (9 edges: -4 to +4)
                            dumpRawEdgeTiming(config.rx_channel, config.timing, fl::EdgeRange(offset, 9));
                        }
 
                        mismatches++;
 
                        // Store first N errors
                        if (result.errors.size() < static_cast<size_t>(multi_config.max_errors_per_run)) {
                            result.errors.push_back(fl::LEDError(
                                i, expected_r, expected_g, expected_b,
                                actual_r, actual_g, actual_b
                            ));
                        }
                    }
                }
 
                // Truncated capture: RX returned fewer bytes than expected. Count
                // the unchecked LEDs as mismatches rather than silently passing.
                // A short capture means we did NOT verify those LEDs, so the run
                // MUST fail. The old silent break hid real bugs on strips longer
                // than the RMT DMA buffer (~170 LEDs for WS2812B). See issue #2254.
                if (verified_leds < num_leds) {
                    size_t unchecked = num_leds - verified_leds;
                    mismatches += static_cast<int>(unchecked);
                    result.mismatchedBytes += static_cast<int>(unchecked * 3);
                    FL_WARN("[TRUNCATED CAPTURE] Only verified " << verified_leds
                            << "/" << num_leds << " LEDs (" << bytes_captured
                            << " bytes captured, needed " << (num_leds * 3)
                            << "). Marking " << unchecked
                            << " unchecked LEDs as mismatches.");
                }
            }
 
            result.mismatches = mismatches;
            result.passed = (mismatches == 0);
        }
 
        run_results.push_back(result);
 
        // Print run result if configured
        if (multi_config.print_all_runs || !result.passed) {
            FL_WARN("[Run " << run << "/" << multi_config.num_runs << "] "
                    << (result.passed ? "PASS" : "FAIL")
                    << " | Errors: " << result.mismatches << "/" << result.total_leds
                    << " (" << (100.0 * (result.total_leds - result.mismatches) / result.total_leds) << "%)");
 
            // Print error details if enabled
            if (!result.passed && multi_config.print_per_led_errors && !result.errors.empty()) {
                FL_WARN("  First " << result.errors.size() << " error(s):");
                for (size_t i = 0; i < result.errors.size(); i++) {
                    const auto& err = result.errors[i];
                    FL_WARN("    LED[" << err.led_index << "]: expected RGB("
                            << static_cast<int>(err.expected_r) << ","
                            << static_cast<int>(err.expected_g) << ","
                            << static_cast<int>(err.expected_b) << ") got RGB("
                            << static_cast<int>(err.actual_r) << ","
                            << static_cast<int>(err.actual_g) << ","
                            << static_cast<int>(err.actual_b) << ")");
                }
            }
        }
    }
 
    // Summary statistics
    int total_passed = 0;
    int total_failed = 0;
    for (const auto& r : run_results) {
        if (r.passed) total_passed++;
        else total_failed++;
    }
 
    ss.clear();
    ss << "\n╔════════════════════════════════════════════════════════════════╗\n";
    ss << "║ MULTI-RUN SUMMARY\n";
    ss << "╚════════════════════════════════════════════════════════════════╝\n";
    ss << "Total Runs:   " << multi_config.num_runs << "\n";
    ss << "Passed:       " << total_passed << " (" << (100.0 * total_passed / multi_config.num_runs) << "%)\n";
    ss << "Failed:       " << total_failed << " (" << (100.0 * total_failed / multi_config.num_runs) << "%)";
    FL_WARN(ss.str());
 
    if (total_failed > 0) {
        ss.clear();
        ss << "\nFailed Run Numbers:\n";
        for (const auto& r : run_results) {
            if (!r.passed) {
                ss << "  Run #" << r.run_number << " - " << r.mismatches << " errors\n";
                if (!r.errors.empty()) {
                    ss << "    First error at LED[" << r.errors[0].led_index << "]: "
                       << "expected RGB(" << static_cast<int>(r.errors[0].expected_r) << ","
                       << static_cast<int>(r.errors[0].expected_g) << ","
                       << static_cast<int>(r.errors[0].expected_b) << ") got RGB("
                       << static_cast<int>(r.errors[0].actual_r) << ","
                       << static_cast<int>(r.errors[0].actual_g) << ","
                       << static_cast<int>(r.errors[0].actual_b) << ")\n";
                }
            }
        }
        FL_WARN(ss.str());
    }
 
    // Copy results to caller if requested
    if (out_results) {
        for (const auto& r : run_results) {
            out_results->push_back(r);
        }
    }
 
    // Update totals
    total++;
    if (total_failed == 0) {
        passed++;
        FL_WARN("\n[OVERALL] PASS ✓ - All " << multi_config.num_runs << " runs succeeded");
    } else {
        FL_WARN("\n[OVERALL] FAIL ✗ - " << total_failed << "/" << multi_config.num_runs << " runs failed");
    }
}

References buildExpectedUCS7604(), capture(), fl::sstream::clear(), fl::dec, fl::AutoResearchConfig::driver_name, dumpRawEdgeTiming(), fl::AutoResearchConfig::encoder, FL_WARN, fl::hex, isUCS7604(), leds, fl::MultiRunConfig::max_errors_per_run, fl::MultiRunConfig::num_runs, offset(), fl::MultiRunConfig::print_all_runs, fl::MultiRunConfig::print_per_led_errors, fl::vector< T >::push_back(), fl::AutoResearchConfig::rx_buffer, fl::AutoResearchConfig::rx_channel, fl::span< T, Extent >::size(), fl::vector_basic::size(), fl::sstream::str(), fl::AutoResearchConfig::timing, and fl::AutoResearchConfig::tx_configs.

Referenced by autoResearchChipsetTiming(), and autoResearchChipsetTimingLegacy().

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