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48 Commits
v1.01 ... ald

Author SHA1 Message Date
Dr-Noob
b2aa8194c6 [v1.02][x86] Detect and print core type in ADL 2022-12-02 21:25:30 +00:00
Dr-Noob
d879b06d08 [v1.02][x86] Fix printer for non hybrid architectures 2022-12-02 20:53:40 +00:00
Dr-Noob
6cc18027db [v1.02][x86] ADL has a shared L3, not one L3 per core type 2022-12-02 20:39:49 +00:00
Dr-Noob
77510c260a [v1.02][x86] Small fixes to hybrid core detection 2022-11-05 18:28:10 +00:00
Dr-Noob
1eb1a5246e [v1.02][x86] Extending peakperf computation to hybid cores 2022-11-05 18:17:38 +00:00
Dr-Noob
cec91a1e4d [v1.02][x86] Adding support printing Intel hybrid CPUs 2022-11-05 17:49:43 +00:00
Dr-Noob
ff5166ea2e [v1.02][x86] Adding support for topology detection of hybrid cores 2022-11-05 17:48:20 +00:00
Dr-Noob
051d48b7d1 [v1.02][x86] Suport for detecting hybrid_flag 2022-10-20 20:49:10 +00:00
Dr-Noob
e91eef3e65 [v1.02][x86] Split feature detection into a separate function 2022-10-20 20:48:22 +00:00
Dr-Noob
de24d86cd6 [v1.02] Extended get_num_caches_from_files to support maps with commas, should fix #152 2022-09-30 19:44:14 +02:00
Dr-Noob
4b1a087b64 [v1.02][ARM] Kirin SoCs seem to start with hi, not Hi, as reported in #157 2022-09-23 19:36:05 +02:00
Dr-Noob
7eb856ae84 [v1.02] Merge fixes from bugfix 2022-09-23 19:20:30 +02:00
Dr-Noob
65366abe04 [v1.02][ARM] Fixed wrong check for Apple CPU 2022-09-19 11:33:14 +02:00
Dr-Noob
190e5daace [v1.02] Merge master and bugfix2 branches 2022-09-19 11:27:03 +02:00
Dr-Noob
9f7204d43d [v1.02][ARM] Updating M1/M2 peak performance calculations according to the discussion in #155 2022-09-14 11:08:36 +02:00
Dr-Noob
87961144d2 [v1.02][X86] Add Zen3+ uarch 2022-09-09 09:02:26 +02:00
Dr-Noob
f4565cb937 [v1.02] Ignore extension warnings in ppc 2022-09-07 08:18:16 +02:00
Dr-Noob
61a1ad8a2b [v1.02] Merge support for Apple M2 2022-09-06 08:12:44 +02:00
Dr-Noob
ecce0354e5 [v1.02][ARM] Fixed M2 bug, support for M2 should now be complete 2022-09-05 18:17:15 +02:00
Dr-Noob
a955451937 [v1.02][X86] Add Steam Deck CPU as requested in #147 2022-09-05 10:39:06 +02:00
Dr-Noob
db21931118 [v1.02][X86] Fix Coffee Lake spelling 2022-09-05 10:28:07 +02:00
Dr-Noob
71a9308bed [v1.02][X86] Fixed uarch misclassification as noted by #149 2022-09-05 10:19:48 +02:00
Dr-Noob
dfec2a65d2 [v1.02][ARM] Experimental support for M2 2022-09-05 10:02:26 +02:00
Dr-Noob
b319b52952 [v1.02] Use a different name for ifdef; the other might be already defined! 2022-09-05 08:41:19 +02:00
Dr-Noob
758be60967 [v1.02] Remove wrong check in udev 2022-09-05 08:24:22 +02:00
Dr-Noob
52ba038527 [v1.02][ARM] Add support for M1 Ultra 2022-05-25 22:11:48 +01:00
Dr-Noob
0f1c2881d9 [v1.02] Bump version 2022-04-24 11:42:32 +01:00
Dr-Noob
3a628e22ba [v1.01] Merge bugfix2 branch 2022-04-24 11:42:06 +01:00
Dr-Noob
07d1e565e1 [v1.01] Merge bugfix branch 2022-04-24 11:41:46 +01:00
Dr-Noob
0ea0754727 [v1.01] Experimental M1 chip detection using hw.cpusubfamily 2022-03-06 10:40:05 +01:00
Dr-Noob
316c2dec40 [v1.01] Improve read_file implementation as suggested in #137 2022-02-10 22:27:51 +01:00
Dr-Noob
c4b2f31320 [v1.01] Read file in udev by dynamically reallocating a buffer, instead of allocating a fixed size. Should fix issue #137 2022-02-09 22:16:13 +01:00
Dr-Noob
fed0dce706 [v1.01] Add Alder Lake uarch detection 2022-01-25 20:15:07 +01:00
Dr-Noob
3046e84b4b [v1.01] Fix dummy compilation issue 2021-12-28 16:03:16 +01:00
Dr-Noob
874a856e34 [v1.01] Run multiple independent instructions in the pipeline for AVX freq too. Fixes incorrect frequency measures under certain CPUs 2021-12-27 12:42:36 +01:00
Dr-Noob
a4e1a837a3 [v1.01] New license 2021-12-25 11:16:18 +01:00
Dr-Noob
40b13bc60c [v1.01] Refactoring in printer to make code clearer. Remove usless check in PPC 2021-12-08 10:35:38 +01:00
Dr-Noob
84ee3107c6 [v1.01][X86] Merge bugfix2 branch 2021-12-08 10:22:02 +01:00
Dr-Noob
33bf081c0a [v1.01][ARM] Merge changes from feat2 (added Allwinner CPUs) 2021-12-07 13:29:26 +01:00
Dr-Noob
0db9f1f5c2 [v1.01] Add more x86 archs to Makefile 2021-12-06 22:36:12 +01:00
Dr-Noob
4d8f108222 [v1.01] Change apple text color (as suggested by #129) 2021-12-04 09:08:02 +01:00
Dr-Noob
4229e2c63b [v1.01][X86] Do not assume that cach and topo structures are non-NULL, which may easily happen in VMs. Add protection against NULL fields in cpu structure 2021-12-03 23:15:23 +01:00
Dr-Noob
a53fc41041 [v1.01] Added Allwinner SoCs (thanks #130!). Changed the match_soc algorithm; it should be more general now 2021-12-03 16:14:42 +01:00
Dr-Noob
4a9bbef086 [v1.01] Fix compiler warning 2021-11-20 10:27:34 +01:00
Dr-Noob
fe3bc6163c [v1.01] Do not use FMA for frequency measurement. It is sufficient to run any other AVX instructions, and some CPUs support AVX but not FMA. 2021-11-20 10:25:36 +01:00
Dr-Noob
a426f231c6 [v1.00] Add preeliminary support for Phytium chip 2021-10-31 20:19:37 +01:00
Dr-Noob
7692a3cd49 [v1.00] Merge latest commits from master branch 2021-10-31 20:19:21 +01:00
Dr-Noob
a6714dabc7 [0.97] Do not count "L4" cache when computing the max cache level 2021-04-30 22:57:15 +02:00
26 changed files with 1212 additions and 278 deletions

352
LICENSE
View File

@@ -1,21 +1,339 @@
MIT License GNU GENERAL PUBLIC LICENSE
Version 2, June 1991
Copyright (c) 2018 Dr-Noob Copyright (C) 1989, 1991 Free Software Foundation, Inc.,
51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA
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convey the exclusion of warranty; and each file should have at least
the "copyright" line and a pointer to where the full notice is found.
<one line to give the program's name and a brief idea of what it does.>
Copyright (C) <year> <name of author>
This program is free software; you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation; either version 2 of the License, or
(at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License along
with this program; if not, write to the Free Software Foundation, Inc.,
51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA.
Also add information on how to contact you by electronic and paper mail.
If the program is interactive, make it output a short notice like this
when it starts in an interactive mode:
Gnomovision version 69, Copyright (C) year name of author
Gnomovision comes with ABSOLUTELY NO WARRANTY; for details type `show w'.
This is free software, and you are welcome to redistribute it
under certain conditions; type `show c' for details.
The hypothetical commands `show w' and `show c' should show the appropriate
parts of the General Public License. Of course, the commands you use may
be called something other than `show w' and `show c'; they could even be
mouse-clicks or menu items--whatever suits your program.
You should also get your employer (if you work as a programmer) or your
school, if any, to sign a "copyright disclaimer" for the program, if
necessary. Here is a sample; alter the names:
Yoyodyne, Inc., hereby disclaims all copyright interest in the program
`Gnomovision' (which makes passes at compilers) written by James Hacker.
<signature of Ty Coon>, 1 April 1989
Ty Coon, President of Vice
This General Public License does not permit incorporating your program into
proprietary programs. If your program is a subroutine library, you may
consider it more useful to permit linking proprietary applications with the
library. If this is what you want to do, use the GNU Lesser General
Public License instead of this License.

View File

@@ -12,7 +12,7 @@ COMMON_HDR = $(SRC_COMMON)ascii.h $(SRC_COMMON)cpu.h $(SRC_COMMON)udev.h $(SRC_C
ifneq ($(OS),Windows_NT) ifneq ($(OS),Windows_NT)
arch := $(shell uname -m) arch := $(shell uname -m)
ifeq ($(arch), $(filter $(arch), x86_64 amd64 i686)) ifeq ($(arch), $(filter $(arch), x86_64 amd64 i386 i486 i586 i686))
SRC_DIR=src/x86/ SRC_DIR=src/x86/
SOURCE += $(COMMON_SRC) $(SRC_DIR)cpuid.c $(SRC_DIR)apic.c $(SRC_DIR)cpuid_asm.c $(SRC_DIR)uarch.c SOURCE += $(COMMON_SRC) $(SRC_DIR)cpuid.c $(SRC_DIR)apic.c $(SRC_DIR)cpuid_asm.c $(SRC_DIR)uarch.c
HEADERS += $(COMMON_HDR) $(SRC_DIR)cpuid.h $(SRC_DIR)apic.h $(SRC_DIR)cpuid_asm.h $(SRC_DIR)uarch.h $(SRC_DIR)freq/freq.h HEADERS += $(COMMON_HDR) $(SRC_DIR)cpuid.h $(SRC_DIR)apic.h $(SRC_DIR)cpuid_asm.h $(SRC_DIR)uarch.h $(SRC_DIR)freq/freq.h
@@ -28,7 +28,7 @@ ifneq ($(OS),Windows_NT)
SRC_DIR=src/ppc/ SRC_DIR=src/ppc/
SOURCE += $(COMMON_SRC) $(SRC_DIR)ppc.c $(SRC_DIR)uarch.c $(SRC_DIR)udev.c SOURCE += $(COMMON_SRC) $(SRC_DIR)ppc.c $(SRC_DIR)uarch.c $(SRC_DIR)udev.c
HEADERS += $(COMMON_HDR) $(SRC_DIR)ppc.h $(SRC_DIR)uarch.h $(SRC_DIR)udev.c HEADERS += $(COMMON_HDR) $(SRC_DIR)ppc.h $(SRC_DIR)uarch.h $(SRC_DIR)udev.c
CFLAGS += -DARCH_PPC -std=gnu99 -fstack-protector-all CFLAGS += -DARCH_PPC -std=gnu99 -fstack-protector-all -Wno-language-extension-token
else ifeq ($(arch), $(filter $(arch), arm aarch64_be aarch64 arm64 armv8b armv8l armv7l armv6l)) else ifeq ($(arch), $(filter $(arch), arm aarch64_be aarch64 arm64 armv8b armv8l armv7l armv6l))
SRC_DIR=src/arm/ SRC_DIR=src/arm/
SOURCE += $(COMMON_SRC) $(SRC_DIR)midr.c $(SRC_DIR)uarch.c $(SRC_DIR)soc.c $(SRC_DIR)udev.c SOURCE += $(COMMON_SRC) $(SRC_DIR)midr.c $(SRC_DIR)uarch.c $(SRC_DIR)soc.c $(SRC_DIR)udev.c
@@ -70,14 +70,14 @@ static: $(OUTPUT)
strict: CFLAGS += -O2 -Werror -fsanitize=undefined -D_FORTIFY_SOURCE=2 strict: CFLAGS += -O2 -Werror -fsanitize=undefined -D_FORTIFY_SOURCE=2
strict: $(OUTPUT) strict: $(OUTPUT)
freq_nov.o: Makefile $(SRC_DIR)freq/freq_nov.c $(SRC_DIR)freq/freq_nov.h freq_nov.o: Makefile $(SRC_DIR)freq/freq_nov.c $(SRC_DIR)freq/freq_nov.h $(SRC_DIR)freq/freq.h
$(CC) $(CFLAGS) $(SANITY_FLAGS) -c -pthread $(SRC_DIR)freq/freq_nov.c -o $@ $(CC) $(CFLAGS) $(SANITY_FLAGS) -c -pthread $(SRC_DIR)freq/freq_nov.c -o $@
freq_avx.o: Makefile $(SRC_DIR)freq/freq_avx.c $(SRC_DIR)freq/freq_avx.h freq_avx.o: Makefile $(SRC_DIR)freq/freq_avx.c $(SRC_DIR)freq/freq_avx.h $(SRC_DIR)freq/freq.h
$(CC) $(CFLAGS) $(SANITY_FLAGS) -c -mavx -mfma -pthread $(SRC_DIR)freq/freq_avx.c -o $@ $(CC) $(CFLAGS) $(SANITY_FLAGS) -c -mavx -pthread $(SRC_DIR)freq/freq_avx.c -o $@
freq_avx512.o: Makefile $(SRC_DIR)freq/freq_avx512.c $(SRC_DIR)freq/freq_avx512.h freq_avx512.o: Makefile $(SRC_DIR)freq/freq_avx512.c $(SRC_DIR)freq/freq_avx512.h $(SRC_DIR)freq/freq.h
$(CC) $(CFLAGS) $(SANITY_FLAGS) -c -mavx512f -mfma -pthread $(SRC_DIR)freq/freq_avx512.c -o $@ $(CC) $(CFLAGS) $(SANITY_FLAGS) -c -mavx512f -pthread $(SRC_DIR)freq/freq_avx512.c -o $@
$(OUTPUT): Makefile $(SOURCE) $(HEADERS) $(OUTPUT): Makefile $(SOURCE) $(HEADERS)
$(CC) $(CFLAGS) $(SANITY_FLAGS) $(SOURCE) -o $(OUTPUT) $(CC) $(CFLAGS) $(SANITY_FLAGS) $(SOURCE) -o $(OUTPUT)

View File

@@ -10,12 +10,6 @@
#include <asm/hwcap.h> #include <asm/hwcap.h>
#elif defined __APPLE__ || __MACH__ #elif defined __APPLE__ || __MACH__
#include "sysctl.h" #include "sysctl.h"
// From Linux kernel: arch/arm64/include/asm/cputype.h
#define MIDR_APPLE_M1_ICESTORM 0x610F0220
#define MIDR_APPLE_M1_FIRESTORM 0x610F0230
#ifndef CPUFAMILY_ARM_FIRESTORM_ICESTORM
#define CPUFAMILY_ARM_FIRESTORM_ICESTORM 0x1B588BB3
#endif
#endif #endif
#include "../common/global.h" #include "../common/global.h"
@@ -87,12 +81,23 @@ int64_t get_peak_performance(struct cpuInfo* cpu) {
} }
int64_t flops = 0; int64_t flops = 0;
ptr = cpu; ptr = cpu;
if(cpu->soc->soc_vendor == SOC_VENDOR_APPLE) {
// Special case for M1/M2
// First we find the E cores, then the P
// M1 have 2 (E cores) or 4 (P cores) FMA units
// Source: https://dougallj.github.io/applecpu/firestorm-simd.html
flops += ptr->topo->total_cores * (get_freq(ptr->freq) * 1000000) * 2 * 4 * 2;
ptr = ptr->next_cpu;
flops += ptr->topo->total_cores * (get_freq(ptr->freq) * 1000000) * 2 * 4 * 4;
}
else {
for(int i=0; i < cpu->num_cpus; ptr = ptr->next_cpu, i++) { for(int i=0; i < cpu->num_cpus; ptr = ptr->next_cpu, i++) {
flops += ptr->topo->total_cores * (get_freq(ptr->freq) * 1000000); flops += ptr->topo->total_cores * (get_freq(ptr->freq) * 1000000);
} }
if(cpu->feat->NEON) flops = flops * 4; if(cpu->feat->NEON) flops = flops * 4;
}
return flops; return flops;
} }
@@ -244,7 +249,7 @@ struct cpuInfo* get_cpu_info_linux(struct cpuInfo* cpu) {
} }
#elif defined __APPLE__ || __MACH__ #elif defined __APPLE__ || __MACH__
void fill_cpu_info_firestorm_icestorm(struct cpuInfo* cpu) { void fill_cpu_info_firestorm_icestorm(struct cpuInfo* cpu, uint32_t pcores, uint32_t ecores) {
// 1. Fill ICESTORM // 1. Fill ICESTORM
struct cpuInfo* ice = cpu; struct cpuInfo* ice = cpu;
@@ -254,7 +259,7 @@ void fill_cpu_info_firestorm_icestorm(struct cpuInfo* cpu) {
ice->feat = get_features_info(); ice->feat = get_features_info();
ice->topo = malloc(sizeof(struct topology)); ice->topo = malloc(sizeof(struct topology));
ice->topo->cach = ice->cach; ice->topo->cach = ice->cach;
ice->topo->total_cores = 4; ice->topo->total_cores = ecores;
ice->freq = malloc(sizeof(struct frequency)); ice->freq = malloc(sizeof(struct frequency));
ice->freq->base = UNKNOWN_DATA; ice->freq->base = UNKNOWN_DATA;
ice->freq->max = 2064; ice->freq->max = 2064;
@@ -270,7 +275,7 @@ void fill_cpu_info_firestorm_icestorm(struct cpuInfo* cpu) {
fire->feat = get_features_info(); fire->feat = get_features_info();
fire->topo = malloc(sizeof(struct topology)); fire->topo = malloc(sizeof(struct topology));
fire->topo->cach = fire->cach; fire->topo->cach = fire->cach;
fire->topo->total_cores = 4; fire->topo->total_cores = pcores;
fire->freq = malloc(sizeof(struct frequency)); fire->freq = malloc(sizeof(struct frequency));
fire->freq->base = UNKNOWN_DATA; fire->freq->base = UNKNOWN_DATA;
fire->freq->max = 3200; fire->freq->max = 3200;
@@ -279,15 +284,82 @@ void fill_cpu_info_firestorm_icestorm(struct cpuInfo* cpu) {
fire->next_cpu = NULL; fire->next_cpu = NULL;
} }
void fill_cpu_info_avalanche_blizzard(struct cpuInfo* cpu, uint32_t pcores, uint32_t ecores) {
// 1. Fill BLIZZARD
struct cpuInfo* bli = cpu;
bli->midr = MIDR_APPLE_M2_BLIZZARD;
bli->arch = get_uarch_from_midr(bli->midr, bli);
bli->cach = get_cache_info(bli);
bli->feat = get_features_info();
bli->topo = malloc(sizeof(struct topology));
bli->topo->cach = bli->cach;
bli->topo->total_cores = pcores;
bli->freq = malloc(sizeof(struct frequency));
bli->freq->base = UNKNOWN_DATA;
bli->freq->max = 2800;
bli->hv = malloc(sizeof(struct hypervisor));
bli->hv->present = false;
bli->next_cpu = malloc(sizeof(struct cpuInfo));
// 2. Fill AVALANCHE
struct cpuInfo* ava = bli->next_cpu;
ava->midr = MIDR_APPLE_M2_AVALANCHE;
ava->arch = get_uarch_from_midr(ava->midr, ava);
ava->cach = get_cache_info(ava);
ava->feat = get_features_info();
ava->topo = malloc(sizeof(struct topology));
ava->topo->cach = ava->cach;
ava->topo->total_cores = ecores;
ava->freq = malloc(sizeof(struct frequency));
ava->freq->base = UNKNOWN_DATA;
ava->freq->max = 3500;
ava->hv = malloc(sizeof(struct hypervisor));
ava->hv->present = false;
ava->next_cpu = NULL;
}
struct cpuInfo* get_cpu_info_mach(struct cpuInfo* cpu) { struct cpuInfo* get_cpu_info_mach(struct cpuInfo* cpu) {
uint32_t cpu_family = get_sys_info_by_name("hw.cpufamily"); uint32_t cpu_family = get_sys_info_by_name("hw.cpufamily");
// Manually fill the cpuInfo assuming that the CPU // Manually fill the cpuInfo assuming that
// is a ARM_FIRESTORM_ICESTORM (Apple M1) // the CPU is an Apple M1/M2
if(cpu_family == CPUFAMILY_ARM_FIRESTORM_ICESTORM) { if(cpu_family == CPUFAMILY_ARM_FIRESTORM_ICESTORM) {
cpu->num_cpus = 2; cpu->num_cpus = 2;
// Now detect the M1 version
uint32_t cpu_subfamily = get_sys_info_by_name("hw.cpusubfamily");
if(cpu_subfamily == CPUSUBFAMILY_ARM_HG) {
// Apple M1
fill_cpu_info_firestorm_icestorm(cpu, 4, 4);
}
else if(cpu_subfamily == CPUSUBFAMILY_ARM_HS || cpu_subfamily == CPUSUBFAMILY_ARM_HC_HD) {
// Apple M1 Pro/Max/Ultra. Detect number of cores
uint32_t physicalcpu = get_sys_info_by_name("hw.physicalcpu");
if(physicalcpu == 20) {
// M1 Ultra
fill_cpu_info_firestorm_icestorm(cpu, 16, 4);
}
else if(physicalcpu == 8 || physicalcpu == 10) {
// M1 Pro/Max
fill_cpu_info_firestorm_icestorm(cpu, physicalcpu-2, 2);
}
else {
printBug("Found invalid physical cpu number: %d", physicalcpu);
return NULL;
}
}
else {
printBug("Found invalid cpu_subfamily: 0x%.8X", cpu_subfamily);
return NULL;
}
cpu->soc = get_soc();
cpu->peak_performance = get_peak_performance(cpu);
}
else if(cpu_family == CPUFAMILY_ARM_AVALANCHE_BLIZZARD) {
// Just the "normal" M2 exists for now
cpu->num_cpus = 2;
fill_cpu_info_avalanche_blizzard(cpu, 4, 4);
cpu->soc = get_soc(); cpu->soc = get_soc();
fill_cpu_info_firestorm_icestorm(cpu);
cpu->peak_performance = get_peak_performance(cpu); cpu->peak_performance = get_peak_performance(cpu);
} }
else { else {

View File

@@ -8,6 +8,10 @@
#include "udev.h" #include "udev.h"
#include "../common/global.h" #include "../common/global.h"
#if defined(__APPLE__) || defined(__MACH__)
#include "sysctl.h"
#endif
#define min(a,b) (((a)<(b))?(a):(b)) #define min(a,b) (((a)<(b))?(a):(b))
#define ARRAY_SIZE(arr) (sizeof(arr) / sizeof((arr)[0])) #define ARRAY_SIZE(arr) (sizeof(arr) / sizeof((arr)[0]))
@@ -17,7 +21,8 @@ static char* soc_trademark_string[] = {
[SOC_VENDOR_EXYNOS] = "Exynos ", [SOC_VENDOR_EXYNOS] = "Exynos ",
[SOC_VENDOR_KIRIN] = "Kirin ", [SOC_VENDOR_KIRIN] = "Kirin ",
[SOC_VENDOR_BROADCOM] = "Broadcom BCM", [SOC_VENDOR_BROADCOM] = "Broadcom BCM",
[SOC_VENDOR_APPLE] = "Apple " [SOC_VENDOR_APPLE] = "Apple ",
[SOC_VENDOR_ALLWINNER] = "Allwinner "
}; };
static char* soc_rpi_string[] = { static char* soc_rpi_string[] = {
@@ -38,10 +43,10 @@ void fill_soc(struct system_on_chip* soc, char* soc_name, SOC soc_model, int32_t
} }
bool match_soc(struct system_on_chip* soc, char* raw_name, char* expected_name, char* soc_name, SOC soc_model, int32_t process) { bool match_soc(struct system_on_chip* soc, char* raw_name, char* expected_name, char* soc_name, SOC soc_model, int32_t process) {
if(strlen(raw_name) > strlen(expected_name)) int len1 = strlen(raw_name);
return false; int len2 = strlen(expected_name);
int len = min(len1, len2);
int len = strlen(raw_name);
if(strncmp(raw_name, expected_name, len) != 0) { if(strncmp(raw_name, expected_name, len) != 0) {
return false; return false;
} }
@@ -106,11 +111,11 @@ bool match_broadcom(char* soc_name, struct system_on_chip* soc) {
bool match_hisilicon(char* soc_name, struct system_on_chip* soc) { bool match_hisilicon(char* soc_name, struct system_on_chip* soc) {
char* tmp; char* tmp;
if((tmp = strstr(soc_name, "Hi")) == NULL) if((tmp = strstr(soc_name, "hi")) == NULL)
return false; return false;
SOC_START SOC_START
SOC_EQ(tmp, "Hi3620GFC", "K3V2", SOC_HISILICON_3620, soc, 40) SOC_EQ(tmp, "hi3620GFC", "K3V2", SOC_HISILICON_3620, soc, 40)
//SOC_EQ(tmp, "?", "K3V2E", SOC_KIRIN, soc, ?) //SOC_EQ(tmp, "?", "K3V2E", SOC_KIRIN, soc, ?)
//SOC_EQ(tmp, "?", "620", SOC_KIRIN, soc, 28) //SOC_EQ(tmp, "?", "620", SOC_KIRIN, soc, 28)
//SOC_EQ(tmp, "?", "650", SOC_KIRIN, soc, 16) //SOC_EQ(tmp, "?", "650", SOC_KIRIN, soc, 16)
@@ -126,18 +131,18 @@ bool match_hisilicon(char* soc_name, struct system_on_chip* soc) {
//SOC_EQ(tmp, "?", "9000E", SOC_KIRIN, soc, 5) //SOC_EQ(tmp, "?", "9000E", SOC_KIRIN, soc, 5)
//SOC_EQ(tmp, "?", "910", SOC_KIRIN, soc, 28) //SOC_EQ(tmp, "?", "910", SOC_KIRIN, soc, 28)
//SOC_EQ(tmp, "?", "910T", SOC_KIRIN, soc, 28) //SOC_EQ(tmp, "?", "910T", SOC_KIRIN, soc, 28)
SOC_EQ(tmp, "Hi3630", "920", SOC_HISILICON_3630, soc, 28) SOC_EQ(tmp, "hi3630", "920", SOC_HISILICON_3630, soc, 28)
//SOC_EQ(tmp, "?", "925", SOC_KIRIN, soc, 28) //SOC_EQ(tmp, "?", "925", SOC_KIRIN, soc, 28)
//SOC_EQ(tmp, "?", "930", SOC_KIRIN, soc, ?) //SOC_EQ(tmp, "?", "930", SOC_KIRIN, soc, ?)
//SOC_EQ(tmp, "?", "935", SOC_KIRIN, soc, ?) //SOC_EQ(tmp, "?", "935", SOC_KIRIN, soc, ?)
SOC_EQ(tmp, "Hi3650", "950", SOC_HISILICON_3650, soc, 16) SOC_EQ(tmp, "hi3650", "950", SOC_HISILICON_3650, soc, 16)
//SOC_EQ(tmp, "?", "955", SOC_KIRIN, soc, ?) //SOC_EQ(tmp, "?", "955", SOC_KIRIN, soc, ?)
SOC_EQ(tmp, "Hi3660", "960", SOC_HISILICON_3660, soc, 16) SOC_EQ(tmp, "hi3660", "960", SOC_HISILICON_3660, soc, 16)
//SOC_EQ(tmp, "?", "960S", SOC_KIRIN, soc, 16) //SOC_EQ(tmp, "?", "960S", SOC_KIRIN, soc, 16)
SOC_EQ(tmp, "Hi3670", "970", SOC_HISILICON_3670, soc, 10) SOC_EQ(tmp, "hi3670", "970", SOC_HISILICON_3670, soc, 10)
SOC_EQ(tmp, "Hi3680", "980", SOC_HISILICON_3680, soc, 7) SOC_EQ(tmp, "hi3680", "980", SOC_HISILICON_3680, soc, 7)
//SOC_EQ(tmp, "?", "985", SOC_KIRIN, soc, 7) //SOC_EQ(tmp, "?", "985", SOC_KIRIN, soc, 7)
SOC_EQ(tmp, "Hi3690", "990", SOC_HISILICON_3690, soc, 7) SOC_EQ(tmp, "hi3690", "990", SOC_HISILICON_3690, soc, 7)
SOC_END SOC_END
} }
@@ -454,6 +459,49 @@ bool match_qualcomm(char* soc_name, struct system_on_chip* soc) {
SOC_END SOC_END
} }
// https://linux-sunxi.org/Allwinner_SoC_Family
bool match_allwinner(char* soc_name, struct system_on_chip* soc) {
char* tmp;
if((tmp = strstr(soc_name, "sun")) == NULL)
return false;
SOC_START
// A series 32 bits
SOC_EQ(tmp, "sun4i", "A10", SOC_ALLWINNER_A10, soc, 55)
SOC_EQ(tmp, "sun5i", "A13", SOC_ALLWINNER_A13, soc, 55)
SOC_EQ(tmp, "sun5i", "A10s", SOC_ALLWINNER_A10S, soc, 55)
SOC_EQ(tmp, "sun7i", "A20", SOC_ALLWINNER_A20, soc, 40)
SOC_EQ(tmp, "sun8i", "A23", SOC_ALLWINNER_A23, soc, 40)
SOC_EQ(tmp, "sun6i", "A31", SOC_ALLWINNER_A31, soc, 40)
SOC_EQ(tmp, "sun6i", "A31s", SOC_ALLWINNER_A31S, soc, 40)
SOC_EQ(tmp, "sun8i", "A33", SOC_ALLWINNER_A33, soc, 40)
SOC_EQ(tmp, "sun8i", "A40", SOC_ALLWINNER_A40, soc, 40)
SOC_EQ(tmp, "sun8i", "A50", SOC_ALLWINNER_A50, soc, 28)
SOC_EQ(tmp, "sun9i", "A80", SOC_ALLWINNER_A80, soc, 28)
SOC_EQ(tmp, "sun8i", "A83T", SOC_ALLWINNER_A83T, soc, 28)
// H series 32 bits
SOC_EQ(tmp, "sun8i", "H2+", SOC_ALLWINNER_HZP, soc, 40)
SOC_EQ(tmp, "sun8i", "H3", SOC_ALLWINNER_H3, soc, 40)
SOC_EQ(tmp, "sun8i", "H8", SOC_ALLWINNER_H8, soc, 28)
// H series 64 bits
SOC_EQ(tmp, "sun50i", "H5", SOC_ALLWINNER_H5, soc, 40)
SOC_EQ(tmp, "sun50i", "H6", SOC_ALLWINNER_H6, soc, 28)
SOC_EQ(tmp, "sun50i", "H616", SOC_ALLWINNER_H616, soc, 28)
// R series 32 bits
SOC_EQ(tmp, "sun5i", "R8", SOC_ALLWINNER_R8, soc, 55)
SOC_EQ(tmp, "sun8i", "R16", SOC_ALLWINNER_R16, soc, 40)
SOC_EQ(tmp, "sun8i", "R40", SOC_ALLWINNER_R40, soc, 40)
SOC_EQ(tmp, "sun8i", "R58", SOC_ALLWINNER_R58, soc, 28)
// R series 64 bits
SOC_EQ(tmp, "sun50i", "R329", SOC_ALLWINNER_R328, soc, 28)
SOC_END
}
bool match_special(char* soc_name, struct system_on_chip* soc) { bool match_special(char* soc_name, struct system_on_chip* soc) {
char* tmp; char* tmp;
@@ -490,6 +538,9 @@ struct system_on_chip* parse_soc_from_string(struct system_on_chip* soc) {
if(match_hisilicon(raw_name, soc)) if(match_hisilicon(raw_name, soc))
return soc; return soc;
if(match_allwinner(raw_name, soc))
return soc;
match_broadcom(raw_name, soc); match_broadcom(raw_name, soc);
return soc; return soc;
} }
@@ -595,6 +646,56 @@ struct system_on_chip* guess_soc_raspbery_pi(struct system_on_chip* soc) {
return soc; return soc;
} }
#if defined(__APPLE__) || defined(__MACH__)
struct system_on_chip* guess_soc_apple(struct system_on_chip* soc) {
uint32_t cpu_family = get_sys_info_by_name("hw.cpufamily");
uint32_t cpu_subfamily = get_sys_info_by_name("hw.cpusubfamily");
if(cpu_family == CPUFAMILY_ARM_FIRESTORM_ICESTORM) {
// Check M1 version
if(cpu_subfamily == CPUSUBFAMILY_ARM_HG) {
fill_soc(soc, "M1", SOC_APPLE_M1, 5);
}
else if(cpu_subfamily == CPUSUBFAMILY_ARM_HS) {
fill_soc(soc, "M1 Pro", SOC_APPLE_M1_PRO, 5);
}
else if(cpu_subfamily == CPUSUBFAMILY_ARM_HC_HD) {
// Could be M1 Max or M1 Ultra (2x M1 Max)
uint32_t physicalcpu = get_sys_info_by_name("hw.physicalcpu");
if(physicalcpu == 20) {
fill_soc(soc, "M1 Ultra", SOC_APPLE_M1_ULTRA, 5);
}
else if(physicalcpu == 10) {
fill_soc(soc, "M1 Max", SOC_APPLE_M1_MAX, 5);
}
else {
printBug("Found invalid physical cpu number: %d", physicalcpu);
soc->soc_vendor = SOC_VENDOR_UNKNOWN;
}
}
else {
printBug("Found invalid cpu_subfamily: 0x%.8X", cpu_subfamily);
soc->soc_vendor = SOC_VENDOR_UNKNOWN;
}
}
else if(cpu_family == CPUFAMILY_ARM_AVALANCHE_BLIZZARD) {
// Check M2 version
if(cpu_subfamily == CPUSUBFAMILY_ARM_HG) {
fill_soc(soc, "M2", SOC_APPLE_M2, 5);
}
else {
printBug("Found invalid cpu_subfamily: 0x%.8X", cpu_subfamily);
soc->soc_vendor = SOC_VENDOR_UNKNOWN;
}
}
else {
printBug("Found invalid cpu_family: 0x%.8X", cpu_family);
soc->soc_vendor = SOC_VENDOR_UNKNOWN;
}
return soc;
}
#endif
struct system_on_chip* get_soc() { struct system_on_chip* get_soc() {
struct system_on_chip* soc = emalloc(sizeof(struct system_on_chip)); struct system_on_chip* soc = emalloc(sizeof(struct system_on_chip));
soc->raw_name = NULL; soc->raw_name = NULL;
@@ -628,7 +729,13 @@ struct system_on_chip* get_soc() {
#endif // ifdef __ANDROID__ #endif // ifdef __ANDROID__
} }
#elif defined __APPLE__ || __MACH__ #elif defined __APPLE__ || __MACH__
fill_soc(soc, "M1", SOC_APPLE_M1, 5); soc = guess_soc_apple(soc);
if(soc->soc_vendor == SOC_VENDOR_UNKNOWN) {
printWarn("SoC detection failed using cpu_subfamily");
}
else {
return soc;
}
#endif // ifdef __linux__ #endif // ifdef __linux__
if(soc->raw_name == NULL) { if(soc->raw_name == NULL) {

View File

@@ -13,7 +13,8 @@ enum {
SOC_VENDOR_EXYNOS, SOC_VENDOR_EXYNOS,
SOC_VENDOR_KIRIN, SOC_VENDOR_KIRIN,
SOC_VENDOR_BROADCOM, SOC_VENDOR_BROADCOM,
SOC_VENDOR_APPLE SOC_VENDOR_APPLE,
SOC_VENDOR_ALLWINNER
}; };
struct system_on_chip { struct system_on_chip {

View File

@@ -253,7 +253,35 @@ enum {
SOC_SNAPD_SM8250_AB, SOC_SNAPD_SM8250_AB,
SOC_SNAPD_SM8350, SOC_SNAPD_SM8350,
// APPLE // APPLE
SOC_APPLE_M1 SOC_APPLE_M1,
SOC_APPLE_M1_PRO,
SOC_APPLE_M1_MAX,
SOC_APPLE_M1_ULTRA,
SOC_APPLE_M2,
// ALLWINNER
SOC_ALLWINNER_A10,
SOC_ALLWINNER_A13,
SOC_ALLWINNER_A10S,
SOC_ALLWINNER_A20,
SOC_ALLWINNER_A23,
SOC_ALLWINNER_A31,
SOC_ALLWINNER_A31S,
SOC_ALLWINNER_A33,
SOC_ALLWINNER_A40,
SOC_ALLWINNER_A50,
SOC_ALLWINNER_A80,
SOC_ALLWINNER_A83T,
SOC_ALLWINNER_HZP,
SOC_ALLWINNER_H3,
SOC_ALLWINNER_H8,
SOC_ALLWINNER_H5,
SOC_ALLWINNER_H6,
SOC_ALLWINNER_H616,
SOC_ALLWINNER_R8,
SOC_ALLWINNER_R16,
SOC_ALLWINNER_R40,
SOC_ALLWINNER_R58,
SOC_ALLWINNER_R328
}; };
inline static VENDOR get_soc_vendor_from_soc(SOC soc) { inline static VENDOR get_soc_vendor_from_soc(SOC soc) {
@@ -262,7 +290,8 @@ inline static VENDOR get_soc_vendor_from_soc(SOC soc) {
else if(soc >= SOC_EXYNOS_3475 && soc <= SOC_EXYNOS_880) return SOC_VENDOR_EXYNOS; else if(soc >= SOC_EXYNOS_3475 && soc <= SOC_EXYNOS_880) return SOC_VENDOR_EXYNOS;
else if(soc >= SOC_MTK_MT6893 && soc <= SOC_MTK_MT8783) return SOC_VENDOR_MEDIATEK; else if(soc >= SOC_MTK_MT6893 && soc <= SOC_MTK_MT8783) return SOC_VENDOR_MEDIATEK;
else if(soc >= SOC_SNAPD_QSD8650 && soc <= SOC_SNAPD_SM8350) return SOC_VENDOR_SNAPDRAGON; else if(soc >= SOC_SNAPD_QSD8650 && soc <= SOC_SNAPD_SM8350) return SOC_VENDOR_SNAPDRAGON;
else if(soc >= SOC_APPLE_M1 && soc <= SOC_APPLE_M1) return SOC_VENDOR_APPLE; else if(soc >= SOC_APPLE_M1 && soc <= SOC_APPLE_M2) return SOC_VENDOR_APPLE;
else if(soc >= SOC_ALLWINNER_A10 && soc <= SOC_ALLWINNER_R328) return SOC_VENDOR_ALLWINNER;
return SOC_VENDOR_UNKNOWN; return SOC_VENDOR_UNKNOWN;
} }

View File

@@ -1,6 +1,36 @@
#ifndef __SYSCTL__ #ifndef __SYSCTL__
#define __SYSCTL__ #define __SYSCTL__
// From Linux kernel: arch/arm64/include/asm/cputype.h
#define MIDR_APPLE_M1_ICESTORM 0x610F0220
#define MIDR_APPLE_M1_FIRESTORM 0x610F0230
// Kernel does not include those, so I just assume that
// APPLE_CPU_PART_M2_BLIZZARD=0x30,M2_AVALANCHE=0x31
#define MIDR_APPLE_M2_BLIZZARD 0x610F0300
#define MIDR_APPLE_M2_AVALANCHE 0x610F0310
// M1 / A14
#ifndef CPUFAMILY_ARM_FIRESTORM_ICESTORM
#define CPUFAMILY_ARM_FIRESTORM_ICESTORM 0x1B588BB3
#endif
// M2 / A15
#ifndef CPUFAMILY_ARM_AVALANCHE_BLIZZARD
#define CPUFAMILY_ARM_AVALANCHE_BLIZZARD 0xDA33D83D
#endif
// For detecting different M1 types
// NOTE: Could also be achieved detecting different
// MIDR values (e.g., APPLE_CPU_PART_M1_ICESTORM_PRO)
#ifndef CPUSUBFAMILY_ARM_HG
#define CPUSUBFAMILY_ARM_HG 2
#endif
#ifndef CPUSUBFAMILY_ARM_HS
#define CPUSUBFAMILY_ARM_HS 4
#endif
#ifndef CPUSUBFAMILY_ARM_HC_HD
#define CPUSUBFAMILY_ARM_HC_HD 5
#endif
uint32_t get_sys_info_by_name(char* name); uint32_t get_sys_info_by_name(char* name);
#endif #endif

View File

@@ -33,6 +33,7 @@ enum {
ISA_ARMv8_2_A, ISA_ARMv8_2_A,
ISA_ARMv8_3_A, ISA_ARMv8_3_A,
ISA_ARMv8_4_A, ISA_ARMv8_4_A,
ISA_ARMv8_5_A
}; };
enum { enum {
@@ -95,6 +96,8 @@ enum {
UARCH_THUNDER, // Apple A13 processor (little cores). UARCH_THUNDER, // Apple A13 processor (little cores).
UARCH_ICESTORM, // Apple M1 processor (little cores). UARCH_ICESTORM, // Apple M1 processor (little cores).
UARCH_FIRESTORM, // Apple M1 processor (big cores). UARCH_FIRESTORM, // Apple M1 processor (big cores).
UARCH_BLIZZARD, // Apple M2 processor (little cores).
UARCH_AVALANCHE, // Apple M2 processor (big cores).
// CAVIUM // CAVIUM
UARCH_THUNDERX, // Cavium ThunderX UARCH_THUNDERX, // Cavium ThunderX
UARCH_THUNDERX2, // Cavium ThunderX2 (originally Broadcom Vulkan). UARCH_THUNDERX2, // Cavium ThunderX2 (originally Broadcom Vulkan).
@@ -103,7 +106,9 @@ enum {
UARCH_BRAHMA_B15, UARCH_BRAHMA_B15,
UARCH_BRAHMA_B53, UARCH_BRAHMA_B53,
UARCH_XGENE, // Applied Micro X-Gene. UARCH_XGENE, // Applied Micro X-Gene.
UARCH_TAISHAN_V110 // HiSilicon TaiShan v110 (Huawei Kunpeng 920 series processors). UARCH_TAISHAN_V110, // HiSilicon TaiShan v110 (Huawei Kunpeng 920 series processors).
// PHYTIUM
UARCH_XIAOMI, // Not to be confused with Xiaomi Inc
}; };
static const ISA isas_uarch[] = { static const ISA isas_uarch[] = {
@@ -153,9 +158,12 @@ static const ISA isas_uarch[] = {
[UARCH_EXYNOS_M3] = ISA_ARMv8_A, [UARCH_EXYNOS_M3] = ISA_ARMv8_A,
[UARCH_EXYNOS_M4] = ISA_ARMv8_2_A, [UARCH_EXYNOS_M4] = ISA_ARMv8_2_A,
[UARCH_EXYNOS_M5] = ISA_ARMv8_2_A, [UARCH_EXYNOS_M5] = ISA_ARMv8_2_A,
[UARCH_ICESTORM] = ISA_ARMv8_4_A, [UARCH_ICESTORM] = ISA_ARMv8_5_A, // https://github.com/llvm/llvm-project/blob/main/llvm/include/llvm/Support/AArch64TargetParser.def
[UARCH_FIRESTORM] = ISA_ARMv8_4_A, [UARCH_FIRESTORM] = ISA_ARMv8_5_A,
[UARCH_BLIZZARD] = ISA_ARMv8_5_A, // Not confirmed
[UARCH_AVALANCHE] = ISA_ARMv8_5_A,
[UARCH_PJ4] = ISA_ARMv7_A, [UARCH_PJ4] = ISA_ARMv7_A,
[UARCH_XIAOMI] = ISA_ARMv8_A,
}; };
static char* isas_string[] = { static char* isas_string[] = {
@@ -169,7 +177,8 @@ static char* isas_string[] = {
[ISA_ARMv8_1_A] = "ARMv8.1", [ISA_ARMv8_1_A] = "ARMv8.1",
[ISA_ARMv8_2_A] = "ARMv8.2", [ISA_ARMv8_2_A] = "ARMv8.2",
[ISA_ARMv8_3_A] = "ARMv8.3", [ISA_ARMv8_3_A] = "ARMv8.3",
[ISA_ARMv8_4_A] = "ARMv8.4" [ISA_ARMv8_4_A] = "ARMv8.4",
[ISA_ARMv8_5_A] = "ARMv8.5"
}; };
#define UARCH_START if (false) {} #define UARCH_START if (false) {}
@@ -289,8 +298,13 @@ struct uarch* get_uarch_from_midr(uint32_t midr, struct cpuInfo* cpu) {
CHECK_UARCH(arch, cpu, 'S', 0x003, 1, NA, "Exynos M4", UARCH_EXYNOS_M4, CPU_VENDOR_SAMSUNG) // Exynos 9820 CHECK_UARCH(arch, cpu, 'S', 0x003, 1, NA, "Exynos M4", UARCH_EXYNOS_M4, CPU_VENDOR_SAMSUNG) // Exynos 9820
CHECK_UARCH(arch, cpu, 'S', 0x004, 1, NA, "Exynos M5", UARCH_EXYNOS_M5, CPU_VENDOR_SAMSUNG) // Exynos 9820 (this one looks wrong at uarch.c ...) CHECK_UARCH(arch, cpu, 'S', 0x004, 1, NA, "Exynos M5", UARCH_EXYNOS_M5, CPU_VENDOR_SAMSUNG) // Exynos 9820 (this one looks wrong at uarch.c ...)
CHECK_UARCH(arch, cpu, 'p', 0x663, 1, NA, "Xiaomi", UARCH_XIAOMI, CPU_VENDOR_PHYTIUM) // From a fellow contributor (https://github.com/Dr-Noob/cpufetch/issues/125)
// Also interesting: https://en.wikipedia.org/wiki/FeiTeng_(processor)
CHECK_UARCH(arch, cpu, 'a', 0x022, NA, NA, "Icestorm", UARCH_ICESTORM, CPU_VENDOR_APPLE) CHECK_UARCH(arch, cpu, 'a', 0x022, NA, NA, "Icestorm", UARCH_ICESTORM, CPU_VENDOR_APPLE)
CHECK_UARCH(arch, cpu, 'a', 0x023, NA, NA, "Firestorm", UARCH_FIRESTORM, CPU_VENDOR_APPLE) CHECK_UARCH(arch, cpu, 'a', 0x023, NA, NA, "Firestorm", UARCH_FIRESTORM, CPU_VENDOR_APPLE)
CHECK_UARCH(arch, cpu, 'a', 0x030, NA, NA, "Blizzard", UARCH_BLIZZARD, CPU_VENDOR_APPLE)
CHECK_UARCH(arch, cpu, 'a', 0x031, NA, NA, "Avalanche", UARCH_AVALANCHE, CPU_VENDOR_APPLE)
CHECK_UARCH(arch, cpu, 'V', 0x581, NA, NA, "PJ4", UARCH_PJ4, CPU_VENDOR_MARVELL) CHECK_UARCH(arch, cpu, 'V', 0x581, NA, NA, "PJ4", UARCH_PJ4, CPU_VENDOR_MARVELL)
CHECK_UARCH(arch, cpu, 'V', 0x584, NA, NA, "PJ4B-MP", UARCH_PJ4, CPU_VENDOR_MARVELL) CHECK_UARCH(arch, cpu, 'V', 0x584, NA, NA, "PJ4B-MP", UARCH_PJ4, CPU_VENDOR_MARVELL)

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@@ -218,6 +218,24 @@ $C1 kMMMMMMMMMMMMMMMMMMMMMMd \
$C1 'KMMMMMMMWXXWMMMMMMMk. \ $C1 'KMMMMMMMWXXWMMMMMMMk. \
$C1 \"cooc\"* \"*coo'\" " $C1 \"cooc\"* \"*coo'\" "
#define ASCII_ALLWINNER \
"$C1 \
$C1 ################# \
$C1 .######## ##### #### \
$C1 ###### ####### \
$C1 #####. ## ..## ####. \
$C1 .#### #### ##### #### \
$C1 #### ## ### ###. ##### . \
$C1#### ## ## #### .###### ####* . \
$C1### ## ##.### ## #### .###### \
$C1### #.## ### ##### ##### . \
$C1### ### ### .### ### . \
$C1 #### ### #### #. \
$C1 #### #* \
$C1 ##### ##. \
$C1 ###########. \
$C1 "
// --------------------- LONG LOGOS ------------------------- // // --------------------- LONG LOGOS ------------------------- //
#define ASCII_AMD_L \ #define ASCII_AMD_L \
"$C1 \ "$C1 \
@@ -317,7 +335,9 @@ asciiL logo_kirin = { ASCII_KIRIN, 53, 12, false, {C_FG_RED},
asciiL logo_broadcom = { ASCII_BROADCOM, 44, 19, false, {C_FG_WHITE, C_FG_RED}, {C_FG_WHITE, C_FG_RED} }; asciiL logo_broadcom = { ASCII_BROADCOM, 44, 19, false, {C_FG_WHITE, C_FG_RED}, {C_FG_WHITE, C_FG_RED} };
asciiL logo_arm = { ASCII_ARM, 42, 5, false, {C_FG_CYAN}, {C_FG_WHITE, C_FG_CYAN} }; asciiL logo_arm = { ASCII_ARM, 42, 5, false, {C_FG_CYAN}, {C_FG_WHITE, C_FG_CYAN} };
asciiL logo_ibm = { ASCII_IBM, 42, 9, false, {C_FG_CYAN, C_FG_WHITE}, {C_FG_CYAN, C_FG_WHITE} }; asciiL logo_ibm = { ASCII_IBM, 42, 9, false, {C_FG_CYAN, C_FG_WHITE}, {C_FG_CYAN, C_FG_WHITE} };
asciiL logo_apple = { ASCII_APPLE, 32, 17, false, {C_FG_WHITE}, {C_FG_B_BLACK, C_FG_B_WHITE} }; asciiL logo_apple = { ASCII_APPLE, 32, 17, false, {C_FG_WHITE}, {C_FG_CYAN, C_FG_B_WHITE} };
asciiL logo_allwinner = { ASCII_ALLWINNER, 47, 16, false, {C_FG_CYAN}, {C_FG_B_BLACK, C_FG_B_CYAN } };
// Long variants | ----------------------------------------------------------------------------------------------------| // Long variants | ----------------------------------------------------------------------------------------------------|
asciiL logo_amd_l = { ASCII_AMD_L, 62, 19, true, {C_BG_WHITE, C_BG_GREEN}, {C_FG_WHITE, C_FG_GREEN} }; asciiL logo_amd_l = { ASCII_AMD_L, 62, 19, true, {C_BG_WHITE, C_BG_GREEN}, {C_FG_WHITE, C_FG_GREEN} };
asciiL logo_intel_l = { ASCII_INTEL_L, 62, 19, true, {C_BG_CYAN, C_BG_WHITE}, {C_FG_CYAN, C_FG_WHITE} }; asciiL logo_intel_l = { ASCII_INTEL_L, 62, 19, true, {C_BG_CYAN, C_BG_WHITE}, {C_FG_CYAN, C_FG_WHITE} };

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@@ -19,6 +19,7 @@ enum {
CPU_VENDOR_HUAWUEI, CPU_VENDOR_HUAWUEI,
CPU_VENDOR_SAMSUNG, CPU_VENDOR_SAMSUNG,
CPU_VENDOR_MARVELL, CPU_VENDOR_MARVELL,
CPU_VENDOR_PHYTIUM,
// OTHERS // OTHERS
CPU_VENDOR_UNKNOWN, CPU_VENDOR_UNKNOWN,
CPU_VENDOR_INVALID CPU_VENDOR_INVALID
@@ -34,6 +35,12 @@ enum {
HV_VENDOR_INVALID HV_VENDOR_INVALID
}; };
enum {
CORE_TYPE_EFFICIENCY,
CORE_TYPE_PERFORMANCE,
CORE_TYPE_UNKNOWN
};
#define UNKNOWN_DATA -1 #define UNKNOWN_DATA -1
#define CPU_NAME_MAX_LENGTH 64 #define CPU_NAME_MAX_LENGTH 64
@@ -77,6 +84,7 @@ struct topology {
uint32_t smt_supported; // Number of SMT that CPU supports (equal to smt_available if SMT is enabled) uint32_t smt_supported; // Number of SMT that CPU supports (equal to smt_available if SMT is enabled)
#ifdef ARCH_X86 #ifdef ARCH_X86
uint32_t smt_available; // Number of SMT that is currently enabled uint32_t smt_available; // Number of SMT that is currently enabled
int32_t total_cores_module; // Total cores in the current module (only makes sense in hybrid archs, like ADL)
struct apic* apic; struct apic* apic;
#endif #endif
#endif #endif
@@ -130,6 +138,10 @@ struct cpuInfo {
uint32_t maxExtendedLevels; uint32_t maxExtendedLevels;
// Topology Extensions (AMD only) // Topology Extensions (AMD only)
bool topology_extensions; bool topology_extensions;
// Hybrid Flag (Intel only)
bool hybrid_flag;
// Core Type (P/E)
uint32_t core_type;
#elif ARCH_PPC #elif ARCH_PPC
uint32_t pvr; uint32_t pvr;
#elif ARCH_ARM #elif ARCH_ARM
@@ -139,11 +151,18 @@ struct cpuInfo {
#ifdef ARCH_ARM #ifdef ARCH_ARM
struct system_on_chip* soc; struct system_on_chip* soc;
#endif
#if defined(ARCH_X86) || defined(ARCH_ARM)
// If SoC contains more than one CPU and they // If SoC contains more than one CPU and they
// are different, the others will be stored in // are different, the others will be stored in
// the next_cpu field // the next_cpu field
struct cpuInfo* next_cpu; struct cpuInfo* next_cpu;
uint8_t num_cpus; uint8_t num_cpus;
#ifdef ARCH_X86
// The index of the first core in the module
uint32_t first_core_id;
#endif
#endif #endif
}; };

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@@ -60,7 +60,7 @@ void printBug(const char *fmt, ...) {
#if defined(ARCH_X86) || defined(ARCH_PPC) #if defined(ARCH_X86) || defined(ARCH_PPC)
fprintf(stderr, "Please, create a new issue with this error message, the output of 'cpufetch' and 'cpufetch --debug' on https://github.com/Dr-Noob/cpufetch/issues\n"); fprintf(stderr, "Please, create a new issue with this error message, the output of 'cpufetch' and 'cpufetch --debug' on https://github.com/Dr-Noob/cpufetch/issues\n");
#elif ARCH_ARM #elif ARCH_ARM
fprintf(stderr, "Please, create a new issue with this error message, your smartphone/computer model, the output of 'cpufetch' and 'cpufetch --debug' on https://github.com/Dr-Noob/cpufetch/issues\n"); fprintf(stderr, "Please, create a new issue with this error message, your smartphone/computer model, the output of 'cpufetch --verbose' and 'cpufetch --debug' on https://github.com/Dr-Noob/cpufetch/issues\n");
#endif #endif
} }
@@ -111,3 +111,15 @@ void* ecalloc(size_t nmemb, size_t size) {
return ptr; return ptr;
} }
void* erealloc(void *ptr, size_t size) {
void* newptr = realloc(ptr, size);
if(newptr == NULL) {
printErr("realloc failed: %s", strerror(errno));
exit(1);
}
return newptr;
}

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@@ -15,5 +15,6 @@ int max(int a, int b);
char *strremove(char *str, const char *sub); char *strremove(char *str, const char *sub);
void* emalloc(size_t size); void* emalloc(size_t size);
void* ecalloc(size_t nmemb, size_t size); void* ecalloc(size_t nmemb, size_t size);
void* erealloc(void *ptr, size_t size);
#endif #endif

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@@ -33,7 +33,7 @@
static const char* OS_STR = "Unknown OS"; static const char* OS_STR = "Unknown OS";
#endif #endif
static const char* VERSION = "1.01"; static const char* VERSION = "1.02";
void print_help(char *argv[]) { void print_help(char *argv[]) {
const char **t = args_str; const char **t = args_str;

View File

@@ -44,6 +44,8 @@ enum {
ATTRIBUTE_NAME, ATTRIBUTE_NAME,
#elif ARCH_ARM #elif ARCH_ARM
ATTRIBUTE_SOC, ATTRIBUTE_SOC,
#endif
#if defined(ARCH_X86) || defined(ARCH_ARM)
ATTRIBUTE_CPU_NUM, ATTRIBUTE_CPU_NUM,
#endif #endif
ATTRIBUTE_HYPERVISOR, ATTRIBUTE_HYPERVISOR,
@@ -75,6 +77,8 @@ static const char* ATTRIBUTE_FIELDS [] = {
"Part Number:", "Part Number:",
#elif ARCH_ARM #elif ARCH_ARM
"SoC:", "SoC:",
#endif
#if defined(ARCH_X86) || defined(ARCH_ARM)
"", "",
#endif #endif
"Hypervisor:", "Hypervisor:",
@@ -106,6 +110,8 @@ static const char* ATTRIBUTE_FIELDS_SHORT [] = {
"P/N:", "P/N:",
#elif ARCH_ARM #elif ARCH_ARM
"SoC:", "SoC:",
#endif
#if defined(ARCH_X86) || defined(ARCH_ARM)
"", "",
#endif #endif
"Hypervisor:", "Hypervisor:",
@@ -353,6 +359,8 @@ void choose_ascii_art(struct ascii* art, struct color** cs, struct terminal* ter
art->art = &logo_broadcom; art->art = &logo_broadcom;
else if(art->vendor == SOC_VENDOR_APPLE) else if(art->vendor == SOC_VENDOR_APPLE)
art->art = &logo_apple; art->art = &logo_apple;
else if(art->vendor == SOC_VENDOR_ALLWINNER)
art->art = &logo_allwinner;
else { else {
art->art = choose_ascii_art_aux(&logo_arm_l, &logo_arm, term, lf); art->art = choose_ascii_art_aux(&logo_arm_l, &logo_arm, term, lf);
} }
@@ -422,11 +430,12 @@ uint32_t longest_field_length(struct ascii* art, int la) {
} }
#if defined(ARCH_X86) || defined(ARCH_PPC) #if defined(ARCH_X86) || defined(ARCH_PPC)
void print_ascii_generic(struct ascii* art, uint32_t la, int32_t termw, const char** attribute_fields) { void print_ascii_generic(struct ascii* art, uint32_t la, int32_t termw, const char** attribute_fields, bool hybrid_architecture) {
struct ascii_logo* logo = art->art; struct ascii_logo* logo = art->art;
int attr_to_print = 0; int attr_to_print = 0;
int attr_type; int attr_type;
char* attr_value; char* attr_value;
int32_t beg_space;
int32_t space_right; int32_t space_right;
int32_t space_up = ((int)logo->height - (int)art->n_attributes_set)/2; int32_t space_up = ((int)logo->height - (int)art->n_attributes_set)/2;
int32_t space_down = (int)logo->height - (int)art->n_attributes_set - (int)space_up; int32_t space_down = (int)logo->height - (int)art->n_attributes_set - (int)space_up;
@@ -437,6 +446,7 @@ void print_ascii_generic(struct ascii* art, uint32_t la, int32_t termw, const ch
lbuf->buf = emalloc(sizeof(char) * LINE_BUFFER_SIZE); lbuf->buf = emalloc(sizeof(char) * LINE_BUFFER_SIZE);
lbuf->pos = 0; lbuf->pos = 0;
lbuf->chars = 0; lbuf->chars = 0;
bool add_space = false;
printf("\n"); printf("\n");
for(int32_t n=0; n < iters; n++) { for(int32_t n=0; n < iters; n++) {
@@ -471,9 +481,24 @@ void print_ascii_generic(struct ascii* art, uint32_t la, int32_t termw, const ch
attr_value = art->attributes[attr_to_print]->value; attr_value = art->attributes[attr_to_print]->value;
attr_to_print++; attr_to_print++;
space_right = 1 + (la - strlen(attribute_fields[attr_type])); if(attr_type == ATTRIBUTE_L3) {
printOut(lbuf, strlen(attribute_fields[attr_type]) + space_right + strlen(attr_value), add_space = false;
"%s%s%s%*s%s%s%s", logo->color_text[0], attribute_fields[attr_type], art->reset, space_right, "", logo->color_text[1], attr_value, art->reset); }
if(attr_type == ATTRIBUTE_CPU_NUM) {
printOut(lbuf, strlen(attr_value), "%s%s%s", logo->color_text[0], attr_value, art->reset);
add_space = true;
}
else {
beg_space = 0;
space_right = 2 + 1 + (la - strlen(attribute_fields[attr_type]));
if(hybrid_architecture && add_space) {
beg_space = 2;
space_right -= 2;
}
printOut(lbuf, beg_space + strlen(attribute_fields[attr_type]) + space_right + strlen(attr_value),
"%*s%s%s%s%*s%s%s%s", beg_space, "", logo->color_text[0], attribute_fields[attr_type], art->reset, space_right, "", logo->color_text[1], attr_value, art->reset);
}
} }
printOutLine(lbuf, art, termw); printOutLine(lbuf, art, termw);
printf("\n"); printf("\n");
@@ -498,21 +523,20 @@ bool print_cpufetch_x86(struct cpuInfo* cpu, STYLE s, struct color** cs, struct
return false; return false;
art->new_intel_logo = choose_new_intel_logo(cpu); art->new_intel_logo = choose_new_intel_logo(cpu);
char* uarch = get_str_uarch(cpu);
char* manufacturing_process = get_str_process(cpu);
char* sockets = get_str_sockets(cpu->topo);
char* max_frequency = get_str_freq(cpu->freq);
char* n_cores = get_str_topology(cpu, cpu->topo, false);
char* n_cores_dual = get_str_topology(cpu, cpu->topo, true);
char* cpu_name = get_str_cpu_name(cpu, fcpuname);
char* avx = get_str_avx(cpu);
char* fma = get_str_fma(cpu);
char* l1i = get_str_l1i(cpu->cach); uint32_t socket_num = 1;
char* l1d = get_str_l1d(cpu->cach); char* l1i, *l1d, *l2, *l3, *n_cores, *n_cores_dual, *sockets;
char* l2 = get_str_l2(cpu->cach); l1i = l1d = l2 = l3 = n_cores = n_cores_dual = sockets = NULL;
char* l3 = get_str_l3(cpu->cach);
char* cpu_name = get_str_cpu_name(cpu, fcpuname);
char* uarch = get_str_uarch(cpu);
char* pp = get_str_peak_performance(cpu->peak_performance); char* pp = get_str_peak_performance(cpu->peak_performance);
char* manufacturing_process = get_str_process(cpu);
bool hybrid_architecture = cpu->next_cpu != NULL;
if(cpu->cach != NULL) {
l3 = get_str_l3(cpu->cach);
}
setAttribute(art, ATTRIBUTE_NAME, cpu_name); setAttribute(art, ATTRIBUTE_NAME, cpu_name);
if(cpu->hv->present) { if(cpu->hv->present) {
@@ -520,8 +544,36 @@ bool print_cpufetch_x86(struct cpuInfo* cpu, STYLE s, struct color** cs, struct
} }
setAttribute(art, ATTRIBUTE_UARCH, uarch); setAttribute(art, ATTRIBUTE_UARCH, uarch);
setAttribute(art, ATTRIBUTE_TECHNOLOGY, manufacturing_process); setAttribute(art, ATTRIBUTE_TECHNOLOGY, manufacturing_process);
struct cpuInfo* ptr = cpu;
for(int i = 0; i < cpu->num_cpus; ptr = ptr->next_cpu, i++) {
char* max_frequency = get_str_freq(ptr->freq);
char* avx = get_str_avx(ptr);
char* fma = get_str_fma(ptr);
char* cpu_num = emalloc(sizeof(char) * 9);
if(ptr->topo != NULL) {
sockets = get_str_sockets(ptr->topo);
n_cores = get_str_topology(ptr, ptr->topo, false);
n_cores_dual = get_str_topology(ptr, ptr->topo, true);
}
if(ptr->cach != NULL) {
l1i = get_str_l1i(ptr->cach);
l1d = get_str_l1d(ptr->cach);
l2 = get_str_l2(ptr->cach);
}
if(hybrid_architecture) {
if(ptr->core_type == CORE_TYPE_EFFICIENCY) sprintf(cpu_num, "E-cores:");
else if(ptr->core_type == CORE_TYPE_PERFORMANCE) sprintf(cpu_num, "P-cores:");
else printBug("Found invalid core type!\n");
setAttribute(art, ATTRIBUTE_CPU_NUM, cpu_num);
}
setAttribute(art, ATTRIBUTE_FREQUENCY, max_frequency); setAttribute(art, ATTRIBUTE_FREQUENCY, max_frequency);
uint32_t socket_num = get_nsockets(cpu->topo); if(ptr->topo != NULL) {
socket_num = get_nsockets(ptr->topo);
if (socket_num > 1) { if (socket_num > 1) {
setAttribute(art, ATTRIBUTE_SOCKETS, sockets); setAttribute(art, ATTRIBUTE_SOCKETS, sockets);
setAttribute(art, ATTRIBUTE_NCORES, n_cores); setAttribute(art, ATTRIBUTE_NCORES, n_cores);
@@ -530,16 +582,17 @@ bool print_cpufetch_x86(struct cpuInfo* cpu, STYLE s, struct color** cs, struct
else { else {
setAttribute(art, ATTRIBUTE_NCORES, n_cores); setAttribute(art, ATTRIBUTE_NCORES, n_cores);
} }
}
setAttribute(art, ATTRIBUTE_AVX, avx); setAttribute(art, ATTRIBUTE_AVX, avx);
setAttribute(art, ATTRIBUTE_FMA, fma); setAttribute(art, ATTRIBUTE_FMA, fma);
setAttribute(art,ATTRIBUTE_L1i,l1i); if(l1i != NULL) setAttribute(art, ATTRIBUTE_L1i, l1i);
setAttribute(art,ATTRIBUTE_L1d,l1d); if(l1d != NULL) setAttribute(art, ATTRIBUTE_L1d, l1d);
setAttribute(art,ATTRIBUTE_L2,l2); if(l2 != NULL) setAttribute(art, ATTRIBUTE_L2, l2);
if(l3 != NULL) {
setAttribute(art,ATTRIBUTE_L3,l3);
} }
if(l3 != NULL) setAttribute(art, ATTRIBUTE_L3, l3);
setAttribute(art, ATTRIBUTE_PEAK, pp); setAttribute(art, ATTRIBUTE_PEAK, pp);
// Step 3. Print output
const char** attribute_fields = ATTRIBUTE_FIELDS; const char** attribute_fields = ATTRIBUTE_FIELDS;
uint32_t longest_attribute = longest_attribute_length(art, attribute_fields); uint32_t longest_attribute = longest_attribute_length(art, attribute_fields);
uint32_t longest_field = longest_field_length(art, longest_attribute); uint32_t longest_field = longest_field_length(art, longest_attribute);
@@ -552,15 +605,12 @@ bool print_cpufetch_x86(struct cpuInfo* cpu, STYLE s, struct color** cs, struct
longest_attribute = longest_attribute_length(art, attribute_fields); longest_attribute = longest_attribute_length(art, attribute_fields);
} }
print_ascii_generic(art, longest_attribute, term->w, attribute_fields); print_ascii_generic(art, longest_attribute, term->w, attribute_fields, hybrid_architecture);
free(manufacturing_process); free(manufacturing_process);
free(max_frequency);
free(sockets); free(sockets);
free(n_cores); free(n_cores);
free(n_cores_dual); free(n_cores_dual);
free(avx);
free(fma);
free(l1i); free(l1i);
free(l1d); free(l1d);
free(l2); free(l2);
@@ -571,8 +621,8 @@ bool print_cpufetch_x86(struct cpuInfo* cpu, STYLE s, struct color** cs, struct
free(art); free(art);
if(cs != NULL) free_colors_struct(cs); if(cs != NULL) free_colors_struct(cs);
free_cache_struct(cpu->cach); if(cpu->cach != NULL) free_cache_struct(cpu->cach);
free_topo_struct(cpu->topo); if(cpu->topo != NULL) free_topo_struct(cpu->topo);
free_freq_struct(cpu->freq); free_freq_struct(cpu->freq);
free_cpuinfo_struct(cpu); free_cpuinfo_struct(cpu);
@@ -586,6 +636,7 @@ bool print_cpufetch_ppc(struct cpuInfo* cpu, STYLE s, struct color** cs, struct
if(art == NULL) if(art == NULL)
return false; return false;
// Step 1. Retrieve attributes
char* uarch = get_str_uarch(cpu); char* uarch = get_str_uarch(cpu);
char* manufacturing_process = get_str_process(cpu); char* manufacturing_process = get_str_process(cpu);
char* sockets = get_str_sockets(cpu->topo); char* sockets = get_str_sockets(cpu->topo);
@@ -601,6 +652,7 @@ bool print_cpufetch_ppc(struct cpuInfo* cpu, STYLE s, struct color** cs, struct
char* l3 = get_str_l3(cpu->cach); char* l3 = get_str_l3(cpu->cach);
char* pp = get_str_peak_performance(cpu->peak_performance); char* pp = get_str_peak_performance(cpu->peak_performance);
// Step 2. Set attributes
if(cpu_name != NULL) { if(cpu_name != NULL) {
setAttribute(art,ATTRIBUTE_NAME,cpu_name); setAttribute(art,ATTRIBUTE_NAME,cpu_name);
} }
@@ -625,6 +677,7 @@ bool print_cpufetch_ppc(struct cpuInfo* cpu, STYLE s, struct color** cs, struct
} }
setAttribute(art,ATTRIBUTE_PEAK,pp); setAttribute(art,ATTRIBUTE_PEAK,pp);
// Step 3. Print output
const char** attribute_fields = ATTRIBUTE_FIELDS; const char** attribute_fields = ATTRIBUTE_FIELDS;
uint32_t longest_attribute = longest_attribute_length(art, attribute_fields); uint32_t longest_attribute = longest_attribute_length(art, attribute_fields);
uint32_t longest_field = longest_field_length(art, longest_attribute); uint32_t longest_field = longest_field_length(art, longest_attribute);

View File

@@ -54,13 +54,18 @@ char* read_file(char* path, int* len) {
//File exists, read it //File exists, read it
int bytes_read = 0; int bytes_read = 0;
int offset = 0; int offset = 0;
int block = 128; int block = 1024;
char* buf = emalloc(sizeof(char)*DEFAULT_FILE_SIZE); int buf_size = block * 4;
memset(buf, 0, sizeof(char)*DEFAULT_FILE_SIZE); char* buf = emalloc(sizeof(char) * buf_size);
while ((bytes_read = read(fd, buf+offset, block)) > 0) { while ((bytes_read = read(fd, buf+offset, block)) > 0) {
offset += bytes_read; offset += bytes_read;
if(offset + block > buf_size) {
buf = erealloc(buf, sizeof(char) * (buf_size + block));
buf_size += block;
} }
}
buf[offset] = '\0';
if (close(fd) == -1) { if (close(fd) == -1) {
return NULL; return NULL;
@@ -160,48 +165,85 @@ long get_l3_cache_size(uint32_t core) {
return get_cache_size_from_file(path); return get_cache_size_from_file(path);
} }
void add_shared_map(uint32_t** src, int src_idx, uint32_t** dst, int dst_idx, int n) {
for(int j=0; j < n; j++) {
dst[dst_idx][j] = src[src_idx][j];
}
}
bool maps_equal(uint32_t* map1, uint32_t* map2, int n) {
for(int i=0; i < n; i++) {
if(map1[i] != map2[i]) return false;
}
return true;
}
int get_num_caches_from_files(char** paths, int num_paths) { int get_num_caches_from_files(char** paths, int num_paths) {
int SHARED_MAP_MAX_LEN = 8 + 1;
int filelen; int filelen;
char* buf; char* buf;
uint32_t* shared_maps = emalloc(sizeof(uint32_t *) * num_paths); char* tmpbuf;
// 1. Read cpu_shared_map from every core // 1. Count the number of bitmasks per file
if((buf = read_file(paths[0], &filelen)) == NULL) {
printWarn("Could not open '%s'", paths[0]);
return -1;
}
int num_bitmasks = 1;
for(int i=0; buf[i]; i++) {
num_bitmasks += (buf[i] == ',');
}
// 2. Read cpu_shared_map from every core
uint32_t** shared_maps = emalloc(sizeof(uint32_t *) * num_paths);
for(int i=0; i < num_paths; i++) { for(int i=0; i < num_paths; i++) {
shared_maps[i] = emalloc(sizeof(uint32_t) * num_bitmasks);
if((buf = read_file(paths[i], &filelen)) == NULL) { if((buf = read_file(paths[i], &filelen)) == NULL) {
printWarn("Could not open '%s'", paths[i]); printWarn("Could not open '%s'", paths[i]);
return -1; return -1;
} }
if(filelen > SHARED_MAP_MAX_LEN) { for(int j=0; j < num_bitmasks; j++) {
printBug("Shared map length is %d while the max is be %d", filelen, SHARED_MAP_MAX_LEN);
return -1;
}
char* end; char* end;
tmpbuf = emalloc(sizeof(char) * (strlen(buf) + 1));
char* commaend = strstr(buf, ",");
if(commaend == NULL) {
strcpy(tmpbuf, buf);
}
else {
strncpy(tmpbuf, buf, commaend-buf);
}
errno = 0; errno = 0;
long ret = strtol(buf, &end, 16); long ret = strtol(tmpbuf, &end, 16);
if(errno != 0) { if(errno != 0) {
printBug("strtol: %s", strerror(errno)); printf("strtol: %s", strerror(errno));
free(buf); free(buf);
return -1; return -1;
} }
shared_maps[i] = (uint32_t) ret; shared_maps[i][j] = (uint32_t) ret;
buf = commaend + 1;
free(tmpbuf);
}
} }
// 2. Count number of different masks; this is the number of caches // 2. Count number of different masks; this is the number of caches
int num_caches = 0; int num_caches = 0;
bool found = false; bool found = false;
uint32_t* unique_shared_maps = emalloc(sizeof(uint32_t *) * num_paths); uint32_t** unique_shared_maps = emalloc(sizeof(uint32_t *) * num_paths);
for(int i=0; i < num_paths; i++) unique_shared_maps[i] = 0; for(int i=0; i < num_paths; i++) {
unique_shared_maps[i] = emalloc(sizeof(uint32_t) * num_bitmasks);
for(int j=0; j < num_bitmasks; j++) {
unique_shared_maps[i][j] = 0;
}
}
for(int i=0; i < num_paths; i++) { for(int i=0; i < num_paths; i++) {
for(int j=0; j < num_paths && !found; j++) { for(int j=0; j < num_paths && !found; j++) {
if(shared_maps[i] == unique_shared_maps[j]) found = true; if(maps_equal(shared_maps[i], unique_shared_maps[j], num_bitmasks)) found = true;
} }
if(!found) { if(!found) {
unique_shared_maps[num_caches] = shared_maps[i]; add_shared_map(shared_maps, i, unique_shared_maps, num_caches, num_bitmasks);
num_caches++; num_caches++;
} }
found = false; found = false;

View File

@@ -27,7 +27,6 @@
#define _PATH_FREQUENCY_MAX_LEN 100 #define _PATH_FREQUENCY_MAX_LEN 100
#define _PATH_CACHE_MAX_LEN 200 #define _PATH_CACHE_MAX_LEN 200
#define DEFAULT_FILE_SIZE 4096
char* read_file(char* path, int* len); char* read_file(char* path, int* len);
long get_max_freq_from_file(uint32_t core); long get_max_freq_from_file(uint32_t core);

View File

@@ -181,9 +181,6 @@ struct cpuInfo* get_cpu_info() {
feat->altivec = has_altivec(cpu->arch); feat->altivec = has_altivec(cpu->arch);
cpu->peak_performance = get_peak_performance(cpu, cpu->topo, get_freq(cpu->freq)); cpu->peak_performance = get_peak_performance(cpu, cpu->topo, get_freq(cpu->freq));
if(cpu->cach == NULL || cpu->topo == NULL) {
return NULL;
}
return cpu; return cpu;
} }

View File

@@ -1,5 +1,5 @@
#ifndef __POWERPC__ #ifndef __CPUFETCH_POWERPC__
#define __POWERPC__ #define __CPUFETCH_POWERPC__
#include "../common/cpu.h" #include "../common/cpu.h"

View File

@@ -102,6 +102,59 @@ bool bind_to_cpu(int cpu_id) {
} }
#endif #endif
int get_total_cores_module(int total_cores, int module) {
int total_modules = 2;
int32_t current_module_idx = -1;
bool end = false;
int32_t* core_types = emalloc(sizeof(uint32_t) * total_modules);
for(int i=0; i < total_modules; i++) core_types[i] = -1;
int cores_in_module = 0;
int i = 0;
// Get the original mask to restore it later
cpu_set_t original_mask;
if(sched_getaffinity(0, sizeof(original_mask), &original_mask) == -1) {
printWarn("sched_getaffinity: %s", strerror(errno));
return false;
}
while(!end) {
if(!bind_to_cpu(i)) {
return -1;
}
uint32_t eax = 0x0000001A;
uint32_t ebx = 0;
uint32_t ecx = 0;
uint32_t edx = 0;
cpuid(&eax, &ebx, &ecx, &edx);
int32_t core_type = eax >> 24 & 0xFF;
bool found = false;
for(int j=0; j < total_modules && !found; j++) {
if(core_types[j] == core_type) found = true;
}
if(!found) {
current_module_idx++;
core_types[current_module_idx] = core_type;
}
if(current_module_idx == module) {
cores_in_module++;
if(i+1 == total_cores) end = true;
}
else if(cores_in_module > 0) end = true;
i++;
}
// Reset the original affinity
if (sched_setaffinity (0, sizeof(original_mask), &original_mask) == -1) {
printWarn("sched_setaffinity: %s", strerror(errno));
return false;
}
//printf("Module %d has %d cores\n", module, cores_in_module);
return cores_in_module;
}
bool fill_topo_masks_apic(struct topology* topo) { bool fill_topo_masks_apic(struct topology* topo) {
uint32_t eax = 0x00000001; uint32_t eax = 0x00000001;
uint32_t ebx = 0; uint32_t ebx = 0;
@@ -197,14 +250,14 @@ uint32_t max_apic_id_size(uint32_t** cache_id_apic, struct topology* topo) {
uint32_t max = 0; uint32_t max = 0;
for(int i=0; i < topo->cach->max_cache_level; i++) { for(int i=0; i < topo->cach->max_cache_level; i++) {
for(int j=0; j < topo->total_cores; j++) { for(int j=0; j < topo->total_cores_module; j++) {
if(cache_id_apic[j][i] > max) max = cache_id_apic[j][i]; if(cache_id_apic[j][i] > max) max = cache_id_apic[j][i];
} }
} }
max++; max++;
if(max > (uint32_t) topo->total_cores) return max; if(max > (uint32_t) topo->total_cores_module) return max;
return topo->total_cores; return topo->total_cores_module;
} }
bool build_topo_from_apic(uint32_t* apic_pkg, uint32_t* apic_smt, uint32_t** cache_id_apic, struct topology* topo) { bool build_topo_from_apic(uint32_t* apic_pkg, uint32_t* apic_smt, uint32_t** cache_id_apic, struct topology* topo) {
@@ -219,18 +272,18 @@ bool build_topo_from_apic(uint32_t* apic_pkg, uint32_t* apic_smt, uint32_t** cac
memset(apic_id, 0, sizeof(uint32_t) * size); memset(apic_id, 0, sizeof(uint32_t) * size);
// System topology // System topology
for(int i=0; i < topo->total_cores; i++) { for(int i=0; i < topo->total_cores_module; i++) {
sockets[apic_pkg[i]] = 1; sockets[apic_pkg[i]] = 1;
smt[apic_smt[i]] = 1; smt[apic_smt[i]] = 1;
} }
for(int i=0; i < topo->total_cores; i++) { for(int i=0; i < topo->total_cores_module; i++) {
if(sockets[i] != 0) if(sockets[i] != 0)
topo->sockets++; topo->sockets++;
if(smt[i] != 0) if(smt[i] != 0)
topo->smt_available++; topo->smt_available++;
} }
topo->logical_cores = topo->total_cores / topo->sockets; topo->logical_cores = topo->total_cores_module / topo->sockets;
topo->physical_cores = topo->logical_cores / topo->smt_available; topo->physical_cores = topo->logical_cores / topo->smt_available;
// Cache topology // Cache topology
@@ -238,7 +291,7 @@ bool build_topo_from_apic(uint32_t* apic_pkg, uint32_t* apic_smt, uint32_t** cac
num_caches = 0; num_caches = 0;
memset(apic_id, 0, sizeof(uint32_t) * size); memset(apic_id, 0, sizeof(uint32_t) * size);
for(int c=0; c < topo->total_cores; c++) { for(int c=0; c < topo->total_cores_module; c++) {
apic_id[cache_id_apic[c][i]]++; apic_id[cache_id_apic[c][i]]++;
} }
for(uint32_t c=0; c < size; c++) { for(uint32_t c=0; c < size; c++) {
@@ -297,7 +350,7 @@ void add_apic_to_array(uint32_t apic, uint32_t* apic_ids, int n) {
} }
} }
bool fill_apic_ids(uint32_t* apic_ids, int n, bool x2apic_id) { bool fill_apic_ids(uint32_t* apic_ids, int first_core, int n, bool x2apic_id) {
#ifdef __APPLE__ #ifdef __APPLE__
// macOS extremely dirty approach... // macOS extremely dirty approach...
printf("cpufetch is computing APIC IDs, please wait...\n"); printf("cpufetch is computing APIC IDs, please wait...\n");
@@ -322,12 +375,12 @@ bool fill_apic_ids(uint32_t* apic_ids, int n, bool x2apic_id) {
} }
#endif #endif
for(int i=0; i < n; i++) { for(int i=first_core; i < first_core+n; i++) {
if(!bind_to_cpu(i)) { if(!bind_to_cpu(i)) {
printErr("Failed binding the process to CPU %d", i); printErr("Failed binding the process to CPU %d", i);
return false; return false;
} }
apic_ids[i] = get_apic_id(x2apic_id); apic_ids[i-first_core] = get_apic_id(x2apic_id);
} }
#ifdef __linux__ #ifdef __linux__
@@ -344,12 +397,12 @@ bool fill_apic_ids(uint32_t* apic_ids, int n, bool x2apic_id) {
bool get_topology_from_apic(struct cpuInfo* cpu, struct topology* topo) { bool get_topology_from_apic(struct cpuInfo* cpu, struct topology* topo) {
uint32_t apic_id; uint32_t apic_id;
uint32_t* apic_ids = emalloc(sizeof(uint32_t) * topo->total_cores); uint32_t* apic_ids = emalloc(sizeof(uint32_t) * topo->total_cores_module);
uint32_t* apic_pkg = emalloc(sizeof(uint32_t) * topo->total_cores); uint32_t* apic_pkg = emalloc(sizeof(uint32_t) * topo->total_cores_module);
uint32_t* apic_core = emalloc(sizeof(uint32_t) * topo->total_cores); uint32_t* apic_core = emalloc(sizeof(uint32_t) * topo->total_cores_module);
uint32_t* apic_smt = emalloc(sizeof(uint32_t) * topo->total_cores); uint32_t* apic_smt = emalloc(sizeof(uint32_t) * topo->total_cores_module);
uint32_t** cache_smt_id_apic = emalloc(sizeof(uint32_t*) * topo->total_cores); uint32_t** cache_smt_id_apic = emalloc(sizeof(uint32_t*) * topo->total_cores_module);
uint32_t** cache_id_apic = emalloc(sizeof(uint32_t*) * topo->total_cores); uint32_t** cache_id_apic = emalloc(sizeof(uint32_t*) * topo->total_cores_module);
bool x2apic_id; bool x2apic_id;
if(cpu->maxLevels >= 0x0000000B) { if(cpu->maxLevels >= 0x0000000B) {
@@ -367,7 +420,7 @@ bool get_topology_from_apic(struct cpuInfo* cpu, struct topology* topo) {
x2apic_id = false; x2apic_id = false;
} }
for(int i=0; i < topo->total_cores; i++) { for(int i=0; i < topo->total_cores_module; i++) {
cache_smt_id_apic[i] = emalloc(sizeof(uint32_t) * (topo->cach->max_cache_level)); cache_smt_id_apic[i] = emalloc(sizeof(uint32_t) * (topo->cach->max_cache_level));
cache_id_apic[i] = emalloc(sizeof(uint32_t) * (topo->cach->max_cache_level)); cache_id_apic[i] = emalloc(sizeof(uint32_t) * (topo->cach->max_cache_level));
} }
@@ -385,10 +438,10 @@ bool get_topology_from_apic(struct cpuInfo* cpu, struct topology* topo) {
get_cache_topology_from_apic(topo); get_cache_topology_from_apic(topo);
if(!fill_apic_ids(apic_ids, topo->total_cores, x2apic_id)) if(!fill_apic_ids(apic_ids, cpu->first_core_id, topo->total_cores_module, x2apic_id))
return false; return false;
for(int i=0; i < topo->total_cores; i++) { for(int i=0; i < topo->total_cores_module; i++) {
apic_id = apic_ids[i]; apic_id = apic_ids[i];
apic_pkg[i] = (apic_id & topo->apic->pkg_mask) >> topo->apic->pkg_mask_shift; apic_pkg[i] = (apic_id & topo->apic->pkg_mask) >> topo->apic->pkg_mask_shift;
@@ -404,20 +457,19 @@ bool get_topology_from_apic(struct cpuInfo* cpu, struct topology* topo) {
/* DEBUG /* DEBUG
for(int i=0; i < topo->cach->max_cache_level; i++) { for(int i=0; i < topo->cach->max_cache_level; i++) {
printf("[CACH %1d]", i); printf("[CACH %1d]", i);
for(int j=0; j < topo->total_cores; j++) for(int j=0; j < topo->total_cores_module; j++)
printf("[%03d]", cache_id_apic[j][i]); printf("[%03d]", cache_id_apic[j][i]);
printf("\n"); printf("\n");
} }
for(int i=0; i < topo->total_cores; i++) for(int i=0; i < topo->total_cores_module; i++)
printf("[%2d] 0x%.8X\n", i, apic_pkg[i]); printf("[%2d] 0x%.8X\n", i, apic_pkg[i]);
printf("\n"); printf("\n");
for(int i=0; i < topo->total_cores; i++) for(int i=0; i < topo->total_cores_module; i++)
printf("[%2d] 0x%.8X\n", i, apic_core[i]); printf("[%2d] 0x%.8X\n", i, apic_core[i]);
printf("\n"); printf("\n");
for(int i=0; i < topo->total_cores; i++) for(int i=0; i < topo->total_cores_module; i++)
printf("[%2d] 0x%.8X\n", i, apic_smt[i]);*/ printf("[%2d] 0x%.8X\n", i, apic_smt[i]);*/
bool ret = build_topo_from_apic(apic_pkg, apic_smt, cache_id_apic, topo); bool ret = build_topo_from_apic(apic_pkg, apic_smt, cache_id_apic, topo);
// Assumption: If we cant get smt_available, we assume it is equal to smt_supported... // Assumption: If we cant get smt_available, we assume it is equal to smt_supported...
@@ -429,7 +481,7 @@ bool get_topology_from_apic(struct cpuInfo* cpu, struct topology* topo) {
free(apic_pkg); free(apic_pkg);
free(apic_core); free(apic_core);
free(apic_smt); free(apic_smt);
for(int i=0; i < topo->total_cores; i++) { for(int i=0; i < topo->total_cores_module; i++) {
free(cache_smt_id_apic[i]); free(cache_smt_id_apic[i]);
free(cache_id_apic[i]); free(cache_id_apic[i]);
} }

View File

@@ -21,4 +21,6 @@ uint32_t is_smt_enabled_amd(struct topology* topo);
bool bind_to_cpu(int cpu_id); bool bind_to_cpu(int cpu_id);
#endif #endif
int get_total_cores_module(int total_cores, int module);
#endif #endif

View File

@@ -179,7 +179,7 @@ struct uarch* get_cpu_uarch(struct cpuInfo* cpu) {
return get_uarch_from_cpuid(cpu, eax, efamily, family, emodel, model, (int)stepping); return get_uarch_from_cpuid(cpu, eax, efamily, family, emodel, model, (int)stepping);
} }
int64_t get_peak_performance(struct cpuInfo* cpu, struct topology* topo, int64_t max_freq, bool accurate_pp) { int64_t get_peak_performance(struct cpuInfo* cpu, bool accurate_pp) {
/* /*
* PP = PeakPerformance * PP = PeakPerformance
* SP = SinglePrecision * SP = SinglePrecision
@@ -192,10 +192,17 @@ int64_t get_peak_performance(struct cpuInfo* cpu, struct topology* topo, int64_t
* 16(If AVX512), 8(If AVX), 4(If SSE) * * 16(If AVX512), 8(If AVX), 4(If SSE) *
*/ */
struct cpuInfo* ptr = cpu;
int64_t total_flops = 0;
for(int i=0; i < cpu->num_cpus; ptr = ptr->next_cpu, i++) {
struct topology* topo = ptr->topo;
int64_t max_freq = get_freq(ptr->freq);
int64_t freq; int64_t freq;
#ifdef __linux__ #ifdef __linux__
if(accurate_pp) if(accurate_pp)
freq = measure_frequency(cpu); freq = measure_frequency(ptr);
else else
freq = max_freq; freq = max_freq;
#else #else
@@ -209,8 +216,8 @@ int64_t get_peak_performance(struct cpuInfo* cpu, struct topology* topo, int64_t
return -1; return -1;
} }
struct features* feat = cpu->feat; struct features* feat = ptr->feat;
int vpus = get_number_of_vpus(cpu); int vpus = get_number_of_vpus(ptr);
int64_t flops = topo->physical_cores * topo->sockets * (freq*1000000) * vpus; int64_t flops = topo->physical_cores * topo->sockets * (freq*1000000) * vpus;
if(feat->FMA3 || feat->FMA4) if(feat->FMA3 || feat->FMA4)
@@ -219,7 +226,7 @@ int64_t get_peak_performance(struct cpuInfo* cpu, struct topology* topo, int64_t
// Ice Lake has AVX512, but it has 1 VPU for AVX512, while // Ice Lake has AVX512, but it has 1 VPU for AVX512, while
// it has 2 for AVX2. If this is a Ice Lake CPU, we are computing // it has 2 for AVX2. If this is a Ice Lake CPU, we are computing
// the peak performance supposing AVX2, not AVX512 // the peak performance supposing AVX2, not AVX512
if(feat->AVX512 && vpus_are_AVX512(cpu)) if(feat->AVX512 && vpus_are_AVX512(ptr))
flops = flops*16; flops = flops*16;
else if(feat->AVX || feat->AVX2) else if(feat->AVX || feat->AVX2)
flops = flops*8; flops = flops*8;
@@ -228,10 +235,13 @@ int64_t get_peak_performance(struct cpuInfo* cpu, struct topology* topo, int64_t
// See https://sites.utexas.edu/jdm4372/2018/01/22/a-peculiar- // See https://sites.utexas.edu/jdm4372/2018/01/22/a-peculiar-
// throughput-limitation-on-intels-xeon-phi-x200-knights-landing/ // throughput-limitation-on-intels-xeon-phi-x200-knights-landing/
if(is_knights_landing(cpu)) if(is_knights_landing(ptr))
flops = flops * 6 / 7; flops = flops * 6 / 7;
return flops; total_flops += flops;
}
return total_flops;
} }
struct hypervisor* get_hp_info(bool hv_present) { struct hypervisor* get_hp_info(bool hv_present) {
@@ -274,48 +284,19 @@ struct hypervisor* get_hp_info(bool hv_present) {
return hv; return hv;
} }
struct cpuInfo* get_cpu_info() { struct features* get_features_info(struct cpuInfo* cpu) {
struct cpuInfo* cpu = emalloc(sizeof(struct cpuInfo));
struct features* feat = emalloc(sizeof(struct features));
cpu->feat = feat;
bool *ptr = &(feat->AES);
for(uint32_t i = 0; i < sizeof(struct features)/sizeof(bool); i++, ptr++) {
*ptr = false;
}
uint32_t eax = 0; uint32_t eax = 0;
uint32_t ebx = 0; uint32_t ebx = 0;
uint32_t ecx = 0; uint32_t ecx = 0;
uint32_t edx = 0; uint32_t edx = 0;
//Get max cpuid level struct features* feat = emalloc(sizeof(struct features));
cpuid(&eax, &ebx, &ecx, &edx);
cpu->maxLevels = eax;
//Fill vendor bool *ptr = &(feat->AES);
char name[13]; for(uint32_t i = 0; i < sizeof(struct features)/sizeof(bool); i++, ptr++) {
memset(name,0,13); *ptr = false;
get_name_cpuid(name, ebx, edx, ecx);
if(strcmp(CPU_VENDOR_INTEL_STRING,name) == 0)
cpu->cpu_vendor = CPU_VENDOR_INTEL;
else if (strcmp(CPU_VENDOR_AMD_STRING,name) == 0)
cpu->cpu_vendor = CPU_VENDOR_AMD;
else {
cpu->cpu_vendor = CPU_VENDOR_INVALID;
printErr("Unknown CPU vendor: %s", name);
return NULL;
} }
//Get max extended level
eax = 0x80000000;
ebx = 0;
ecx = 0;
edx = 0;
cpuid(&eax, &ebx, &ecx, &edx);
cpu->maxExtendedLevels = eax;
//Fill instructions support //Fill instructions support
if (cpu->maxLevels >= 0x00000001){ if (cpu->maxLevels >= 0x00000001){
eax = 0x00000001; eax = 0x00000001;
@@ -370,6 +351,116 @@ struct cpuInfo* get_cpu_info() {
printWarn("Can't read features information from cpuid (needed extended level is 0x%.8X, max is 0x%.8X)", 0x80000001, cpu->maxExtendedLevels); printWarn("Can't read features information from cpuid (needed extended level is 0x%.8X, max is 0x%.8X)", 0x80000001, cpu->maxExtendedLevels);
} }
return feat;
}
bool set_cpu_module(int m, int total_modules, int32_t* first_core) {
if(total_modules > 1) {
// We have a hybrid architecture.
// 1. Find the first core from module m
int32_t core_id = -1;
int32_t currrent_module_idx = -1;
int32_t* core_types = emalloc(sizeof(uint32_t) * total_modules);
for(int i=0; i < total_modules; i++) core_types[i] = -1;
int i = 0;
while(core_id == -1) {
if(!bind_to_cpu(i)) {
return false;
}
uint32_t eax = 0x0000001A;
uint32_t ebx = 0;
uint32_t ecx = 0;
uint32_t edx = 0;
cpuid(&eax, &ebx, &ecx, &edx);
int32_t core_type = eax >> 24 & 0xFF;
bool found = false;
for(int j=0; j < total_modules && !found; j++) {
if(core_types[j] == core_type) found = true;
}
if(!found) {
currrent_module_idx++;
core_types[currrent_module_idx] = core_type;
if(currrent_module_idx == m) {
core_id = i;
}
}
i++;
}
*first_core = core_id;
//printf("Module %d: Core %d\n", m, core_id);
// 2. Now bind to that core
if(!bind_to_cpu(core_id)) {
return false;
}
}
return true;
}
int32_t get_core_type() {
uint32_t eax = 0x0000001A;
uint32_t ebx = 0;
uint32_t ecx = 0;
uint32_t edx = 0;
eax = 0x0000001A;
cpuid(&eax, &ebx, &ecx, &edx);
int32_t type = eax >> 24 & 0xFF;
if(type == 0x20) return CORE_TYPE_EFFICIENCY;
else if(type == 0x40) return CORE_TYPE_PERFORMANCE;
else {
printErr("Found invalid core type: 0x%.8X\n", type);
return CORE_TYPE_UNKNOWN;
}
}
struct cpuInfo* get_cpu_info() {
struct cpuInfo* cpu = emalloc(sizeof(struct cpuInfo));
cpu->peak_performance = -1;
cpu->next_cpu = NULL;
cpu->topo = NULL;
cpu->cach = NULL;
cpu->feat = NULL;
uint32_t modules = 1;
uint32_t eax = 0;
uint32_t ebx = 0;
uint32_t ecx = 0;
uint32_t edx = 0;
//Get max cpuid level
cpuid(&eax, &ebx, &ecx, &edx);
cpu->maxLevels = eax;
//Fill vendor
char name[13];
memset(name,0,13);
get_name_cpuid(name, ebx, edx, ecx);
if(strcmp(CPU_VENDOR_INTEL_STRING,name) == 0)
cpu->cpu_vendor = CPU_VENDOR_INTEL;
else if (strcmp(CPU_VENDOR_AMD_STRING,name) == 0)
cpu->cpu_vendor = CPU_VENDOR_AMD;
else {
cpu->cpu_vendor = CPU_VENDOR_INVALID;
printErr("Unknown CPU vendor: %s", name);
return NULL;
}
//Get max extended level
eax = 0x80000000;
ebx = 0;
ecx = 0;
edx = 0;
cpuid(&eax, &ebx, &ecx, &edx);
cpu->maxExtendedLevels = eax;
if (cpu->maxExtendedLevels >= 0x80000004){ if (cpu->maxExtendedLevels >= 0x80000004){
cpu->cpu_name = get_str_cpu_name_internal(); cpu->cpu_name = get_str_cpu_name_internal();
} }
@@ -386,15 +477,67 @@ struct cpuInfo* get_cpu_info() {
cpu->topology_extensions = (ecx >> 22) & 1; cpu->topology_extensions = (ecx >> 22) & 1;
} }
cpu->arch = get_cpu_uarch(cpu); cpu->hybrid_flag = false;
cpu->freq = get_frequency_info(cpu); if(cpu->cpu_vendor == CPU_VENDOR_INTEL && cpu->maxLevels >= 0x00000007) {
cpu->cach = get_cache_info(cpu); eax = 0x00000007;
cpu->topo = get_topology_info(cpu, cpu->cach); ecx = 0x00000000;
cpu->peak_performance = get_peak_performance(cpu, cpu->topo, get_freq(cpu->freq), accurate_pp()); cpuid(&eax, &ebx, &ecx, &edx);
cpu->hybrid_flag = (edx >> 15) & 0x1;
if(cpu->cach == NULL || cpu->topo == NULL) {
return NULL;
} }
if(cpu->hybrid_flag) modules = 2;
struct cpuInfo* ptr = cpu;
for(uint32_t i=0; i < modules; i++) {
int32_t first_core;
set_cpu_module(i, modules, &first_core);
if(i > 0) {
ptr->next_cpu = emalloc(sizeof(struct cpuInfo));
ptr = ptr->next_cpu;
ptr->next_cpu = NULL;
ptr->peak_performance = -1;
ptr->topo = NULL;
ptr->cach = NULL;
ptr->feat = NULL;
// We assume that this cores have the
// same cpuid capabilities
ptr->cpu_vendor = cpu->cpu_vendor;
ptr->maxLevels = cpu->maxLevels;
ptr->maxExtendedLevels = cpu->maxExtendedLevels;
ptr->hybrid_flag = cpu->hybrid_flag;
}
if(cpu->hybrid_flag) {
// Detect core type
eax = 0x0000001A;
cpuid(&eax, &ebx, &ecx, &edx);
ptr->core_type = get_core_type();
}
ptr->first_core_id = first_core;
ptr->feat = get_features_info(ptr);
// If any field of the struct is NULL,
// return inmideately, as further functions
// require valid fields (cach, topo, etc)
ptr->arch = get_cpu_uarch(ptr);
ptr->freq = get_frequency_info(ptr);
ptr->cach = get_cache_info(ptr);
if(ptr->cach == NULL) return cpu;
if(cpu->hybrid_flag) {
ptr->topo = get_topology_info(ptr, ptr->cach, i);
}
else {
ptr->topo = get_topology_info(ptr, ptr->cach, -1);
}
if(cpu->topo == NULL) return cpu;
}
cpu->num_cpus = modules;
cpu->peak_performance = get_peak_performance(cpu, accurate_pp());
return cpu; return cpu;
} }
@@ -472,7 +615,7 @@ bool get_cache_topology_amd(struct cpuInfo* cpu, struct topology* topo) {
return true; return true;
} }
void get_topology_from_udev(struct cpuInfo* cpu, struct topology* topo) { void get_topology_from_udev(struct topology* topo) {
// TODO: To be improved in the future // TODO: To be improved in the future
topo->total_cores = get_ncores_from_cpuinfo(); topo->total_cores = get_ncores_from_cpuinfo();
topo->logical_cores = topo->total_cores; topo->logical_cores = topo->total_cores;
@@ -484,7 +627,7 @@ void get_topology_from_udev(struct cpuInfo* cpu, struct topology* topo) {
// Main reference: https://software.intel.com/content/www/us/en/develop/articles/intel-64-architecture-processor-topology-enumeration.html // Main reference: https://software.intel.com/content/www/us/en/develop/articles/intel-64-architecture-processor-topology-enumeration.html
// Very interesting resource: https://wiki.osdev.org/Detecting_CPU_Topology_(80x86) // Very interesting resource: https://wiki.osdev.org/Detecting_CPU_Topology_(80x86)
struct topology* get_topology_info(struct cpuInfo* cpu, struct cache* cach) { struct topology* get_topology_info(struct cpuInfo* cpu, struct cache* cach, int module) {
struct topology* topo = emalloc(sizeof(struct topology)); struct topology* topo = emalloc(sizeof(struct topology));
init_topology_struct(topo, cach); init_topology_struct(topo, cach);
@@ -508,6 +651,13 @@ struct topology* get_topology_info(struct cpuInfo* cpu, struct cache* cach) {
} }
#endif #endif
if(cpu->hybrid_flag) {
topo->total_cores_module = get_total_cores_module(topo->total_cores, module);
}
else {
topo->total_cores_module = topo->total_cores;
}
switch(cpu->cpu_vendor) { switch(cpu->cpu_vendor) {
case CPU_VENDOR_INTEL: case CPU_VENDOR_INTEL:
if (cpu->maxLevels >= 0x00000004) { if (cpu->maxLevels >= 0x00000004) {
@@ -515,7 +665,7 @@ struct topology* get_topology_info(struct cpuInfo* cpu, struct cache* cach) {
if(!toporet) { if(!toporet) {
#ifdef __linux__ #ifdef __linux__
printWarn("Failed to retrieve topology from APIC, using udev...\n"); printWarn("Failed to retrieve topology from APIC, using udev...\n");
get_topology_from_udev(cpu, topo); get_topology_from_udev(topo);
#else #else
printErr("Failed to retrieve topology from APIC, assumming default values...\n"); printErr("Failed to retrieve topology from APIC, assumming default values...\n");
topo->logical_cores = UNKNOWN_DATA; topo->logical_cores = UNKNOWN_DATA;
@@ -911,6 +1061,9 @@ void print_debug(struct cpuInfo* cpu) {
if(cpu->cpu_vendor == CPU_VENDOR_AMD) { if(cpu->cpu_vendor == CPU_VENDOR_AMD) {
printf("- AMD topology extensions: %d\n", cpu->topology_extensions); printf("- AMD topology extensions: %d\n", cpu->topology_extensions);
} }
if(cpu->cpu_vendor == CPU_VENDOR_INTEL) {
printf("- Hybrid Flag: %d\n", cpu->hybrid_flag);
}
printf("- CPUID dump: 0x%.8X\n", eax); printf("- CPUID dump: 0x%.8X\n", eax);
free_cpuinfo_struct(cpu); free_cpuinfo_struct(cpu);

View File

@@ -6,7 +6,7 @@
struct cpuInfo* get_cpu_info(); struct cpuInfo* get_cpu_info();
struct cache* get_cache_info(struct cpuInfo* cpu); struct cache* get_cache_info(struct cpuInfo* cpu);
struct frequency* get_frequency_info(struct cpuInfo* cpu); struct frequency* get_frequency_info(struct cpuInfo* cpu);
struct topology* get_topology_info(struct cpuInfo* cpu, struct cache* cach); struct topology* get_topology_info(struct cpuInfo* cpu, struct cache* cach, int module);
char* get_str_avx(struct cpuInfo* cpu); char* get_str_avx(struct cpuInfo* cpu);
char* get_str_sse(struct cpuInfo* cpu); char* get_str_sse(struct cpuInfo* cpu);

View File

@@ -5,7 +5,7 @@
#include "../../common/cpu.h" #include "../../common/cpu.h"
#define MEASURE_TIME_SECONDS 5 #define MEASURE_TIME_SECONDS 5
#define LOOP_ITERS 1000000000 #define LOOP_ITERS 100000000
int64_t measure_frequency(struct cpuInfo* cpu); int64_t measure_frequency(struct cpuInfo* cpu);

View File

@@ -15,14 +15,25 @@ void* compute_avx() {
struct timeval begin, now; struct timeval begin, now;
__m256 a = _mm256_set1_ps(1.5); __m256 a[8];
__m256 b = _mm256_set1_ps(1.2); __m256 b[8];
__m256 c = _mm256_set1_ps(0.0);
for(int i=0; i < 8; i++) {
a[i] = _mm256_set1_ps(1.5);
b[i] = _mm256_set1_ps(1.2);
}
gettimeofday(&begin, NULL); gettimeofday(&begin, NULL);
while(!end) { while(!end) {
for(uint64_t i=0; i < LOOP_ITERS; i++) { for(uint64_t i=0; i < LOOP_ITERS; i++) {
c = _mm256_fmadd_ps(a, b, c); a[0] = _mm256_add_ps(a[0], b[0]);
a[1] = _mm256_add_ps(a[1], b[1]);
a[2] = _mm256_add_ps(a[2], b[2]);
a[3] = _mm256_add_ps(a[3], b[3]);
a[4] = _mm256_add_ps(a[4], b[4]);
a[5] = _mm256_add_ps(a[5], b[5]);
a[6] = _mm256_add_ps(a[6], b[6]);
a[7] = _mm256_add_ps(a[7], b[7]);
} }
gettimeofday(&now, NULL); gettimeofday(&now, NULL);
@@ -35,7 +46,8 @@ void* compute_avx() {
printf("fopen: %s", strerror(errno)); printf("fopen: %s", strerror(errno));
} }
else { else {
fprintf(fp, "%f", c[0]); for(int i=0; i < 8; i++)
fprintf(fp, "%f", a[i][0]);
fclose(fp); fclose(fp);
} }

View File

@@ -10,12 +10,6 @@
#include <stdint.h> #include <stdint.h>
#include "freq.h" #include "freq.h"
/*
* For AVX512, it seems that multiple independent
* instructions are needed to force the CPU to
* use AVX512 frequency, since with only one instruction
* (as the AVX implementaion) it still uses AVX frequency
*/
void* compute_avx512() { void* compute_avx512() {
bool end = false; bool end = false;
@@ -23,7 +17,6 @@ void* compute_avx512() {
__m512 a[8]; __m512 a[8];
__m512 b[8]; __m512 b[8];
__m512 mult;
for(int i=0; i < 8; i++) { for(int i=0; i < 8; i++) {
a[i] = _mm512_set1_ps(1.5); a[i] = _mm512_set1_ps(1.5);
@@ -33,14 +26,14 @@ void* compute_avx512() {
gettimeofday(&begin, NULL); gettimeofday(&begin, NULL);
while(!end) { while(!end) {
for(uint64_t i=0; i < LOOP_ITERS; i++) { for(uint64_t i=0; i < LOOP_ITERS; i++) {
a[0] = _mm512_fmadd_ps(mult, a[0], b[0]); a[0] = _mm512_add_ps(a[0], b[0]);
a[1] = _mm512_fmadd_ps(mult, a[1], b[1]); a[1] = _mm512_add_ps(a[1], b[1]);
a[2] = _mm512_fmadd_ps(mult, a[2], b[2]); a[2] = _mm512_add_ps(a[2], b[2]);
a[3] = _mm512_fmadd_ps(mult, a[3], b[3]); a[3] = _mm512_add_ps(a[3], b[3]);
a[4] = _mm512_fmadd_ps(mult, a[4], b[4]); a[4] = _mm512_add_ps(a[4], b[4]);
a[5] = _mm512_fmadd_ps(mult, a[5], b[5]); a[5] = _mm512_add_ps(a[5], b[5]);
a[6] = _mm512_fmadd_ps(mult, a[6], b[6]); a[6] = _mm512_add_ps(a[6], b[6]);
a[7] = _mm512_fmadd_ps(mult, a[7], b[7]); a[7] = _mm512_add_ps(a[7], b[7]);
} }
gettimeofday(&now, NULL); gettimeofday(&now, NULL);

View File

@@ -79,7 +79,7 @@ enum {
UARCH_GOLDMONT_PLUS, UARCH_GOLDMONT_PLUS,
UARCH_TREMONT, UARCH_TREMONT,
UARCH_LAKEMONT, UARCH_LAKEMONT,
UARCH_COFFE_LAKE, UARCH_COFFEE_LAKE,
UARCH_ITANIUM, UARCH_ITANIUM,
UARCH_KNIGHTS_FERRY, UARCH_KNIGHTS_FERRY,
UARCH_KNIGHTS_CORNER, UARCH_KNIGHTS_CORNER,
@@ -90,6 +90,7 @@ enum {
UARCH_ITANIUM2, UARCH_ITANIUM2,
UARCH_ICE_LAKE, UARCH_ICE_LAKE,
UARCH_TIGER_LAKE, UARCH_TIGER_LAKE,
UARCH_ALDER_LAKE,
// AMD // // AMD //
UARCH_AM486, UARCH_AM486,
UARCH_AM5X86, UARCH_AM5X86,
@@ -108,7 +109,8 @@ enum {
UARCH_ZEN, UARCH_ZEN,
UARCH_ZEN_PLUS, UARCH_ZEN_PLUS,
UARCH_ZEN2, UARCH_ZEN2,
UARCH_ZEN3 UARCH_ZEN3,
UARCH_ZEN3_PLUS
}; };
struct uarch { struct uarch {
@@ -224,18 +226,19 @@ struct uarch* get_uarch_from_cpuid_intel(uint32_t ef, uint32_t f, uint32_t em, u
CHECK_UARCH(arch, 0, 6, 8, 12, NA, "Tiger Lake", UARCH_TIGER_LAKE, 10) // instlatx64 CHECK_UARCH(arch, 0, 6, 8, 12, NA, "Tiger Lake", UARCH_TIGER_LAKE, 10) // instlatx64
CHECK_UARCH(arch, 0, 6, 8, 13, NA, "Tiger Lake", UARCH_TIGER_LAKE, 10) // instlatx64 CHECK_UARCH(arch, 0, 6, 8, 13, NA, "Tiger Lake", UARCH_TIGER_LAKE, 10) // instlatx64
// CHECK_UARCH(arch, 0, 6, 8, 14, 9, ...) It is not possible to determine uarch only from CPUID dump (can be Kaby Lake or Amber Lake) // CHECK_UARCH(arch, 0, 6, 8, 14, 9, ...) It is not possible to determine uarch only from CPUID dump (can be Kaby Lake or Amber Lake)
CHECK_UARCH(arch, 0, 6, 8, 14, 10, "Kaby Lake", UARCH_KABY_LAKE, 14) // wikichip CHECK_UARCH(arch, 0, 6, 8, 14, 10, "Coffee Lake", UARCH_COFFEE_LAKE, 14) // wikichip
CHECK_UARCH(arch, 0, 6, 8, 14, 11, "Whiskey Lake", UARCH_WHISKEY_LAKE, 14) // wikichip CHECK_UARCH(arch, 0, 6, 8, 14, 11, "Whiskey Lake", UARCH_WHISKEY_LAKE, 14) // wikichip
CHECK_UARCH(arch, 0, 6, 8, 14, 12, "Comet Lake", UARCH_COMET_LAKE, 14) // wikichip CHECK_UARCH(arch, 0, 6, 8, 14, 12, "Comet Lake", UARCH_COMET_LAKE, 14) // wikichip
CHECK_UARCH(arch, 0, 6, 9, 6, NA, "Tremont", UARCH_TREMONT, 10) // LX* CHECK_UARCH(arch, 0, 6, 9, 6, NA, "Tremont", UARCH_TREMONT, 10) // LX*
CHECK_UARCH(arch, 0, 6, 9, 7, NA, "Alder Lake", UARCH_ALDER_LAKE, 10) // wikichip
CHECK_UARCH(arch, 0, 6, 9, 10, NA, "Tremont", UARCH_TREMONT, 10) // instlatx64 CHECK_UARCH(arch, 0, 6, 9, 10, NA, "Tremont", UARCH_TREMONT, 10) // instlatx64
CHECK_UARCH(arch, 0, 6, 9, 12, NA, "Tremont", UARCH_TREMONT, 10) // LX* CHECK_UARCH(arch, 0, 6, 9, 12, NA, "Tremont", UARCH_TREMONT, 10) // LX*
CHECK_UARCH(arch, 0, 6, 9, 13, NA, "Sunny Cove", UARCH_SUNNY_COVE, 10) // LX* CHECK_UARCH(arch, 0, 6, 9, 13, NA, "Sunny Cove", UARCH_SUNNY_COVE, 10) // LX*
CHECK_UARCH(arch, 0, 6, 9, 14, 9, "Kaby Lake", UARCH_KABY_LAKE, 14) CHECK_UARCH(arch, 0, 6, 9, 14, 9, "Kaby Lake", UARCH_KABY_LAKE, 14)
CHECK_UARCH(arch, 0, 6, 9, 14, 10, "Coffee Lake", UARCH_COFFE_LAKE, 14) CHECK_UARCH(arch, 0, 6, 9, 14, 10, "Coffee Lake", UARCH_COFFEE_LAKE, 14)
CHECK_UARCH(arch, 0, 6, 9, 14, 11, "Coffee Lake", UARCH_COFFE_LAKE, 14) CHECK_UARCH(arch, 0, 6, 9, 14, 11, "Coffee Lake", UARCH_COFFEE_LAKE, 14)
CHECK_UARCH(arch, 0, 6, 9, 14, 12, "Coffee Lake", UARCH_COFFE_LAKE, 14) CHECK_UARCH(arch, 0, 6, 9, 14, 12, "Coffee Lake", UARCH_COFFEE_LAKE, 14)
CHECK_UARCH(arch, 0, 6, 9, 14, 13, "Coffee Lake", UARCH_COFFE_LAKE, 14) CHECK_UARCH(arch, 0, 6, 9, 14, 13, "Coffee Lake", UARCH_COFFEE_LAKE, 14)
CHECK_UARCH(arch, 0, 6, 10, 5, NA, "Comet Lake", UARCH_COMET_LAKE, 14) // wikichip CHECK_UARCH(arch, 0, 6, 10, 5, NA, "Comet Lake", UARCH_COMET_LAKE, 14) // wikichip
CHECK_UARCH(arch, 0, 6, 10, 6, NA, "Comet Lake", UARCH_COMET_LAKE, 14) // instlatx64.atw.hu (i7-10710U) CHECK_UARCH(arch, 0, 6, 10, 6, NA, "Comet Lake", UARCH_COMET_LAKE, 14) // instlatx64.atw.hu (i7-10710U)
CHECK_UARCH(arch, 0, 6, 10, 7, NA, "Rocket Lake", UARCH_ROCKET_LAKE, 14) // instlatx64.atw.hu (i7-11700K) CHECK_UARCH(arch, 0, 6, 10, 7, NA, "Rocket Lake", UARCH_ROCKET_LAKE, 14) // instlatx64.atw.hu (i7-11700K)
@@ -356,8 +359,10 @@ struct uarch* get_uarch_from_cpuid_amd(uint32_t ef, uint32_t f, uint32_t em, uin
CHECK_UARCH(arch, 8, 15, 6, 0, NA, "Zen 2", UARCH_ZEN2, 7) // undocumented, geekbench.com example CHECK_UARCH(arch, 8, 15, 6, 0, NA, "Zen 2", UARCH_ZEN2, 7) // undocumented, geekbench.com example
CHECK_UARCH(arch, 8, 15, 6, 8, NA, "Zen 2", UARCH_ZEN2, 7) // found on instlatx64 CHECK_UARCH(arch, 8, 15, 6, 8, NA, "Zen 2", UARCH_ZEN2, 7) // found on instlatx64
CHECK_UARCH(arch, 8, 15, 7, 1, NA, "Zen 2", UARCH_ZEN2, 7) // samples from Steven Noonan and instlatx64 CHECK_UARCH(arch, 8, 15, 7, 1, NA, "Zen 2", UARCH_ZEN2, 7) // samples from Steven Noonan and instlatx64
CHECK_UARCH(arch, 8, 15, 9, 0, 2, "Zen 2", UARCH_ZEN2, 7) // Steam Deck (instlatx64)
CHECK_UARCH(arch, 10, 15, 0, 1, NA, "Zen 3", UARCH_ZEN3, 7) // instlatx64 CHECK_UARCH(arch, 10, 15, 0, 1, NA, "Zen 3", UARCH_ZEN3, 7) // instlatx64
CHECK_UARCH(arch, 10, 15, 2, 1, NA, "Zen 3", UARCH_ZEN3, 7) // instlatx64 CHECK_UARCH(arch, 10, 15, 2, 1, NA, "Zen 3", UARCH_ZEN3, 7) // instlatx64
CHECK_UARCH(arch, 10, 15, 4, 4, NA, "Zen 3+", UARCH_ZEN3_PLUS, 6) // instlatx64 (they say it is Zen3...)
CHECK_UARCH(arch, 10, 15, 5, 0, NA, "Zen 3", UARCH_ZEN3, 7) // instlatx64 CHECK_UARCH(arch, 10, 15, 5, 0, NA, "Zen 3", UARCH_ZEN3, 7) // instlatx64
UARCH_END UARCH_END
@@ -406,7 +411,7 @@ int get_number_of_vpus(struct cpuInfo* cpu) {
case UARCH_ROCKET_LAKE: case UARCH_ROCKET_LAKE:
case UARCH_AMBER_LAKE: case UARCH_AMBER_LAKE:
case UARCH_WHISKEY_LAKE: case UARCH_WHISKEY_LAKE:
case UARCH_COFFE_LAKE: case UARCH_COFFEE_LAKE:
case UARCH_PALM_COVE: case UARCH_PALM_COVE:
case UARCH_KNIGHTS_LANDING: case UARCH_KNIGHTS_LANDING:
@@ -414,10 +419,12 @@ int get_number_of_vpus(struct cpuInfo* cpu) {
case UARCH_ICE_LAKE: case UARCH_ICE_LAKE:
case UARCH_TIGER_LAKE: case UARCH_TIGER_LAKE:
case UARCH_ALDER_LAKE:
// AMD // AMD
case UARCH_ZEN2: case UARCH_ZEN2:
case UARCH_ZEN3: case UARCH_ZEN3:
case UARCH_ZEN3_PLUS:
return 2; return 2;
default: default:
return 1; return 1;
@@ -426,6 +433,7 @@ int get_number_of_vpus(struct cpuInfo* cpu) {
bool choose_new_intel_logo_uarch(struct cpuInfo* cpu) { bool choose_new_intel_logo_uarch(struct cpuInfo* cpu) {
switch(cpu->arch->uarch) { switch(cpu->arch->uarch) {
case UARCH_ALDER_LAKE:
case UARCH_ROCKET_LAKE: case UARCH_ROCKET_LAKE:
case UARCH_TIGER_LAKE: case UARCH_TIGER_LAKE:
return true; return true;