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Author SHA1 Message Date
Dr-Noob
d134f68ffe [v1.06][ARM] Add SC8280XP (on device tree) (#272) 2024-09-03 08:48:58 +01:00
17 changed files with 34 additions and 470 deletions

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@@ -70,27 +70,12 @@ $(error Aborting compilation)
OUTPUT=cpufetch
else
arch := $(shell cc -dumpmachine)
arch := $(firstword $(subst -, ,$(arch)))
ifeq ($(arch), $(filter $(arch), x86_64 amd64 i386 i486 i586 i686))
SRC_DIR=src/x86/
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 $(SRC_DIR)uarch.h
CFLAGS += -DARCH_X86 -std=c99
else ifeq ($(arch), $(filter $(arch), arm aarch64_be aarch64 arm64 armv8b armv8l armv7l armv6l))
SRC_DIR=src/arm/
SOURCE += $(COMMON_SRC) $(SRC_DIR)midr.c $(SRC_DIR)uarch.c $(SRC_COMMON)soc.c $(SRC_DIR)soc.c $(SRC_COMMON)pci.c $(SRC_DIR)udev.c sve.o
HEADERS += $(COMMON_HDR) $(SRC_DIR)midr.h $(SRC_DIR)uarch.h $(SRC_COMMON)soc.h $(SRC_DIR)soc.h $(SRC_COMMON)pci.h $(SRC_DIR)udev.c $(SRC_DIR)socs.h
CFLAGS += -DARCH_ARM -std=c99
else
# Error lines should not be tabulated because Makefile complains about it
$(warning Unsupported arch detected: $(arch). See https://github.com/Dr-Noob/cpufetch#1-support)
$(warning If your architecture is supported but the compilation fails, please open an issue in https://github.com/Dr-Noob/cpufetch/issues)
$(error Aborting compilation)
endif
# Assume x86_64
GIT_VERSION := ""
SRC_DIR=src/x86/
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
CFLAGS += -DARCH_X86 -std=c99
SANITY_FLAGS += -Wno-pedantic-ms-format
OUTPUT=cpufetch.exe
endif

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@@ -63,7 +63,7 @@ cpufetch is a command-line tool written in C that displays the CPU information i
| OS | x86_64 / x86 | ARM | RISC-V | PowerPC |
|:-----------:|:------------------:|:------------------:|:------------------:|:------------------:|
| GNU / Linux | :heavy_check_mark: | :heavy_check_mark: | :heavy_check_mark: | :heavy_check_mark: |
| Windows | :heavy_check_mark: | :heavy_check_mark: | :x: | :x: |
| Windows | :heavy_check_mark: | :x: | :x: | :x: |
| Android | :heavy_check_mark: | :heavy_check_mark: | :x: | :x: |
| macOS | :heavy_check_mark: | :heavy_check_mark: | :x: | :heavy_check_mark: |
| FreeBSD | :heavy_check_mark: | :x: | :x: | :x: |

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@@ -11,10 +11,6 @@
#include "../common/freq.h"
#elif defined __APPLE__ || __MACH__
#include "../common/sysctl.h"
#elif defined _WIN32
#define WIN32_LEAN_AND_MEAN
#define NOMINMAX
#include <windows.h>
#endif
#include "../common/global.h"
@@ -25,60 +21,6 @@
#include "uarch.h"
#include "sve.h"
#if defined _WIN32
// Windows stores processor information in registery at:
// "HKEY_LOCAL_MACHINE\HARDWARE\DESCRIPTION\System\CentralProcessor"
// Within this directory, each core will get its own folder with
// registery entries named `CP ####` that map to ARM system registers.
// Ex. the MIDR register for core 0 is the `REG_QWORD` at:
// "HKEY_LOCAL_MACHINE\HARDWARE\DESCRIPTION\System\CentralProcessor\0\CP 4000"
// The name of these `CP ####`-registers follow their register ID encoding in hexadecimal
// (op0&1):op1:crn:crm:op2.
// More registers can be found here:
// https://developer.arm.com/documentation/ddi0601/2024-06/AArch64-Registers
// Some important ones:
// CP 4000: MIDR_EL1
// CP 4020: ID_AA64PFR0_EL1
// CP 4021: ID_AA64PFR1_EL1
// CP 4028: ID_AA64DFR0_EL1
// CP 4029: ID_AA64DFR1_EL1
// CP 402C: ID_AA64AFR0_EL1
// CP 402D: ID_AA64AFR1_EL1
// CP 4030: ID_AA64ISAR0_EL1
// CP 4031: ID_AA64ISAR1_EL1
// CP 4038: ID_AA64MMFR0_EL1
// CP 4039: ID_AA64MMFR1_EL1
// CP 403A: ID_AA64MMFR2_EL1
bool read_registry_hklm_int(char* path, char* name, void* value, bool is64) {
DWORD value_len;
int reg_type;
if (is64) {
value_len = sizeof(int64_t);
reg_type = RRF_RT_REG_QWORD;
}
else {
value_len = sizeof(int32_t);
reg_type = RRF_RT_REG_DWORD;
}
if(RegGetValueA(HKEY_LOCAL_MACHINE, path, name, reg_type, NULL, value, &value_len) != ERROR_SUCCESS) {
printBug("Error reading registry entry \"%s\\%s\"", path, name);
return false;
}
return true;
}
bool get_win32_core_info_int(uint32_t core_index, char* name, void* value, bool is64) {
// path + digits
uint32_t max_path_size = 45+3+1;
char* path = ecalloc(sizeof(char) * max_path_size, sizeof(char));
snprintf(path, max_path_size, "HARDWARE\\DESCRIPTION\\System\\CentralProcessor\\%u", core_index);
return read_registry_hklm_int(path, name, value, is64);
}
#endif
bool cores_are_equal(int c1pos, int c2pos, uint32_t* midr_array, int32_t* freq_array) {
return midr_array[c1pos] == midr_array[c2pos] && freq_array[c1pos] == freq_array[c2pos];
}
@@ -266,46 +208,6 @@ struct features* get_features_info(void) {
feat->NEON = true;
feat->SVE = false;
feat->SVE2 = false;
#elif defined _WIN32
// CP 4020 maps to the ID_AA64PFR0_EL1 register on Windows
// https://developer.arm.com/documentation/ddi0601/2024-06/AArch64-Registers/ID-AA64PFR0-EL1--AArch64-Processor-Feature-Register-0
int64_t pfr0 = 0;
if(!get_win32_core_info_int(0, "CP 4020", &pfr0, true)) {
printWarn("Unable to retrieve PFR0 via registry");
}
else {
// AdvSimd[23:20]
// -1: Not available
// 0: AdvSimd support
// 1: AdvSimd support + FP16
int8_t adv_simd = ((int64_t)(pfr0 << (60 - 20)) >> 60);
feat->NEON = (adv_simd >= 0);
// SVE[35:32]
feat->SVE = (pfr0 >> 32) & 0xF ? true : false;
}
// Windoes does not expose a registry entry for the ID_AA64ZFR0_EL1 register
// this would have mapped to "CP 4024".
feat->SVE2 = false;
// CP 4030 maps to the ID_AA64ISAR0_EL1 register on Windows
// https://developer.arm.com/documentation/ddi0601/2024-06/AArch64-Registers/ID-AA64ISAR0-EL1--AArch64-Instruction-Set-Attribute-Register-0
int64_t isar0 = 0;
if(!get_win32_core_info_int(0, "CP 4030", &isar0, true)) {
printWarn("Unable to retrieve ISAR0 via registry");
}
else {
// AES[7:4]
feat->AES = (isar0 >> 4) & 0xF ? true : false;
// SHA1[11:8]
feat->SHA1 = (isar0 >> 8) & 0xF ? true : false;
// SHA2[15:12]
feat->SHA2 = (isar0 >> 12) & 0xF ? true : false;
// CRC32[19:16]
feat->CRC32 = (isar0 >> 16) & 0xF ? true : false;
}
#endif // ifdef __linux__
if (feat->SVE || feat->SVE2) {
@@ -526,68 +428,6 @@ struct cpuInfo* get_cpu_info_mach(struct cpuInfo* cpu) {
return cpu;
}
#elif defined _WIN32
struct cpuInfo* get_cpu_info_windows(struct cpuInfo* cpu) {
init_cpu_info(cpu);
SYSTEM_INFO sys_info;
GetSystemInfo(&sys_info);
int ncores = sys_info.dwNumberOfProcessors;
uint32_t* midr_array = emalloc(sizeof(uint32_t) * ncores);
int32_t* freq_array = emalloc(sizeof(uint32_t) * ncores);
uint32_t* ids_array = emalloc(sizeof(uint32_t) * ncores);
for(int i=0; i < ncores; i++) {
// Cast from 64 to 32 bit to be able to re-use the pre-existing
// functions such as fill_ids_from_midr and cores_are_equal
int64_t midr_64;
if(!get_win32_core_info_int(i, "CP 4000", &midr_64, true)) {
return NULL;
}
midr_array[i] = midr_64;
if(!get_win32_core_info_int(i, "~MHz", &freq_array[i], false)) {
return NULL;
}
}
uint32_t sockets = fill_ids_from_midr(midr_array, freq_array, ids_array, ncores);
struct cpuInfo* ptr = cpu;
int midr_idx = 0;
int tmp_midr_idx = 0;
for(uint32_t i=0; i < sockets; i++) {
if(i > 0) {
ptr->next_cpu = emalloc(sizeof(struct cpuInfo));
ptr = ptr->next_cpu;
init_cpu_info(ptr);
tmp_midr_idx = midr_idx;
while(cores_are_equal(midr_idx, tmp_midr_idx, midr_array, freq_array)) tmp_midr_idx++;
midr_idx = tmp_midr_idx;
}
ptr->midr = midr_array[midr_idx];
ptr->arch = get_uarch_from_midr(ptr->midr, ptr);
ptr->feat = get_features_info();
ptr->freq = emalloc(sizeof(struct frequency));
ptr->freq->measured = false;
ptr->freq->base = freq_array[midr_idx];
ptr->freq->max = UNKNOWN_DATA;
ptr->cach = get_cache_info(ptr);
ptr->topo = get_topology_info(ptr, ptr->cach, midr_array, freq_array, i, ncores);
}
cpu->num_cpus = sockets;
cpu->hv = emalloc(sizeof(struct hypervisor));
cpu->hv->present = false;
cpu->soc = get_soc(cpu);
cpu->peak_performance = get_peak_performance(cpu);
return cpu;
}
#endif
struct cpuInfo* get_cpu_info(void) {
@@ -598,8 +438,6 @@ struct cpuInfo* get_cpu_info(void) {
return get_cpu_info_linux(cpu);
#elif defined __APPLE__ || __MACH__
return get_cpu_info_mach(cpu);
#elif defined _WIN32
return get_cpu_info_windows(cpu);
#endif
}

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@@ -14,28 +14,6 @@
#include "../common/sysctl.h"
#endif
#if defined(_WIN32)
#define WIN32_LEAN_AND_MEAN
#define NOMINMAX
#include <windows.h>
// Gets a RRF_RT_REG_SZ-entry from the Windows registry, returning a newly allocated
// string and its length
bool read_registry_hklm_sz(char* path, char* value, char** string, LPDWORD length) {
// First call to RegGetValueA gets the length of the string and determines how much
// memory should be allocated for the new string
if(RegGetValueA(HKEY_LOCAL_MACHINE, path, value, RRF_RT_REG_SZ, NULL, NULL, length) != ERROR_SUCCESS) {
return false;
}
*string = ecalloc(*length, sizeof(char));
// Second call actually writes the string data
if(RegGetValueA(HKEY_LOCAL_MACHINE, path, value, RRF_RT_REG_SZ, NULL, *string, length) != ERROR_SUCCESS) {
return false;
}
return true;
}
#endif
#define NA -1
#define min(a,b) (((a)<(b))?(a):(b))
#define ARRAY_SIZE(arr) (sizeof(arr) / sizeof((arr)[0]))
@@ -306,21 +284,7 @@ bool match_mediatek(char* soc_name, struct system_on_chip* soc) {
soc->vendor = SOC_VENDOR_MEDIATEK;
SOC_START
// TODO
// Dimensity 6000 Series //
// Dimensity 7000 Series //
// Dimensity 8000 Series //
// END TODO
// Dimensity 9000 Series //
SOC_EQ(tmp, "MT6983Z", "Dimensity 9000", SOC_MTK_MT6983Z, soc, 4)
SOC_EQ(tmp, "MT8798Z/C","Dimensity 9000", SOC_MTK_MT8798ZC, soc, 4)
SOC_EQ(tmp, "MT6983W", "Dimensity 9000+", SOC_MTK_MT6983W, soc, 4)
SOC_EQ(tmp, "MT8798Z/T","Dimensity 9000+", SOC_MTK_MT8798ZT, soc, 4)
SOC_EQ(tmp, "MT6985W", "Dimensity 9200+", SOC_MTK_MT6985W, soc, 4)
SOC_EQ(tmp, "MT6985", "Dimensity 9200", SOC_MTK_MT6985, soc, 4)
SOC_EQ(tmp, "MT6989", "Dimensity 9300", SOC_MTK_MT6989, soc, 4)
SOC_EQ(tmp, "MT8796", "Dimensity 9300", SOC_MTK_MT8796, soc, 4)
// Dimensity 1000 //
// Dimensity //
SOC_EQ(tmp, "MT6893Z", "Dimensity 1300", SOC_MTK_MT6893Z, soc, 6)
SOC_EQ(tmp, "MT6893", "Dimensity 1200", SOC_MTK_MT6893, soc, 6)
SOC_EQ(tmp, "MT6891", "Dimensity 1100", SOC_MTK_MT6891, soc, 6)
@@ -330,21 +294,12 @@ bool match_mediatek(char* soc_name, struct system_on_chip* soc) {
SOC_EQ(tmp, "MT6885Z", "Dimensity 1000L", SOC_MTK_MT6885Z, soc, 7)
SOC_EQ(tmp, "MT6889Z", "Dimensity 1000+", SOC_MTK_MT6889Z, soc, 7)
SOC_EQ(tmp, "MT6883Z", "Dimensity 1000C", SOC_MTK_MT6883Z, soc, 7)
// Dimensity 900
SOC_EQ(tmp, "MT6877V/Z","Dimensity 900", SOC_MTK_MT6877VZ, soc, 6)
SOC_EQ(tmp, "MT6877T" ,"Dimensity 920", SOC_MTK_MT6877T, soc, 6)
SOC_EQ(tmp, "MT6855" ,"Dimensity 930", SOC_MTK_MT6855, soc, 6)
// Dimensity 800
SOC_EQ(tmp, "MT6873", "Dimensity 800", SOC_MTK_MT6873, soc, 7)
SOC_EQ(tmp, "MT6853V/T","Dimensity 800U", SOC_MTK_MT6853VT, soc, 7)
SOC_EQ(tmp, "MT6853T", "Dimensity 800U", SOC_MTK_MT6853T, soc, 7)
SOC_EQ(tmp, "MT6833P", "Dimensity 810", SOC_MTK_MT6833P, soc, 6)
SOC_EQ(tmp, "MT6833GP", "Dimensity 810", SOC_MTK_MT6833GP, soc, 6)
SOC_EQ(tmp, "MT6833V", "Dimensity 810", SOC_MTK_MT6833V, soc, 6)
SOC_EQ(tmp, "MT6875", "Dimensity 820", SOC_MTK_MT6875, soc, 7)
// Dimensity 700
SOC_EQ(tmp, "MT6833", "Dimensity 700", SOC_MTK_MT6833, soc, 7)
SOC_EQ(tmp, "MT6853V", "Dimensity 720", SOC_MTK_MT6853, soc, 7)
SOC_EQ(tmp, "MT6853", "Dimensity 720", SOC_MTK_MT6853, soc, 7)
SOC_EQ(tmp, "MT6873", "Dimensity 800", SOC_MTK_MT6873, soc, 7)
SOC_EQ(tmp, "MT6853V", "Dimensity 800U", SOC_MTK_MT6853V, soc, 7)
SOC_EQ(tmp, "MT6833", "Dimensity 810", SOC_MTK_MT6833, soc, 6)
SOC_EQ(tmp, "MT6875", "Dimensity 820", SOC_MTK_MT6875, soc, 7)
// Helio //
SOC_EQ(tmp, "MT6761D", "Helio A20", SOC_MTK_MT6761D, soc, 12)
SOC_EQ(tmp, "MT6761", "Helio A22", SOC_MTK_MT6761, soc, 12)
@@ -1016,18 +971,6 @@ struct system_on_chip* guess_soc_from_devtree(struct system_on_chip* soc) {
DT_EQ(dt, len, soc, "apple,t6030", "M3 Pro", SOC_APPLE_M3_PRO, 3)
DT_EQ(dt, len, soc, "apple,t6031", "M3 Max", SOC_APPLE_M3_MAX, 3)
DT_EQ(dt, len, soc, "apple,t6034", "M3 Max", SOC_APPLE_M3_MAX, 3)
// NVIDIA
// https://elixir.bootlin.com/linux/v6.10.6/source/arch/arm64/boot/dts/nvidia
// https://elixir.bootlin.com/linux/v6.10.6/source/arch/arm/boot/dts/nvidia
DT_EQ(dt, len, soc, "nvidia,tegra20", "Tegra 2", SOC_TEGRA_2, 40) // https://en.wikipedia.org/wiki/Tegra#Tegra_2
DT_EQ(dt, len, soc, "nvidia,tegra30", "Tegra 3", SOC_TEGRA_3, 40) // https://en.wikipedia.org/wiki/Tegra#Tegra_3
DT_EQ(dt, len, soc, "nvidia,tegra114", "Tegra 4", SOC_TEGRA_4, 28) // https://en.wikipedia.org/wiki/Tegra#Tegra_4
DT_EQ(dt, len, soc, "nvidia,tegra124", "Tegra K1", SOC_TEGRA_K1, 28) // https://en.wikipedia.org/wiki/Tegra#Tegra_K1
DT_EQ(dt, len, soc, "nvidia,tegra132", "Tegra K1", SOC_TEGRA_K1, 28) // https://en.wikipedia.org/wiki/Tegra#Tegra_K1
DT_EQ(dt, len, soc, "nvidia,tegra210", "Tegra X1", SOC_TEGRA_X1, 20) // https://en.wikipedia.org/wiki/Tegra#Tegra_X1
DT_EQ(dt, len, soc, "nvidia,tegra186", "Tegra X2", SOC_TEGRA_X2, 16) // https://en.wikipedia.org/wiki/Tegra#Tegra_X2
DT_EQ(dt, len, soc, "nvidia,tegra194", "Tegra Xavier", SOC_TEGRA_XAVIER, 12) // https://en.wikipedia.org/wiki/Tegra#Xavier
DT_EQ(dt, len, soc, "nvidia,tegra234", "Tegra Orin", SOC_TEGRA_ORIN, 8) // https://www.phoronix.com/news/NVIDIA-Orin-Tegra234-Audio, https://github.com/Dr-Noob/cpufetch/issues/275, https://en.wikipedia.org/wiki/Tegra#Orin
// Qualcomm now also in devtree...
// TODO: Integrate this with SOC_EQ
DT_EQ(dt, len, soc, "qcom,sc8280", "8cx Gen 3", SOC_SNAPD_SC8280XP, 5)
@@ -1041,29 +984,11 @@ struct system_on_chip* guess_soc_from_devtree(struct system_on_chip* soc) {
DT_EQ(dt, len, soc, "fsl,imx8dxp", "i.MX 8DualXPlus", SOC_NXP_IMX8DXP, NA)
DT_EQ(dt, len, soc, "fsl,imx8qxp", "i.MX 8QuadXPlus", SOC_NXP_IMX8QXP, NA)
DT_EQ(dt, len, soc, "fsl,imx93", "i.MX 93", SOC_NXP_IMX93, NA)
// [1] https://elixir.bootlin.com/linux/v6.10.6/source/arch/arm64/boot/dts/amlogic
// [2] https://github.com/Dr-Noob/cpufetch/issues/268
// [3] https://www.amlogic.com/#Products/393/index.html
// [4] https://wikimovel.com
// [5] https://wiki.postmarketos.org/wiki/Amlogic_S905W/S905D/S905X/S905L/S805X/S805Y/S905Z
DT_EQ(dt, len, soc, "amlogic,a311d", "A311D", SOC_AMLOGIC_A311D, 12) // [1,2,3,4]
DT_EQ(dt, len, soc, "amlogic,a311d2", "A311D2", SOC_AMLOGIC_A311D2, 12) // [1,4]
DT_EQ(dt, len, soc, "amlogic,s905w", "S905W", SOC_AMLOGIC_S905W, 28) // [1,5]
DT_EQ(dt, len, soc, "amlogic,s905d", "S905D", SOC_AMLOGIC_S905D, 28) // [1,5]
DT_EQ(dt, len, soc, "amlogic,s905x", "S905X", SOC_AMLOGIC_S905X, 28) // [1,4,5]
DT_EQ(dt, len, soc, "amlogic,s805x", "S805X", SOC_AMLOGIC_S805X, 28) // [1,5]
// Marvell
// https://elixir.bootlin.com/linux/v6.10.6/source/arch/arm64/boot/dts/marvell
DT_EQ(dt, len, soc, "marvell,armada3700", "Armada 3700", SOC_MARVELL_A3700, 28) // http://wiki.espressobin.net/tiki-index.php?page=Armada+3700 (pdf), https://github.com/Dr-Noob/cpufetch/issues/279
DT_EQ(dt, len, soc, "marvell,armada3710", "Armada 3710", SOC_MARVELL_A3710, 28) // https://gzhls.at/blob/ldb/2/7/4/2/6eacf9661c5a2d20c4d7cd3328ffba47bfd6.pdf
DT_EQ(dt, len, soc, "marvell,armada3720", "Armada 3720", SOC_MARVELL_A3720, 28) // https://gzhls.at/blob/ldb/2/7/4/2/6eacf9661c5a2d20c4d7cd3328ffba47bfd6.pdf
DT_EQ(dt, len, soc, "marvell,armada7200", "Armada 7200", SOC_MARVELL_A7200, 28) // Assuming same manufacturing process as 7400
DT_EQ(dt, len, soc, "marvell,armada7400", "Armada 7400", SOC_MARVELL_A7400, 28) // https://www.marvell.com/content/dam/marvell/en/public-collateral/embedded-processors/marvell-embedded-processors-armada-7040-product-brief-2017-12.pdf
DT_EQ(dt, len, soc, "marvell,armada8020", "Armada 8020", SOC_MARVELL_A8020, 28) // https://datasheet.datasheetarchive.com/originals/crawler/marvell.com/da7b6a997e49e9e93fa4b1f4cfbed71b.pdf
DT_EQ(dt, len, soc, "marvell,armada8040", "Armada 8040", SOC_MARVELL_A8040, 28) // https://www.verical.com/datasheet/marvell-technology-group-application-processors-and-soc-88f8040-a2-bvp4i160-6331367.pdf
DT_EQ(dt, len, soc, "marvell,cn9130", "CN9130", SOC_MARVELL_CN9130, NA) // https://www.marvell.com/content/dam/marvell/en/public-collateral/embedded-processors/marvell-infrastructure-processors-octeon-tx2-cn913x-product-brief.pdf
DT_EQ(dt, len, soc, "marvell,cn9131", "CN9131", SOC_MARVELL_CN9131, NA) // https://www.marvell.com/content/dam/marvell/en/public-collateral/embedded-processors/marvell-infrastructure-processors-octeon-tx2-cn913x-product-brief.pdf
DT_EQ(dt, len, soc, "marvell,cn9132", "CN9132", SOC_MARVELL_CN9132, NA) // https://www.marvell.com/content/dam/marvell/en/public-collateral/embedded-processors/marvell-infrastructure-processors-octeon-tx2-cn913x-product-brief.pdf
// TODO: Add more Amlogic SoCs: https://elixir.bootlin.com/linux/v6.10.6/source/arch/arm64/boot/dts/amlogic
// https://github.com/Dr-Noob/cpufetch/issues/268
// https://www.amlogic.com/#Products/393/index.html
// https://wikimovel.com/index.php/Amlogic_A311D
DT_EQ(dt, len, soc, "amlogic,a311d", "A311D", SOC_AMLOGIC_A311D, 12)
DT_END(dt, len)
}
@@ -1302,24 +1227,7 @@ struct system_on_chip* get_soc(struct cpuInfo* cpu) {
else {
return soc;
}
#endif
#if defined _WIN32
// Use the first core to determine the SoC
char* processor_name_string = NULL;
unsigned long processor_name_string_len = 0;
if(!read_registry_hklm_sz("HARDWARE\\DESCRIPTION\\System\\CentralProcessor\\0", "ProcessorNameString", &processor_name_string, &processor_name_string_len)) {
printWarn("Failed to aquire SoC name from registery");
return soc;
}
soc->name = processor_name_string;
soc->raw_name = processor_name_string;
soc->vendor = try_match_soc_vendor_name(processor_name_string);
soc->model = SOC_MODEL_UNKNOWN;
soc->process = UNKNOWN;
#else
#endif // ifdef __linux__
if(soc->model == SOC_MODEL_UNKNOWN) {
// raw_name might not be NULL, but if we were unable to find
@@ -1328,7 +1236,5 @@ struct system_on_chip* get_soc(struct cpuInfo* cpu) {
snprintf(soc->raw_name, strlen(STRING_UNKNOWN)+1, STRING_UNKNOWN);
}
#endif
return soc;
}

View File

@@ -192,22 +192,6 @@ enum {
SOC_MTK_MT9950,
SOC_MTK_MT9972,
SOC_MTK_MT9982,
SOC_MTK_MT6983Z,
SOC_MTK_MT8798ZC,
SOC_MTK_MT6983W,
SOC_MTK_MT8798ZT,
SOC_MTK_MT6985W,
SOC_MTK_MT6985,
SOC_MTK_MT6989,
SOC_MTK_MT8796,
SOC_MTK_MT6877VZ,
SOC_MTK_MT6877T,
SOC_MTK_MT6855,
SOC_MTK_MT6853VT,
SOC_MTK_MT6853T,
SOC_MTK_MT6833P,
SOC_MTK_MT6833GP,
SOC_MTK_MT6833V,
// Snapdragon //
SOC_SNAPD_QSD8650,
SOC_SNAPD_QSD8250,
@@ -396,15 +380,7 @@ enum {
SOC_GOOGLE_TENSOR_G2,
SOC_GOOGLE_TENSOR_G3,
// NVIDIA,
SOC_TEGRA_2,
SOC_TEGRA_3,
SOC_TEGRA_4,
SOC_TEGRA_K1,
SOC_TEGRA_K2,
SOC_TEGRA_X1,
SOC_TEGRA_X2,
SOC_TEGRA_XAVIER,
SOC_TEGRA_ORIN,
// ALTRA
SOC_AMPERE_ALTRA,
// NXP
@@ -418,22 +394,6 @@ enum {
SOC_NXP_IMX93,
// AMLOGIC
SOC_AMLOGIC_A311D,
SOC_AMLOGIC_A311D2,
SOC_AMLOGIC_S905W,
SOC_AMLOGIC_S905D,
SOC_AMLOGIC_S905X,
SOC_AMLOGIC_S805X,
// MARVELL
SOC_MARVELL_A3700,
SOC_MARVELL_A3710,
SOC_MARVELL_A3720,
SOC_MARVELL_A7200,
SOC_MARVELL_A7400,
SOC_MARVELL_A8020,
SOC_MARVELL_A8040,
SOC_MARVELL_CN9130,
SOC_MARVELL_CN9131,
SOC_MARVELL_CN9132,
// UNKNOWN
SOC_MODEL_UNKNOWN
};
@@ -443,17 +403,16 @@ inline static VENDOR get_soc_vendor_from_soc(SOC soc) {
else if(soc >= SOC_HISILICON_3620 && soc <= SOC_HISILICON_9000S) return SOC_VENDOR_KIRIN;
else if(soc >= SOC_KUNPENG_920 && soc <= SOC_KUNPENG_930) return SOC_VENDOR_KUNPENG;
else if(soc >= SOC_EXYNOS_3475 && soc <= SOC_EXYNOS_880) return SOC_VENDOR_EXYNOS;
else if(soc >= SOC_MTK_MT6893 && soc <= SOC_MTK_MT8796) 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_SC8280XP) return SOC_VENDOR_SNAPDRAGON;
else if(soc >= SOC_APPLE_M1 && soc <= SOC_APPLE_M3_MAX) return SOC_VENDOR_APPLE;
else if(soc >= SOC_ALLWINNER_A10 && soc <= SOC_ALLWINNER_R328) return SOC_VENDOR_ALLWINNER;
else if(soc >= SOC_ROCKCHIP_3288 && soc <= SOC_ROCKCHIP_3588) return SOC_VENDOR_ROCKCHIP;
else if(soc >= SOC_GOOGLE_TENSOR && soc <= SOC_GOOGLE_TENSOR_G3) return SOC_VENDOR_GOOGLE;
else if(soc >= SOC_TEGRA_2 && soc <= SOC_TEGRA_ORIN) return SOC_VENDOR_NVIDIA;
else if(soc >= SOC_TEGRA_X1 && soc <= SOC_TEGRA_X1) return SOC_VENDOR_NVIDIA;
else if(soc >= SOC_AMPERE_ALTRA && soc <= SOC_AMPERE_ALTRA) return SOC_VENDOR_AMPERE;
else if(soc >= SOC_NXP_IMX8QM && soc <= SOC_NXP_IMX93) return SOC_VENDOR_NXP;
else if(soc >= SOC_AMLOGIC_A311D && soc <= SOC_AMLOGIC_S805X) return SOC_VENDOR_AMLOGIC;
else if(soc >= SOC_MARVELL_A3700 && soc <= SOC_MARVELL_CN9132) return SOC_VENDOR_MARVELL;
else if(soc >= SOC_AMLOGIC_A311D && soc <= SOC_AMLOGIC_A311D) return SOC_VENDOR_AMLOGIC;
return SOC_VENDOR_UNKNOWN;
}

View File

@@ -433,18 +433,6 @@ $C1#########.### ## ## ## ## ### ###### ## ### \
$C1 ### \
$C1 ### "
#define ASCII_MARVELL \
"$C1 ........... ........... \
$C1 .### . .## . \
$C1 .##### . #### . \
$C1 ####### . ####### . \
$C1 .#########__________. #########__________. \
$C1 .###########|__________|#########|__________| \
$C1 ############ ______############ __________ \
$C1 .######### |__________|###### |__________| \
$C1 ########### ___########### __________ \
$C1.########## |__________| |__________| "
// --------------------- LONG LOGOS ------------------------- //
#define ASCII_AMD_L \
"$C1 \
@@ -623,7 +611,6 @@ asciiL logo_nvidia = { ASCII_NVIDIA, 45, 19, false, {C_FG_GREEN, C_FG_
asciiL logo_ampere = { ASCII_AMPERE, 50, 17, false, {C_FG_RED}, {C_FG_WHITE, C_FG_RED} };
asciiL logo_nxp = { ASCII_NXP, 55, 8, false, {C_FG_YELLOW, C_FG_CYAN, C_FG_GREEN}, {C_FG_CYAN, C_FG_WHITE} };
asciiL logo_amlogic = { ASCII_AMLOGIC, 58, 8, false, {C_FG_BLUE}, {C_FG_BLUE, C_FG_B_WHITE} };
asciiL logo_marvell = { ASCII_MARVELL, 56, 10, false, {C_FG_B_BLACK}, {C_FG_B_BLACK, C_FG_B_WHITE} };
// Long variants | ----------------------------------------------------------------------------------------------------------------|
asciiL logo_amd_l = { ASCII_AMD_L, 62, 19, true, {C_BG_WHITE, C_BG_GREEN}, {C_FG_WHITE, C_FG_GREEN} };

View File

@@ -34,12 +34,6 @@ int64_t get_freq(struct frequency* freq) {
return freq->max;
}
#ifdef ARCH_X86
int64_t get_freq_pp(struct frequency* freq) {
return freq->max_pp;
}
#endif
#if defined(ARCH_X86) || defined(ARCH_PPC)
char* get_str_cpu_name(struct cpuInfo* cpu, bool fcpuname) {
#ifdef ARCH_X86

View File

@@ -60,11 +60,6 @@ struct frequency {
int32_t max;
// Indicates if max frequency was measured
bool measured;
#ifdef ARCH_X86
// Max frequency when running vectorized code.
// Used only for peak performance computation.
int32_t max_pp;
#endif
};
struct hypervisor {
@@ -193,8 +188,6 @@ struct cpuInfo {
#ifdef ARCH_X86
// The index of the first core in the module
uint32_t first_core_id;
// The index of this module
uint32_t module_id;
#endif
#endif
};
@@ -207,9 +200,6 @@ uint32_t get_nsockets(struct topology* topo);
VENDOR get_cpu_vendor(struct cpuInfo* cpu);
int64_t get_freq(struct frequency* freq);
#ifdef ARCH_X86
int64_t get_freq_pp(struct frequency* freq);
#endif
char* get_str_aes(struct cpuInfo* cpu);
char* get_str_sha(struct cpuInfo* cpu);

View File

@@ -395,8 +395,6 @@ void choose_ascii_art(struct ascii* art, struct color** cs, struct terminal* ter
art->art = &logo_nxp;
else if(art->vendor == SOC_VENDOR_AMLOGIC)
art->art = &logo_amlogic;
else if(art->vendor == SOC_VENDOR_MARVELL)
art->art = &logo_marvell;
else if(art->vendor == SOC_VENDOR_NVIDIA)
art->art = choose_ascii_art_aux(&logo_nvidia_l, &logo_nvidia, term, lf);
else {
@@ -887,13 +885,7 @@ bool print_cpufetch_arm(struct cpuInfo* cpu, STYLE s, struct color** cs, struct
char* soc_name = get_soc_name(cpu->soc);
char* features = get_str_features(cpu);
setAttribute(art, ATTRIBUTE_SOC, soc_name);
// Currently no reliable way to identify the specific SoC on Windows
// https://github.com/Dr-Noob/cpufetch/pull/273
// Hide manufacturing process
#if !defined(_WIN32)
setAttribute(art, ATTRIBUTE_TECHNOLOGY, manufacturing_process);
#endif
if(cpu->num_cpus == 1) {
char* uarch = get_str_uarch(cpu);

View File

@@ -24,7 +24,6 @@ static char* soc_trademark_string[] = {
[SOC_VENDOR_AMPERE] = "Ampere ",
[SOC_VENDOR_NXP] = "NXP ",
[SOC_VENDOR_AMLOGIC] = "Amlogic ",
[SOC_VENDOR_MARVELL] = "Marvell",
// RISC-V
[SOC_VENDOR_SIFIVE] = "SiFive ",
[SOC_VENDOR_STARFIVE] = "StarFive ",
@@ -79,18 +78,6 @@ void fill_soc(struct system_on_chip* soc, char* soc_name, SOC soc_model, int32_t
}
}
#ifdef _WIN32
VENDOR try_match_soc_vendor_name(char* vendor_name)
{
for(size_t i=1; i < sizeof(soc_trademark_string)/sizeof(soc_trademark_string[0]); i++) {
if(strstr(vendor_name, soc_trademark_string[i]) != NULL) {
return i;
}
}
return SOC_VENDOR_UNKNOWN;
}
#endif
bool match_soc(struct system_on_chip* soc, char* raw_name, char* expected_name, char* soc_name, SOC soc_model, int32_t process) {
int len1 = strlen(raw_name);
int len2 = strlen(expected_name);

View File

@@ -28,7 +28,6 @@ enum {
SOC_VENDOR_AMPERE,
SOC_VENDOR_NXP,
SOC_VENDOR_AMLOGIC,
SOC_VENDOR_MARVELL,
// RISC-V
SOC_VENDOR_SIFIVE,
SOC_VENDOR_STARFIVE,
@@ -51,9 +50,6 @@ VENDOR get_soc_vendor(struct system_on_chip* soc);
bool match_soc(struct system_on_chip* soc, char* raw_name, char* expected_name, char* soc_name, SOC soc_model, int32_t process);
char* get_str_process(struct system_on_chip* soc);
void fill_soc(struct system_on_chip* soc, char* soc_name, SOC soc_model, int32_t process);
#ifdef _WIN32
VENDOR try_match_soc_vendor_name(char* vendor_name);
#endif
#define SOC_START if (false) {}
#define SOC_EQ(raw_name, expected_name, soc_name, soc_model, soc, process) \

View File

@@ -62,7 +62,6 @@ int parse_multi_letter_extension(struct extensions* ext, char* e) {
SET_ISA_EXT_MAP("zicbom", RISCV_ISA_EXT_ZICBOM)
SET_ISA_EXT_MAP("zihintpause", RISCV_ISA_EXT_ZIHINTPAUSE)
SET_ISA_EXT_MAP("svnapot", RISCV_ISA_EXT_SVNAPOT)
SET_ISA_EXT_MAP("zicbop", RISCV_ISA_EXT_ZICBOP)
SET_ISA_EXT_MAP("zicboz", RISCV_ISA_EXT_ZICBOZ)
SET_ISA_EXT_MAP("smaia", RISCV_ISA_EXT_SMAIA)
SET_ISA_EXT_MAP("ssaia", RISCV_ISA_EXT_SSAIA)

View File

@@ -23,7 +23,6 @@ enum riscv_isa_ext_id {
RISCV_ISA_EXT_ZICBOM,
RISCV_ISA_EXT_ZIHINTPAUSE,
RISCV_ISA_EXT_SVNAPOT,
RISCV_ISA_EXT_ZICBOP,
RISCV_ISA_EXT_ZICBOZ,
RISCV_ISA_EXT_SMAIA,
RISCV_ISA_EXT_SSAIA,
@@ -38,7 +37,6 @@ enum riscv_isa_ext_id {
// https://five-embeddev.com/riscv-isa-manual/latest/preface.html#preface
// https://en.wikichip.org/wiki/risc-v/standard_extensions
// (Zicbop) https://github.com/riscv/riscv-CMOs/blob/master/cmobase/Zicbop.adoc
// Included all except for G
static const struct extension extension_list[] = {
{ 'i' - 'a', "(I) Integer Instruction Set" },
@@ -66,7 +64,6 @@ static const struct extension extension_list[] = {
{ RISCV_ISA_EXT_ZIHINTPAUSE, "(Zihintpause) Pause Hint" },
{ RISCV_ISA_EXT_SVNAPOT, "(Svnapot) Naturally Aligned Power of Two Pages" },
{ RISCV_ISA_EXT_ZICBOZ, "(Zicboz) Cache Block Zero Operations" },
{ RISCV_ISA_EXT_ZICBOP, "(Zicbop) Cache Block Prefetch Operations" },
{ RISCV_ISA_EXT_SMAIA, "(Smaia) Advanced Interrupt Architecture" },
{ RISCV_ISA_EXT_SSAIA, "(Ssaia) Advanced Interrupt Architecture" },
{ RISCV_ISA_EXT_ZBA, "(Zba) Address Generation" },

View File

@@ -210,14 +210,18 @@ int64_t get_peak_performance(struct cpuInfo* cpu, bool accurate_pp) {
for(int i=0; i < cpu->num_cpus; ptr = ptr->next_cpu, i++) {
struct topology* topo = ptr->topo;
int64_t freq = get_freq(ptr->freq);
int64_t max_freq = get_freq(ptr->freq);
int64_t freq;
#ifdef __linux__
if(accurate_pp)
freq = get_freq_pp(ptr->freq);
freq = measure_frequency(ptr);
else
freq = max_freq;
#else
// Silence compiler warning
(void)(accurate_pp);
freq = max_freq;
#endif
//First, check we have consistent data
@@ -446,23 +450,6 @@ int32_t get_core_type(void) {
}
}
#ifdef __linux__
// Gets the max frequency for estimating the peak performance,
// filling in the passed cpuInfo parameter with this information.
void fill_frequency_info_pp(struct cpuInfo* cpu) {
int32_t unused;
int32_t *max_freq_pp_vec = malloc(sizeof(int32_t) * cpu->num_cpus);
struct cpuInfo* ptr = cpu;
for (uint32_t i=0; i < cpu->num_cpus; i++) {
set_cpu_module(i, cpu->num_cpus, &unused);
ptr->freq->max_pp = measure_frequency(ptr, max_freq_pp_vec);
ptr = ptr->next_cpu;
}
}
#endif
struct cpuInfo* get_cpu_info(void) {
struct cpuInfo* cpu = emalloc(sizeof(struct cpuInfo));
cpu->peak_performance = -1;
@@ -559,7 +546,6 @@ struct cpuInfo* get_cpu_info(void) {
ptr->core_type = get_core_type();
}
ptr->first_core_id = first_core;
ptr->module_id = i;
ptr->feat = get_features_info(ptr);
ptr->arch = get_cpu_uarch(ptr);
@@ -584,13 +570,6 @@ struct cpuInfo* get_cpu_info(void) {
if(ptr->topo == NULL) return cpu;
}
#ifdef __linux__
// If accurate_pp is requested, we need to get the max frequency
// after fetching the topology for all CPU modules, since the topology
// is required by fill_frequency_info_pp
if (accurate_pp()) fill_frequency_info_pp(cpu);
#endif
cpu->peak_performance = get_peak_performance(cpu, accurate_pp());
return cpu;
@@ -1026,7 +1005,6 @@ struct frequency* get_frequency_info(struct cpuInfo* cpu) {
}
#endif
freq->max_pp = UNKNOWN_DATA;
return freq;
}

View File

@@ -21,12 +21,9 @@
#define FREQ_VECTOR_SIZE 1<<16
struct freq_thread {
// Inputs
struct cpuInfo* cpu;
bool end;
bool measure;
// Output
int32_t *max_pp;
double freq;
};
double vector_average_harmonic(double* v, int len) {
@@ -51,7 +48,6 @@ void* measure_freq(void *freq_ptr) {
char* line = NULL;
size_t len = 0;
ssize_t read;
struct cpuInfo* cpu = freq->cpu;
int v = 0;
double* freq_vector = malloc(sizeof(double) * FREQ_VECTOR_SIZE);
@@ -80,43 +76,18 @@ void* measure_freq(void *freq_ptr) {
sleep_ms(500);
}
if (cpu->hybrid_flag) {
// We have an heterogeneous architecture. After measuring the
// frequency for all cores, we now need to compute the average
// independently for each CPU module.
struct cpuInfo* ptr = cpu;
double* freq_vector_ptr = freq_vector;
for (int i=0; i < cpu->num_cpus; ptr = ptr->next_cpu, i++) {
freq->max_pp[i] = vector_average_harmonic(freq_vector_ptr, ptr->topo->total_cores_module);
printWarn("AVX2 measured freq=%d (module %d)", freq->max_pp[i], i);
freq_vector_ptr = freq_vector_ptr + ptr->topo->total_cores_module;
}
}
else {
freq->max_pp[0] = vector_average_harmonic(freq_vector, v);
printWarn("AVX2 measured freq=%d\n", freq->max_pp[0]);
}
freq->freq = vector_average_harmonic(freq_vector, v);
printWarn("AVX2 measured freq=%f\n", freq->freq);
return NULL;
}
int32_t measure_frequency(struct cpuInfo* cpu, int32_t *max_freq_pp_vec) {
if (cpu->hybrid_flag && cpu->module_id > 0) {
// We have a hybrid architecture and we have already
// measured the frequency for this module in a previous
// call to this function, so now just return it.
return max_freq_pp_vec[cpu->module_id];
}
int64_t measure_frequency(struct cpuInfo* cpu) {
int ret;
int num_spaces;
struct freq_thread* freq_struct = malloc(sizeof(struct freq_thread));
freq_struct->end = false;
freq_struct->measure = false;
freq_struct->cpu = cpu;
freq_struct->max_pp = max_freq_pp_vec;
void* (*compute_function)(void*);
@@ -188,5 +159,5 @@ int32_t measure_frequency(struct cpuInfo* cpu, int32_t *max_freq_pp_vec) {
}
printf("\r%*c", num_spaces, ' ');
return max_freq_pp_vec[0];
return freq_struct->freq;
}

View File

@@ -8,6 +8,6 @@
#define MEASURE_TIME_SECONDS 5
#define LOOP_ITERS 100000000
int32_t measure_frequency(struct cpuInfo* cpu, int32_t *max_freq_pp_vec);
int64_t measure_frequency(struct cpuInfo* cpu);
#endif

View File

@@ -93,7 +93,6 @@ enum {
UARCH_CEDAR_MILL,
UARCH_ITANIUM2,
UARCH_ICE_LAKE,
UARCH_SAPPHIRE_RAPIDS,
UARCH_TIGER_LAKE,
UARCH_ALDER_LAKE,
UARCH_RAPTOR_LAKE,
@@ -120,9 +119,7 @@ enum {
UARCH_ZEN3,
UARCH_ZEN3_PLUS,
UARCH_ZEN4,
UARCH_ZEN4C,
UARCH_ZEN5,
UARCH_ZEN5C,
UARCH_ZEN4C
};
struct uarch {
@@ -256,7 +253,6 @@ struct uarch* get_uarch_from_cpuid_intel(uint32_t ef, uint32_t f, uint32_t em, u
// CHECK_UARCH(arch, 0, 6, 8, 14, 10, ...) It is not possible to determine uarch only from CPUID dump (can be Kaby Lake R or Coffee Lake U)
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, 15, 8, "Sapphire Rapids", UARCH_SAPPHIRE_RAPIDS, 7) // wikichip
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) // instlatx64 (Alder Lake-S)
CHECK_UARCH(arch, 0, 6, 9, 10, NA, "Alder Lake", UARCH_ALDER_LAKE, 10) // instlatx64 (Alder Lake-P)
@@ -414,12 +410,6 @@ struct uarch* get_uarch_from_cpuid_amd(uint32_t ef, uint32_t f, uint32_t em, uin
CHECK_UARCH(arch, 10, 15, 8, NA, NA, "Zen 4", UARCH_ZEN4, 5) // instlatx64 (AMD MI300C)
CHECK_UARCH(arch, 10, 15, 9, NA, NA, "Zen 4", UARCH_ZEN4, 5) // instlatx64 (AMD MI300A)
CHECK_UARCH(arch, 10, 15, 10, NA, NA, "Zen 4c", UARCH_ZEN4C, 5) // instlatx64
CHECK_UARCH(arch, 11, 15, 0, NA, NA, "Zen 5", UARCH_ZEN5, 4) // Turin/EPYC (instlatx64)
CHECK_UARCH(arch, 11, 15, 1, NA, NA, "Zen 5c", UARCH_ZEN5C, 3) // Zen5c EPYC (instlatx64, https://en.wikipedia.org/wiki/Zen_5#cite_note-10)
CHECK_UARCH(arch, 11, 15, 2, NA, NA, "Zen 5", UARCH_ZEN5, 4) // Strix Point (instlatx64)
CHECK_UARCH(arch, 11, 15, 4, NA, NA, "Zen 5", UARCH_ZEN5, 4) // Granite Ridge (instlatx64)
CHECK_UARCH(arch, 11, 15, 6, NA, NA, "Zen 5", UARCH_ZEN5, 4) // Krackan Point (instlatx64)
CHECK_UARCH(arch, 11, 15, 7, NA, NA, "Zen 5", UARCH_ZEN5, 4) // Strix Halo (instlatx64)
UARCH_END
return arch;
@@ -562,8 +552,6 @@ char* infer_cpu_name_from_uarch(struct uarch* arch) {
}
bool vpus_are_AVX512(struct cpuInfo* cpu) {
// Zen5 actually has 2 x AVX512 units
// https://www.anandtech.com/show/21469/amd-details-ryzen-ai-300-series-for-mobile-strix-point-with-rdna-35-igpu-xdna-2-npu
return cpu->arch->uarch != UARCH_ICE_LAKE &&
cpu->arch->uarch != UARCH_TIGER_LAKE &&
cpu->arch->uarch != UARCH_ZEN4 &&
@@ -593,7 +581,6 @@ int get_number_of_vpus(struct cpuInfo* cpu) {
case UARCH_KNIGHTS_LANDING:
case UARCH_KNIGHTS_MILL:
case UARCH_SAPPHIRE_RAPIDS:
case UARCH_ICE_LAKE:
case UARCH_TIGER_LAKE:
case UARCH_ALDER_LAKE:
@@ -605,8 +592,6 @@ int get_number_of_vpus(struct cpuInfo* cpu) {
case UARCH_ZEN3_PLUS:
case UARCH_ZEN4:
case UARCH_ZEN4C:
case UARCH_ZEN5:
case UARCH_ZEN5C:
return 2;
default:
return 1;