Platform_Thread_Result thread_proc(Platform_Thread_Data* td) { //Sleep(100); return {}; } void memory_allocator_tests(Allocator* a, bool run_free_tests) { // TestGroup("Allocator Push") { for (u32 i = 0; i < 3; i++) { u8* buf0 = allocator_alloc(a, 256); buf0[0] = 200; buf0[255] = 199; assert(buf0[0] == 200); assert(buf0[255] == 199); u8* buf1 = allocator_alloc(a, 256); buf1[0] = 201; buf1[255] = 202; assert(buf1 >= (buf0 + 256)); assert(buf0[0] == 200); assert(buf0[255] == 199); assert(buf1[0] == 201); assert(buf1[255] == 202); allocator_clear(a); } } // TestGroup("Allocator Free") if (run_free_tests) { for (u32 i = 0; i < 3; i++) { u8* buf0 = allocator_alloc(a, KB(4)); u8* buf1 = allocator_alloc(a, KB(4)); u8* buf2 = allocator_alloc(a, KB(4)); u8* buf3 = allocator_alloc(a, KB(4)); u8* buf4 = allocator_alloc(a, KB(4)); assert((buf1 - buf0) >= KB(4)); assert((buf2 - buf0) >= KB(8)); assert((buf3 - buf0) >= KB(12)); assert((buf4 - buf0) >= KB(16)); allocator_free(a, buf1, KB(4)); allocator_free(a, buf2, KB(4)); u8* buf5 = allocator_alloc(a, KB(7)); // buf5 should get put in the place of buf1 since buf1 and 2 get // merged assert(buf5 == buf1); allocator_free(a, buf4, KB(4)); allocator_free(a, buf3, KB(4)); allocator_free(a, buf0, KB(4)); u8* buf6 = allocator_alloc(a, KB(4)); assert(buf0 == buf6); allocator_clear(a); } } } void memory_tests() { // TestGroup("Platform Allocation") { u8* base = platform_mem_reserve(GB(32)); platform_mem_commit(base, KB(4)); base[4095] = 200; assert(base[4095] == 200); platform_mem_commit(base + KB(4), KB(4)); base[5000] = 200; assert(base[5000] == 200); platform_mem_decommit(base, KB(8)); platform_mem_release(base, GB(32)); } Allocator* bump = bump_allocator_create_reserve(KB(32)); memory_allocator_tests(bump, false); allocator_destroy(bump); Allocator* paged = paged_allocator_create_reserve(KB(32)); memory_allocator_tests(paged, true); allocator_destroy(paged); } internal void run_tests() { // memory tests u8* a0 = allocator_alloc_array(scratch, u8, 32); u8* a1 = allocator_alloc_array(scratch, u8, 32); assert(a0 != a1); assert((a0 + 32) <= a1); for (u32 i = 0; i < 32; i++) { a0[i] = (u8)i; a1[i] = (u8)(100 + i); } for (u32 i = 0; i < 32; i++) { assert(a0[i] == i); assert(a1[i] == (100 + i)); } memory_tests(); #if defined(PLATFORM_wasm) // NOTE(PS): the tests below this point don't make sense on a web assembly // platform return; #endif // testing strings and exe path String exe_file_path = platform_get_exe_path(scratch); assert(exe_file_path.str != 0); u64 run_tree_start = string_find_substring(exe_file_path, lit_str("run_tree"), 0, StringMatch_FindLast); u64 run_tree_end = run_tree_start + lit_str("run_tree").len; assert(run_tree_start < exe_file_path.len); String run_tree_path = string_get_prefix(exe_file_path, run_tree_end); String run_tree_path_nullterm = string_copy(run_tree_path, scratch); assert(run_tree_path_nullterm.len > 0); assert(platform_pwd_set(run_tree_path_nullterm)); // testing file io Platform_File_Handle f = platform_file_open(lit_str("text.txt"), FileAccess_Read | FileAccess_Write, FileCreate_OpenExisting); Platform_File_Info i = platform_file_get_info(f, scratch); Data d0 = platform_file_read_all(f, scratch); assert(d0.size > 0); String s = lit_str("foooooooooobbbbbbaaaarrrrrr"); Data d1 = { s.str, s.len }; bool r = platform_file_write_all(f, d1); assert(r); #if 0 // TODO(PS): these were causing startup problems but you weren't focusing on // threads/ When you build something multithreaded come back here and // make tests that actually work // testing threads Platform_Thread_Handle threads[8]; for (u32 j = 0; j < 8; j++) { threads[j] = platform_thread_begin(thread_proc, 0); } for (u32 j = 0; j < 8; j++) { platform_thread_end(threads[j]); } #endif allocator_clear(scratch); }