#include "common/printing.h" #include "common/jsonconfig.h" #include "common/parsing.h" #include "common/temps.h" #include "common/frequency.h" #include "detection/cpu/cpu.h" #include "modules/cpu/cpu.h" static int sortCores(const FFCPUCore* a, const FFCPUCore* b) { return (int) b->freq - (int) a->freq; } bool ffPrintCPU(FFCPUOptions* options) { bool success = false; FFCPUResult cpu = { .temperature = FF_CPU_TEMP_UNSET, .frequencyMax = 0, .frequencyBase = 0, .name = ffStrbufCreate(), .vendor = ffStrbufCreate(), }; const char* error = ffDetectCPU(options, &cpu); if (error) { ffPrintError(FF_MODULE_GET_DISPLAY_NAME(CPU), 0, &options->moduleArgs, FF_PRINT_TYPE_DEFAULT, "%s", error); } else if (cpu.vendor.length == 0 && cpu.name.length == 0 && cpu.coresOnline <= 1) { ffPrintError(FF_MODULE_GET_DISPLAY_NAME(CPU), 0, &options->moduleArgs, FF_PRINT_TYPE_DEFAULT, "No CPU detected"); } else { FF_STRBUF_AUTO_DESTROY coreTypes = ffStrbufCreate(); if (options->showPeCoreCount) { uint32_t typeCount = 0; while (cpu.coreTypes[typeCount].count != 0 && typeCount < ARRAY_SIZE(cpu.coreTypes)) { typeCount++; } if (typeCount > 0) { qsort(cpu.coreTypes, typeCount, sizeof(cpu.coreTypes[0]), (void*) sortCores); for (uint32_t i = 0; i < typeCount; i++) { ffStrbufAppendF(&coreTypes, "%s%u", i == 0 ? "" : "+", cpu.coreTypes[i].count); } } } if (options->moduleArgs.outputFormat.length == 0) { ffPrintLogoAndKey(FF_MODULE_GET_DISPLAY_NAME(CPU), 0, &options->moduleArgs, FF_PRINT_TYPE_DEFAULT); FF_STRBUF_AUTO_DESTROY str = ffStrbufCreate(); if (cpu.name.length > 0) { ffStrbufAppend(&str, &cpu.name); } else if (cpu.vendor.length > 0) { ffStrbufAppend(&str, &cpu.vendor); ffStrbufAppendS(&str, " CPU"); } else { ffStrbufAppendS(&str, "Unknown"); } if (coreTypes.length > 0) { ffStrbufAppendF(&str, " (%s)", coreTypes.chars); } else if (cpu.coresOnline > 1) { ffStrbufAppendF(&str, " (%u)", cpu.coresOnline); } uint32_t freq = cpu.frequencyMax; if (freq == 0) { freq = cpu.frequencyBase; } if (freq > 0) { ffStrbufAppendS(&str, " @ "); ffFreqAppendNum(freq, &str); } if (cpu.temperature != FF_CPU_TEMP_UNSET) { ffStrbufAppendS(&str, " - "); ffTempsAppendNum(cpu.temperature, &str, options->tempConfig, &options->moduleArgs); } ffStrbufPutTo(&str, stdout); } else { FF_STRBUF_AUTO_DESTROY freqBase = ffStrbufCreate(); ffFreqAppendNum(cpu.frequencyBase, &freqBase); FF_STRBUF_AUTO_DESTROY freqMax = ffStrbufCreate(); ffFreqAppendNum(cpu.frequencyMax, &freqMax); FF_STRBUF_AUTO_DESTROY tempStr = ffStrbufCreate(); ffTempsAppendNum(cpu.temperature, &tempStr, options->tempConfig, &options->moduleArgs); FF_PRINT_FORMAT_CHECKED(FF_MODULE_GET_DISPLAY_NAME(CPU), 0, &options->moduleArgs, FF_PRINT_TYPE_DEFAULT, ((FFformatarg[]) { FF_ARG(cpu.name, "name"), FF_ARG(cpu.vendor, "vendor"), FF_ARG(cpu.coresPhysical, "cores-physical"), FF_ARG(cpu.coresLogical, "cores-logical"), FF_ARG(cpu.coresOnline, "cores-online"), FF_ARG(freqBase, "freq-base"), FF_ARG(freqMax, "freq-max"), FF_ARG(tempStr, "temperature"), FF_ARG(coreTypes, "core-types"), FF_ARG(cpu.packages, "packages"), FF_ARG(cpu.march, "march"), FF_ARG(cpu.numaNodes, "numa-nodes"), #if __i386__ || __x86_64__ FF_ARG(cpu.codeName, "code-name"), FF_ARG(cpu.technology, "technology"), #endif })); } success = true; } ffStrbufDestroy(&cpu.name); ffStrbufDestroy(&cpu.vendor); return success; } void ffParseCPUJsonObject(FFCPUOptions* options, yyjson_val* module) { yyjson_val *key, *val; size_t idx, max; yyjson_obj_foreach (module, idx, max, key, val) { if (ffJsonConfigParseModuleArgs(key, val, &options->moduleArgs)) { continue; } if (ffTempsParseJsonObject(key, val, &options->temp, &options->tempConfig)) { continue; } if (unsafe_yyjson_equals_str(key, "tempSensor")) { ffStrbufSetJsonVal(&options->tempSensor, val); continue; } if (unsafe_yyjson_equals_str(key, "freqNdigits")) { ffPrintError(FF_MODULE_GET_DISPLAY_NAME(CPU), 0, &options->moduleArgs, FF_PRINT_TYPE_DEFAULT, "modules.CPU.freqNdigits has been moved to display.freq.ndigits"); continue; } if (unsafe_yyjson_equals_str(key, "showPeCoreCount")) { options->showPeCoreCount = yyjson_get_bool(val); continue; } ffPrintError(FF_MODULE_GET_DISPLAY_NAME(CPU), 0, &options->moduleArgs, FF_PRINT_TYPE_DEFAULT, "Unknown JSON key %s", unsafe_yyjson_get_str(key)); } } void ffGenerateCPUJsonConfig(FFCPUOptions* options, yyjson_mut_doc* doc, yyjson_mut_val* module) { ffJsonConfigGenerateModuleArgsConfig(doc, module, &options->moduleArgs); ffTempsGenerateJsonConfig(doc, module, options->temp, options->tempConfig); yyjson_mut_obj_add_bool(doc, module, "showPeCoreCount", options->showPeCoreCount); yyjson_mut_obj_add_strbuf(doc, module, "tempSensor", &options->tempSensor); } bool ffGenerateCPUJsonResult(FFCPUOptions* options, yyjson_mut_doc* doc, yyjson_mut_val* module) { bool success = false; FFCPUResult cpu = { .temperature = FF_CPU_TEMP_UNSET, .frequencyMax = 0, .frequencyBase = 0, .name = ffStrbufCreate(), .vendor = ffStrbufCreate(), }; const char* error = ffDetectCPU(options, &cpu); if (error) { yyjson_mut_obj_add_str(doc, module, "error", error); } else if (cpu.vendor.length == 0 && cpu.name.length == 0 && cpu.coresOnline <= 1) { yyjson_mut_obj_add_str(doc, module, "error", "No CPU detected"); } else { yyjson_mut_val* obj = yyjson_mut_obj_add_obj(doc, module, "result"); yyjson_mut_obj_add_strbuf(doc, obj, "cpu", &cpu.name); yyjson_mut_obj_add_strbuf(doc, obj, "vendor", &cpu.vendor); if (cpu.packages == 0) { yyjson_mut_obj_add_null(doc, obj, "packages"); } else { yyjson_mut_obj_add_uint(doc, obj, "packages", cpu.packages); } yyjson_mut_val* cores = yyjson_mut_obj_add_obj(doc, obj, "cores"); yyjson_mut_obj_add_uint(doc, cores, "physical", cpu.coresPhysical); yyjson_mut_obj_add_uint(doc, cores, "logical", cpu.coresLogical); yyjson_mut_obj_add_uint(doc, cores, "online", cpu.coresOnline); yyjson_mut_val* frequency = yyjson_mut_obj_add_obj(doc, obj, "frequency"); yyjson_mut_obj_add_uint(doc, frequency, "base", cpu.frequencyBase); yyjson_mut_obj_add_uint(doc, frequency, "max", cpu.frequencyMax); yyjson_mut_val* coreTypes = yyjson_mut_obj_add_arr(doc, obj, "coreTypes"); for (uint32_t i = 0; i < ARRAY_SIZE(cpu.coreTypes) && cpu.coreTypes[i].count > 0; i++) { yyjson_mut_val* core = yyjson_mut_arr_add_obj(doc, coreTypes); yyjson_mut_obj_add_uint(doc, core, "count", cpu.coreTypes[i].count); yyjson_mut_obj_add_uint(doc, core, "freq", cpu.coreTypes[i].freq); } if (cpu.temperature != FF_CPU_TEMP_UNSET) { yyjson_mut_obj_add_real(doc, obj, "temperature", cpu.temperature); } else { yyjson_mut_obj_add_null(doc, obj, "temperature"); } if (cpu.march) { yyjson_mut_obj_add_str(doc, obj, "march", cpu.march); } else { yyjson_mut_obj_add_null(doc, obj, "march"); } if (cpu.numaNodes > 0) { yyjson_mut_obj_add_uint(doc, obj, "numaNodes", cpu.numaNodes); } else { yyjson_mut_obj_add_null(doc, obj, "numaNodes"); } #if __i386__ || __x86_64__ if (cpu.codeName) { yyjson_mut_obj_add_str(doc, obj, "codeName", cpu.codeName); } else { yyjson_mut_obj_add_null(doc, obj, "codeName"); } if (cpu.technology) { yyjson_mut_obj_add_str(doc, obj, "technology", cpu.technology); } else { yyjson_mut_obj_add_null(doc, obj, "technology"); } #endif success = true; } ffStrbufDestroy(&cpu.name); ffStrbufDestroy(&cpu.vendor); return success; } void ffInitCPUOptions(FFCPUOptions* options) { ffOptionInitModuleArg(&options->moduleArgs, ""); ffStrbufInit(&options->tempSensor); options->temp = false; options->tempConfig = (FFColorRangeConfig) { 60, 80 }; options->showPeCoreCount = true; } void ffDestroyCPUOptions(FFCPUOptions* options) { ffOptionDestroyModuleArg(&options->moduleArgs); ffStrbufDestroy(&options->tempSensor); } FFModuleBaseInfo ffCPUModuleInfo = { .name = "CPU", .description = "Print CPU name, frequency, etc.", .displayName = { .en = "CPU", .ar = "المعالج", .cs = "CPU", .de = "CPU", .es = "CPU", .fr = "CPU", .gl = "CPU", .he = "מעבד", .id = "CPU", .it = "CPU", .ja = "CPU", .ko = "CPU", .pl = "CPU", .pt = "CPU", .ru = "Процессор", .tr = "CPU", .uk = "CPU", .vi = "CPU", .zh_CN = "CPU", .zh_TW = "CPU", }, .initOptions = (void*) ffInitCPUOptions, .destroyOptions = (void*) ffDestroyCPUOptions, .parseJsonObject = (void*) ffParseCPUJsonObject, .printModule = (void*) ffPrintCPU, .generateJsonResult = (void*) ffGenerateCPUJsonResult, .generateJsonConfig = (void*) ffGenerateCPUJsonConfig, .formatArgs = FF_FORMAT_ARG_LIST(((FFModuleFormatArg[]) { { "Name", "name" }, { "Vendor", "vendor" }, { "Physical core count", "cores-physical" }, { "Logical core count", "cores-logical" }, { "Online core count", "cores-online" }, { "Base frequency (formatted)", "freq-base" }, { "Max frequency (formatted)", "freq-max" }, { "Temperature (formatted)", "temperature" }, { "Logical core count grouped by frequency", "core-types" }, { "Processor package count", "packages" }, { "CPU microarchitecture", "march" }, { "NUMA node count", "numa-nodes" }, #if __i386__ || __x86_64__ { "CPU code name", "code-name" }, { "CPU technology", "technology" }, #endif })), .defaultOrder = 33, };