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/**
* test_full_pipeline.c - Integration tests for the full GlaMaC pipeline
*
* Copyright (C) 2025 https://optics-design.com
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU Affero General Public License as
* published by the Free Software Foundation, either version 3 of the
* License, or (at your option) any later version.
*/
#include "../test_framework.h"
#include "../../include/glass_data.h"
#include "../../include/glamac_view.h"
#include "../../include/glautils/fgla.h"
// Test complete glass data loading and processing pipeline
int test_glass_data_pipeline() {
TEST_START("Glass Data Pipeline");
// Initialize glass data system
initialize_glass_data();
// Try to load JSON data
b32 json_loaded = load_glasses_from_json((const byte*)"tests/data/test_glasses.json", NULL);
if (json_loaded) {
// Verify we have multiple catalogs
u32 catalog_count = get_catalog_count();
TEST_ASSERT(catalog_count > 0, "Should have loaded multiple catalogs");
// Test each catalog
for (u32 i = 0; i < catalog_count; i++) {
set_current_catalog(i);
const char* catalog_name = get_catalog_name(i);
TEST_ASSERT_NOT_NULL(catalog_name, "Each catalog should have a name");
u32 glass_count = get_glass_count();
TEST_ASSERT(glass_count > 0, "Each catalog should have glasses");
// Test glass properties
for (u32 j = 0; j < glass_count; j++) {
const Glass* glass = get_glass(j);
TEST_ASSERT_NOT_NULL(glass, "Should be able to get each glass");
// Validate glass data
TEST_ASSERT(glass->abbeNumber > 10.0f && glass->abbeNumber < 100.0f,
"Abbe number should be in reasonable range");
TEST_ASSERT(glass->refractiveIndex > 1.0f && glass->refractiveIndex < 4.0f,
"Refractive index should be in reasonable range");
const byte* name = get_glass_name(j);
TEST_ASSERT_NOT_NULL(name, "Each glass should have a name");
TEST_ASSERT(strlen((const char*)name) > 0, "Glass name should not be empty");
}
}
} else {
printf(YELLOW " Info: JSON test data not available - testing with default data" RESET "\n");
// Test with default data
u32 glass_count = get_glass_count();
TEST_ASSERT(glass_count > 0, "Should have default glasses");
}
cleanup_glass_data();
TEST_END();
}
// Test view system with real glass data
int test_view_with_glass_data() {
TEST_START("View System with Glass Data");
// Initialize systems
initialize_glass_data();
ViewState view;
init_view(&view, 1024, 768);
// Load test data if available
load_glasses_from_json((const byte*)"tests/data/test_glasses.json", NULL);
// Test view fitting with real data
fit_view_to_data(&view);
// After fitting, we should be able to see all glasses
TEST_ASSERT(view.zoom > 0.0f, "Zoom should be positive after fitting");
TEST_ASSERT(view.zoom <= MAX_ZOOM, "Zoom should not exceed maximum");
// Test coordinate transformations with actual glass data
u32 glass_count = get_glass_count();
if (glass_count > 0) {
const Glass* glass = get_glass(0);
i32 screenX, screenY;
glass_to_screen_coords(glass->abbeNumber, glass->refractiveIndex, &view, &screenX, &screenY);
// Screen coordinates should be reasonable
TEST_ASSERT(screenX >= -100 && screenX <= view.windowWidth + 100,
"Screen X should be near window bounds");
TEST_ASSERT(screenY >= -100 && screenY <= view.windowHeight + 100,
"Screen Y should be near window bounds");
// Test inverse transformation
f32 recovered_abbe, recovered_ri;
screen_to_glass_coords(screenX, screenY, &view, &recovered_abbe, &recovered_ri);
TEST_ASSERT_FLOAT_EQ(glass->abbeNumber, recovered_abbe, 0.1f,
"Should recover original Abbe number");
TEST_ASSERT_FLOAT_EQ(glass->refractiveIndex, recovered_ri, 0.001f,
"Should recover original refractive index");
}
// Test clustering with real data
update_clustering(&view);
TEST_ASSERT(view.clusterCount >= 0, "Clustering should complete successfully");
cleanup_glass_data();
TEST_END();
}
// Test FGLA search functionality with actual data
int test_fgla_search_integration() {
TEST_START("FGLA Search Integration");
// Test various search functions that would be used in the real application
// Test glass code pattern matching with realistic codes
TEST_ASSERT(fgla_matches_glass_code_pattern_safe("517642", "517642"),
"Should match exact glass code");
TEST_ASSERT(fgla_matches_glass_code_pattern_safe("517642123", "517642"),
"Should match first 6 digits of longer code");
TEST_ASSERT(fgla_matches_glass_code_pattern_safe("517642", "51x64x"),
"Should match wildcard pattern");
// Test realistic search terms
TEST_ASSERT(fgla_validate_search_term("N-BK7"), "N-BK7 should be valid search term");
TEST_ASSERT(fgla_validate_search_term("SF10"), "SF10 should be valid search term");
TEST_ASSERT(fgla_validate_search_term("FCD1"), "FCD1 should be valid search term");
// Test substring matching with realistic glass names
TEST_ASSERT(fgla_contains_substring_safe("N-BK7", "BK"),
"Should find BK in N-BK7");
TEST_ASSERT(fgla_contains_substring_safe("SF10", "sf"),
"Should find sf in SF10 (case insensitive)");
TEST_ASSERT(fgla_contains_substring_safe("FCD1", "fcd"),
"Should find fcd in FCD1 (case insensitive)");
// Test catalog matching with real manufacturers
const char* real_catalogs[] = {"SCHOTT", "HOYA", "CDGM", "Ohara"};
TEST_ASSERT(fgla_matches_catalog("SCHOTT", real_catalogs, 4),
"Should match SCHOTT catalog");
TEST_ASSERT(fgla_matches_catalog("hoya", real_catalogs, 4),
"Should match HOYA catalog (case insensitive)");
TEST_ASSERT(!fgla_matches_catalog("UNKNOWN", real_catalogs, 4),
"Should not match unknown manufacturer");
TEST_END();
}
// Test error handling across systems
int test_error_handling_integration() {
TEST_START("Error Handling Integration");
// Test glass data error handling
b32 result = load_glasses_from_json((const byte*)"nonexistent.json", NULL);
TEST_ASSERT(!result, "Should fail gracefully with non-existent file");
result = load_glasses_from_json(NULL, NULL);
TEST_ASSERT(!result, "Should fail gracefully with NULL path");
// Test view system with invalid parameters
ViewState view;
init_view(&view, 0, 0); // Invalid dimensions
TEST_ASSERT(view.windowWidth > 0, "Should handle invalid width gracefully");
TEST_ASSERT(view.windowHeight > 0, "Should handle invalid height gracefully");
// Test coordinate transformations with extreme values
i32 screenX, screenY;
glass_to_screen_coords(1000.0f, 10.0f, &view, &screenX, &screenY); // Extreme values
// Should not crash - exact values depend on implementation
// Test FGLA with invalid inputs
TEST_ASSERT(!fgla_validate_search_term(NULL), "Should reject NULL search term");
TEST_ASSERT(!fgla_validate_search_term(""), "Should reject empty search term");
TEST_ASSERT(!fgla_is_glass_code_pattern(NULL), "Should reject NULL glass code pattern");
TEST_END();
}
// Test memory management across systems
int test_memory_management() {
TEST_START("Memory Management");
// Test multiple initialize/cleanup cycles
for (int i = 0; i < 5; i++) {
initialize_glass_data();
// Load data
load_glasses_from_json((const byte*)"tests/data/test_glasses.json", NULL);
// Use the data
u32 count = get_glass_count();
if (count > 0) {
const Glass* glass = get_glass(0);
(void)glass; // Suppress unused variable warning
}
// Cleanup
cleanup_glass_data();
}
// After all cycles, we should be back to clean state
// Try to initialize again
initialize_glass_data();
u32 final_count = get_glass_count();
TEST_ASSERT(final_count >= 0, "Should be able to initialize after cleanup cycles");
cleanup_glass_data();
TEST_END();
}
// Test performance with realistic data volumes
int test_performance() {
TEST_START("Performance Test");
initialize_glass_data();
// Load data
b32 loaded = load_glasses_from_json((const byte*)"tests/data/test_glasses.json", NULL);
if (loaded) {
// Test rapid catalog switching
u32 catalog_count = get_catalog_count();
for (int i = 0; i < 100; i++) {
set_current_catalog(i % catalog_count);
u32 count = get_glass_count();
(void)count; // Use the result
}
// Test rapid coordinate transformations
ViewState view;
init_view(&view, 1024, 768);
fit_view_to_data(&view);
for (int i = 0; i < 1000; i++) {
i32 screenX, screenY;
f32 abbe = 30.0f + (i % 50);
f32 ri = 1.4f + (i % 20) * 0.01f;
glass_to_screen_coords(abbe, ri, &view, &screenX, &screenY);
}
// Test clustering performance
for (int i = 0; i < 10; i++) {
update_clustering(&view);
}
}
cleanup_glass_data();
TEST_END();
}
// Main integration test runner
int main() {
printf(BLUE "=== GlaMaC Integration Tests ===" RESET "\n\n");
RUN_TEST(test_glass_data_pipeline);
RUN_TEST(test_view_with_glass_data);
RUN_TEST(test_fgla_search_integration);
RUN_TEST(test_error_handling_integration);
RUN_TEST(test_memory_management);
RUN_TEST(test_performance);
TEST_SUMMARY();
}
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