#!/bin/bash
Version=0.9.65
InstallLocation=/usr/local/src # change to /tmp if you want tools to be deleted after reboot
Main() {
export PATH=/usr/local/sbin:/usr/local/bin:/usr/sbin:/usr/bin:/sbin:/bin:/opt/vc/bin
PathToMe="$( cd "$(dirname "$0")" || exit 1 ; pwd -P )/${0##*/}"
unset LC_ALL LC_MESSAGES LC_NUMERIC LANGUAGE LANG 2>/dev/null # prevent localisation of decimal points and similar stuff
NO_COLOR="${NO_COLOR:-}"
Netio="${Netio:-}"
Smartpower="${Smartpower:-}"
Linpack="${Linpack:-}"
# use colours and bold when outputting to a terminal
CheckTerminal
# The following allows to use sbc-bench on real ARM devices where for
# whatever reasons a fake /usr/bin/vcgencmd is lying around -- see for
# an example here: https://github.com/ThomasKaiser/sbc-bench/pull/13
VCGENCMD=$(command -v vcgencmd)
if [ -z "${USE_VCGENCMD}" ] && [ -x "${VCGENCMD}" ]; then
# this seems to be a Raspberry Pi where we need to query
# ThreadX on the VC via vcgencmd to get real information
# Double check via device-tree compatible string:
[ -f /proc/device-tree/compatible ] && \
grep -a -q raspberrypi /proc/device-tree/compatible
if [ $? -eq 0 ]; then
USE_VCGENCMD=true
else
USE_VCGENCMD=false
fi
else
USE_VCGENCMD=false
fi
ProcCPUFile="${CPUINFOFILE:-/proc/cpuinfo}"
[ -r "${ProcCPUFile}" ] && ProcCPU="$(cat "${ProcCPUFile}")"
[ -r /etc/os-release ] && source /etc/os-release
# check in which mode we're supposed to run
while getopts 'uSchjkmtTrRsgNPG' c ; do
case ${c} in
m)
# monitoring mode
SleepInterval=${2:-5}
if [ -n "${Netio}" ] && [ -z "${NetioConsumptionFile}" ]; then
QueryNetioDevice
if [ "X${OutputCurrents[*]}" != "X" ]; then
# We are in Netio monitoring mode as such provide consumption info as well
echo -e "Power monitoring on socket ${NetioSocket} of ${NetioName} (Netio ${NetioModel}, FW v${Firmware}, XML API v${XmlVer}, ${InputVoltage}V @ ${Frequency}Hz)\n"
CreateTempDir
NetioConsumptionFile="${TempDir}/netio.current"
echo -n $(( $(awk '{printf ("%0.0f",$1/10); }' <<<"${OutputCurrent[$(( ${NetioSocket} - 1 ))]}" ) * 10 )) >"${NetioConsumptionFile}"
export NetioConsumptionFile
NetioInterval=$(LC_ALL=C awk '{printf ("%0.1f",$1/2); }' <<<"${SleepInterval}")
NetioSamples=$(( SleepInterval * 3 ))
/bin/bash "${PathToMe}" -N ${NetioDevice} ${NetioSocket} ${NetioConsumptionFile} "${NetioInterval}" "${NetioSamples}" >/dev/null 2>&1 &
NetioMonitoringPID=$!
fi
fi
MonitorMode=TRUE
MonitorBoard
[ -n "${Netio}" ] && [ -z "${NetioConsumptionFile}" ] && kill ${NetioMonitoringPID} >/dev/null 2>&1
exit 0
;;
c)
# Run Cpuminer test (NEON/SSE/AVX)
ExecuteCpuminer=yes
;;
s)
# Run Stockfish test (NEON/SSE/AVX/RAM)
NeuralNetwork=$2
ExecuteStockfish=yes
;;
S)
# check storage, only for testing, will disappear later
DMESG="$(dmesg | grep "mmc")"
SMARTDrives="$(ls /dev/sd* /dev/nvme* 2>/dev/null)"
if [ "X${SMARTDrives}" != "X" ]; then
# warn about absence of smartctl and running not as root only when needed
command -v smartctl >/dev/null 2>&1 || echo -e "${BOLD}Warning: smartmontools not installed${NC}\n" >&2
[ ${UID} = 0 ] || echo -e "${BOLD}Warning: to query all drive info this tool needs to be run as root${NC}\n" >&2
fi
CheckStorage | sed 's/000Mbps/Gbps/'
exit 0
;;
h)
# print help
DisplayUsage
exit 0
;;
u)
# replace script with latest version from Github
UpdateMe
exit 0
;;
j|r)
# Jeff Geerling or Jean-Luc Aufranc mode. Help in reviewing devices
REVIEWMODE=true
SleepInterval=${2:-5}
RunBenchmarks=TRUE
[ ${UID} = 0 ] || { echo -e "${BOLD}Warning: for useable results this tool needs to be run as root${NC}\n" >&2 ; exit 1 ; }
ProvideReviewInfo
exit 0
;;
R)
# Review mode w/o basic benchmarking and thermal throttling tests
REVIEWMODE=true
SleepInterval=${2:-5}
[ ${UID} = 0 ] || { echo -e "${BOLD}Warning: for useable results this tool needs to be run as root${NC}\n" >&2 ; exit 1 ; }
ProvideReviewInfo
exit 0
;;
k)
# Kernel info. Check kernel version against https://endoflife.date/linux
# and issue warnings if used kernel is not an official one but vendor/BSP
PrintKernelInfo
exit 0
;;
t|T)
# temperature tests sufficient for heatsink/fan and throttling settings testing
# 2nd argument (integer in degree C) is the value we wait for the board to cool
# down prior to next test
TargetTemp=${2:-50}
[ ${UID} = 0 ] || { echo -e "${BOLD}Warning: for useable results this tool needs to be run as root${NC}\n" >&2 ; exit 1 ; }
TempTest
exit 0
;;
g)
# graph performance chart instead of doing standard 7-zip benchmarks, thereby
# walking through different cpufreq OPP. An additional parameter in taskset's
# --cpu-list format can be provided, eg. '-g 0' to graph only cpu0 or '-g 4'
# to graph only cpu4 (which might be an A72 on big.LITTLE systems). Mixing
# CPUs from different clusters (e.g. '-g 0,4' on a RK3399) will result in
# garbage since big and little cores have other cpufreq OPP.
# 3 special modes exist: cores, clusters and all.
# * '-g cores' will test single-threaded through cluster's cores (0 and 4 on
# RK3399, 0 and 2 on S922X and so on)
# * '-g clusters' tests all cores of each cluster (0-3 and 4-5 on RK3399,
# 0-1 and 2-5 on S922X and so on)
# * '-g all' performs both tests from above and then runs the test on all
# cores as well. This will take ages.
PlotCpufreqOPPs=yes
CPUList=${2}
[ "X${CPUList}" = "X" ] || [ "X${CPUList}" = "Xall" ] || [ "X${CPUList}" = "Xcores" ] || [ "X${CPUList}" = "Xclusters" ] || [ "X${CPUList}" = "Xcoreclusters" ] \
|| taskset -c ${CPUList} echo "foo" >/dev/null 2>&1
if [ $? -ne 0 ]; then
echo -e "\nInvalid option \"-g ${CPUList}\". Please check taskset manual page for --cpu-list format" >&2
DisplayUsage
exit 1
fi
;;
G)
# Geekbench piggyback mode. Geekbench lacks sanity checks (measuring
# clockspeeds) and environment monitoring (too much background activity
# or throttling for example).
MODE="gb"
;;
P)
# Phoronix Test Suite piggyback mode. PTS lacks sanity checks (measuring
# clockspeeds) and environment monitoring (too much background activity
# or throttling for example). You need to install Phoronix Test Suite by
# yourself (see https://www.phoronix-test-suite.com/?k=downloads) and run
# 'phoronix-test-suite batch-setup' once to configure batch operation mode:
#
# Save test results when in batch mode (Y/n): y
# Open the web browser automatically when in batch mode (y/N): n
# Auto upload the results to OpenBenchmarking.org (Y/n): Y
# Prompt for test identifier (Y/n): n
# Prompt for test description (Y/n): n
# Prompt for saved results file-name (Y/n): n
# Run all test options (Y/n): n
#
# If you want PTS progress info use 'tail -f /tmp/sbc-bench.*/temp.log'
# in another shell. You'll need this anyway since if 'Run all test options'
# has been answered with no, then PTS of course expects you giving manual
# feedback even if in batch-benchmark mode.
#
# root@rock-5b:/tmp/sbc-bench.Pvhatc# tail -f temp.log
# SQLite 3.30.1:
# pts/sqlite-2.1.0
# Disk Test Configuration
# 1: 1
# 2: 8
# 3: 32
# 4: 64
# 5: 128
# 6: Test All Options
# ** Multiple items can be selected, delimit by a comma. **
#
# In the invoking shell you need to enter the desired config then PTS
# proceeds.
MODE="pts"
shift
PTSArguments="$*"
;;
N)
# internal Netio monitor mode. Do not use this unless you really know
# what you're doing. Requires enabled 'XML API' on your device (read-only
# w/o password: https://www.netio-products.com/en/glossary/xml-over-https)
# Needs address/name and socket number and a file where results will be
# written to. For example '-N powerbox-1.local 2 /tmp/my-consumption' if
# your Netio device is accessible as powerbox-1.local, this device is
# plugged into its 2nd socket and you want consumption to be written to
# /tmp/my-consumption where it can be picked up by tools like RPi Monitor.
# The last 2 arguments are optional: sleep time (defaults to 0.8) and
# count of samples (defaults to 30). The defaults already put significant
# load on the device (compare http://ix.io/3E91 and http://ix.io/3Ebd) so
# to monitor idle consumption better choose 4.8 and 30 and deal with a 150
# seconds average value.
MonitorNetio "$2" "$3" "$4" "$5" "$6"
exit 0
;;
*)
# invalid flags
DisplayUsage
exit 1
;;
esac
done
[ ${UID} = 0 ] || echo -e "${BOLD}Warning: when not being executed as root strange things will happen${NC}\n" >&2
# ensure other sbc-bench instances are terminated
for PID in $( (pgrep -f "${PathToMe}" ; jobs -p) | sort | uniq -u) ; do
if [ ${PID} -ne $$ ]; then
kill ${PID} 2>/dev/null
fi
done
# do a normal release check only if not in PTS or GB mode, in review mode warn if
# distro is not rather recent
if [ "X${MODE}" = "Xpts" ] || [ "X${MODE}" = "Xgb" ]; then
:
elif [ "X${REVIEWMODE}" = "Xtrue" ]; then
CheckOSRelease ForReview
else
CheckOSRelease
fi
unset SPACING
CreateTempDir
[ -f /sys/devices/system/cpu/cpufreq/policy0/scaling_governor ] && \
read OriginalCPUFreqGovernor /dev/null
[ "${OriginalCPUFreqGovernor}" = "ondemand" ] && \
io_is_busy=( $(find /sys/devices/system/cpu/cpufreq -name io_is_busy | while read ; do cat "${REPLY}"; done) )
CheckLoadAndDmesg
BasicSetup performance >/dev/null 2>&1
GovernorState="$(HandleGovernors | grep -v cpufreq-policy)"
[ "X${GovernorState}" != "X" ] && echo -e "Status of performance related governors found below /sys (w/o cpufreq):\n${GovernorState}\n"
GetTempSensor
[ "X${MODE}" = "Xpts" ] && CheckPTS
InstallPrerequisits
[ "X${MODE}" = "Xgb" ] && CheckGB
InitialMonitoring
CheckClockspeedsAndSensors
CheckTimeInState before
if [ "${PlotCpufreqOPPs}" = "yes" ]; then
PlotPerformanceGraph
else
CheckNetio
[ "X${MODE}" = "Xpts" ] || [ "X${MODE}" = "Xgb" ] || RunTinyMemBench
RunRamlat
if [ "X${MODE}" = "Xpts" ]; then
RunPTS
elif [ "X${MODE}" = "Xgb" ]; then
RunGB
else
RunOpenSSLBenchmark "128 192 256"
Run7ZipBenchmark
if [ "${ExecuteCpuminer}" = "yes" ] || [ "X${MODE}" = "Xextensive" ]; then
if [ -x "${InstallLocation}"/cpuminer-multi/cpuminer ]; then
ExecuteCpuminer=yes
RunCpuminerBenchmark
else
ExecuteCpuminer=no
echo -e "\x08\x08 Done.\n(${InstallLocation}/cpuminer-multi/cpuminer missing or not executable)...\c"
fi
fi
if [ "${ExecuteStockfish}" = "yes" ] || [ "X${MODE}" = "Xextensive" ]; then
if [ -x "${InstallLocation}/Stockfish-sf_15/src/stockfish" ]; then
ExecuteStockfish=yes
RunStockfishBenchmark
else
ExecuteStockfish=no
echo -e "\x08\x08 Done.\n(${InstallLocation}/Stockfish-sf_15/src/stockfish missing or not executable)...\c"
fi
fi
fi
fi
CheckTimeInState after
CheckClockspeedsAndSensors # test again loaded system after heating the SoC to the max
SummarizeResults
UploadResults
CheckAgeOfScript
BasicSetup ${OriginalCPUFreqGovernor} >/dev/null 2>&1
} # Main
CheckTerminal() {
# Check if we're outputting to a terminal. If yes try to use bold and colors for messages
# unless NO_COLOR is exported by the user and set to 1: https://no-color.org
if test -t 1; then
ncolors=$(tput colors)
if [ -n "${ncolors}" ] && [ "${ncolors}" -ge 8 ] && [ "X${NO_COLOR}" != "X1" ]; then
BOLD="$(tput bold)"
NC='\033[0m' # No Color
LGREEN='\033[1;32m'
LRED='\e[0;91m'
fi
fi
} # CheckTerminal
UpdateMe() {
# function to replace this script with latest version from here:
# https://raw.githubusercontent.com/ThomasKaiser/sbc-bench/master/sbc-bench.sh
# Also check/update the github projects except of stockfish since there we use
# a static and not latest version
[ -w "${PathToMe}" ] || { echo "Permission problem accessing ${PathToMe}. Wrong user? Aborting." >&2 ; exit 1 ; }
command -v curl >/dev/null 2>&1 || { echo "curl not found. Please install and try again. Aborting." >&2 ; exit 1 ; }
TempFile="$(mktemp /tmp/update-sbc-bench.XXXXXX)"
[ -w "${TempFile}" ] || { echo "Temp file creation not possible. Aborting." >&2 ; exit 1 ; }
curl -s "https://raw.githubusercontent.com/ThomasKaiser/sbc-bench/master/sbc-bench.sh" >"${TempFile}" \
|| { echo "Can not access Github. Network problem? Aborting." >&2 ; exit 1 ; }
VersionFromInternet="$(head "${TempFile}" | awk -F"=" '/^Version/ {print $2}')"
VersionCompare="$(echo -e "${VersionFromInternet}\n${Version}" | sort -V 2>/dev/null | tail -n1)"
if [ "X${VersionFromInternet}" = "X" ]; then
echo -e "Not able to download from Github. Updating not possible." >&2
exit 1
elif [ "X${Version}" = "X${VersionFromInternet}" ]; then
echo -e "Replaced ${Version} with ${Version} from Github...\c"
elif [ "X${VersionCompare}" = "X${VersionFromInternet}" ]; then
echo -e "Upgraded from ${Version} to ${VersionFromInternet}...\c"
elif [ "X${VersionCompare}" = "X${Version}" ]; then
echo -e "Downgraded from ${Version} to ${VersionFromInternet}...\c"
fi
cat "${TempFile}" >"${PathToMe}" && rm "${TempFile}"
echo -e "\x08\x08 Done."
# Only try to update git projects if git is already installed
command -v git >/dev/null 2>&1 || exit 0
for GitProject in mhz ramspeed tinymembench cpuminer-multi cpufetch p7zip ; do
if [ -x "${InstallLocation}/${GitProject}" ]; then
if [ -r "${InstallLocation}/${GitProject}/.git/config" ]; then
GitURL="$(awk -F" = " '/url = / {print $2}' "${InstallLocation}/${GitProject}/.git/config")"
echo -e "Checking/updating ${GitURL}...\c"
else
echo -e "Checking/updating ${GitProject} from Github...\c"
fi
cd "${InstallLocation}/${GitProject}" || exit 1
GitResult="$(git pull 2>/dev/null)"
case "${GitResult}" in
*"up to date"*)
echo -e "\x08\x08 ${GitResult}"
;;
*)
case ${GitProject} in
cpuminer-multi)
rm "${InstallLocation}"/cpuminer-multi/.do-not-try-to-build-again 2>/dev/null
./build.sh >/dev/null 2>&1
case $? in
0)
echo -e "\x08\x08 Done."
;;
*)
echo -e "\x08\x08 Failed."
;;
esac
;;
*)
make clean >/dev/null 2>&1
make >/dev/null 2>&1
echo -e "\x08\x08 Done."
;;
esac
esac
fi
done
} # UpdateMe
CheckAgeOfScript() {
# checks modification of this file on disk, compares to 'time now' and if difference
# is a month or more then suggests running 'sbc-bench -u' for an update check
FileTime=$(stat -c %Y -- "${PathToMe}" 2>/dev/null)
TimeNow=$(date "+%s")
FileAge=$(( $(( ${TimeNow} - ${FileTime} )) / 86400 ))
if [ ${FileAge:-0} -ge 30 ]; then
[ "X${SUDO_USER}" != "X" ] && Sudoprefix="sudo "
echo -e "\nJust for your information: this script's version on disk is ${FileAge} days old."
echo -e "Maybe checking for an update: ${BOLD}${Sudoprefix}${PathToMe} -u${NC}\n"
fi
} # CheckAgeOfScript
snore() {
# https://blog.dhampir.no/content/sleeping-without-a-subprocess-in-bash-and-how-to-sleep-forever
local IFS
[[ -n "${_snore_fd:-}" ]] || { exec {_snore_fd}<> <(:); } 2>/dev/null ||
{
# workaround for MacOS and similar systems
local fifo
fifo=$(mktemp -u)
mkfifo -m 700 "$fifo"
exec {_snore_fd}<>"$fifo"
rm "$fifo"
}
read ${1:+-t "$1"} -u $_snore_fd || :
} # snore
GetARMCore() {
# List originally obtained from util-linux project but later appended by looking at
# https://github.com/gcc-mirror/gcc/blob/master/gcc/config/aarch64/aarch64-cores.def
# and https://github.com/llvm/llvm-project/blob/release/15.x/llvm/lib/Support/Host.cpp
# and https://github.com/torvalds/linux/blob/master/arch/arm64/include/asm/cputype.h
# and https://github.com/Dr-Noob/cpufetch/blob/master/src/arm/uarch.c
# and https://github.com/pytorch/cpuinfo/blob/main/src/arm/linux/midr.c
# and https://github.com/hrw/arm-socs-table/blob/main/data/cpu_cores.yml
grep "${1}/${2}:" <<<"41:Arm
41/810:ARM810
41/920:ARM920
41/922:ARM922
41/926:ARM926
41/940:ARM940
41/946:ARM946
41/966:ARM966
41/a20:ARM1020
41/a22:ARM1022
41/a26:ARM1026
41/b02:ARM11 MPCore
41/b36:ARM1136
41/b56:ARM1156
41/b76:ARM1176
41/c05:Cortex-A5
41/c07:Cortex-A7
41/c08:Cortex-A8
41/c09:Cortex-A9
41/c0c:Cortex-A12
41/c0d:Cortex-A17
41/c0e:Cortex-A17
41/c0f:Cortex-A15
41/c14:Cortex-R4
41/c15:Cortex-R5
41/c17:Cortex-R7
41/c18:Cortex-R8
41/c20:Cortex-M0
41/c21:Cortex-M1
41/c23:Cortex-M3
41/c24:Cortex-M4
41/c27:Cortex-M7
41/c60:Cortex-M0+
41/d01:Cortex-A32
41/d02:Cortex-A34
41/d03:Cortex-A53
41/d04:Cortex-A35
41/d05:Cortex-A55
41/d06:Cortex-A65
41/d07:Cortex-A57
41/d08:Cortex-A72
41/d09:Cortex-A73
41/d0a:Cortex-A75
41/d0b:Cortex-A76
41/d0c:Neoverse-N1
41/d0d:Cortex-A77
41/d0e:Cortex-A76AE
41/d13:Cortex-R52
41/d15:Cortex-R82
41/d16:Cortex-R52+
41/d20:Cortex-M23
41/d21:Cortex-M33
41/d22:Cortex-M55
41/d23:Cortex-M85
41/d40:Neoverse-V1
41/d41:Cortex-A78
41/d42:Cortex-A78AE
41/d43:Cortex-A65AE
41/d44:Cortex-X1
41/d46:Cortex-A510
41/d47:Cortex-A710
41/d48:Cortex-X2
41/d49:Neoverse-N2
41/d4a:Neoverse-E1
41/d4b:Cortex-A78C
41/d4c:Cortex-X1C
41/d4d:Cortex-A715
41/d4e:Cortex-X3
41/d4f:Neoverse-V2
41/d80:Cortex-A520
41/d81:Cortex-A720
41/d82:Cortex-X4
41/d84:Neoverse-V3
41/d8e:Neoverse-N3
42:Broadcom
42/00f:Broadcom Brahma B15
42/100:Broadcom Brahma B53
42/516:Broadcom ThunderX2
43:Cavium
43/0a0:Cavium ThunderX
43/0a1:Cavium ThunderX 88XX
43/0a2:Cavium ThunderX 81XX
43/0a3:Cavium ThunderX 83XX
43/0af:Cavium ThunderX2 99xx
43/0b0:Cavium OcteonTX2
43/0b1:Cavium OcteonTX2 98XX
43/0b2:Cavium OcteonTX2 96XX
43/0b3:Cavium OcteonTX2 95XX
43/0b4:Cavium OcteonTX2 95XXN
43/0b5:Cavium OcteonTX2 95XXMM
43/0b6:Cavium OcteonTX2 95XXO
43/0b8:Cavium ThunderX3 T110
44:DEC
44/a10:DEC SA110
44/a11:DEC SA1100
46:Fujitsu
46/001:A64FX
48:HiSilicon
48/d01:TaiShan v110
48/d02:TaiShan v120
48/d40:HiSilicon-A76
48/d41:HiSilicon-A77
48/d42:HiSilicon-A710
49:Infineon
4d:Motorola/Freescale
4e:NVidia
4e/000:NVidia Denver
4e/003:NVidia Denver 2
4e/004:NVidia Carmel
50:APM
50/000:APM X-Gene
51:Qualcomm
51/001:Qualcomm Oryon 1
51/002:Qualcomm Oryon 2
51/00f:Qualcomm Scorpion
51/02d:Qualcomm Scorpion
51/04d:Qualcomm Krait
51/06f:Qualcomm Krait
51/201:Qualcomm Kryo
51/205:Qualcomm Kryo
51/211:Qualcomm Kryo
51/800:Qualcomm Falkor V1/Kryo
51/801:Qualcomm Kryo V2
51/802:Qualcomm Kryo 3XX Gold
51/803:Qualcomm Kryo 3XX Silver
51/804:Qualcomm Kryo 4XX Gold
51/805:Qualcomm Kryo 4XX Silver
51/c00:Qualcomm Falkor
51/c01:Qualcomm Saphira
53:Samsung
53/001:Samsung Exynos-m1
53/002:Samsung Exynos-m3
53/003:Samsung Exynos-m4
53/004:Samsung Exynos-m5
56:Marvell
56/131:Marvell Feroceon 88FR131
56/581:Marvell PJ4/PJ4b
56/584:Marvell PJ4B-MP
61:Apple
61/000:Apple Swift
61/001:Apple Cyclone
61/002:Apple Typhoon
61/003:Apple Typhoon/Capri
61/004:Apple Twister
61/005:Apple Twister/Elba/Malta
61/006:Apple Hurricane
61/007:Apple Hurricane/Myst
61/008:Apple Monsoon
61/009:Apple Mistral
61/00b:Apple Vortex
61/00c:Apple Tempest
61/00f:Apple Tempest-M9
61/010:Apple Vortex-Aruba
61/011:Apple Tempest-Aruba
61/012:Apple Lightning
61/013:Apple Thunder
61/020:Apple Icestorm A14
61/021:Apple Firestorm A14
61/022:Apple Icestorm M1
61/023:Apple Firestorm M1
61/024:Apple Icestorm M1Pro
61/025:Apple Firestorm M1Pro
61/026:Apple Thunder-M10
61/028:Apple Icestorm M1Max
61/029:Apple Firestorm M1Max
61/030:Apple Blizzard A15
61/031:Apple Avalanche A15
61/032:Apple Blizzard M2
61/033:Apple Avalanche M2
61/034:Apple Blizzard M2Pro
61/035:Apple Avalanche M2Pro
61/036:Apple Sawtooth A16
61/037:Apple Everest A16
61/038:Apple Blizzard M2Max
61/039:Apple Avalanche M2Max
61/046:Apple Sawtooth M11
61/048:Apple Sawtooth M3Max
61/049:Apple Everest M3Max
61/000:Virtualized Apple Silicon
00/000:Virtualized Apple Silicon
66:Faraday
66/526:Faraday FA526
66/626:Faraday FA626
68:Huaxintong Semiconductor (HXT)
68/000:HXT Phecda
69:Intel
69/200:Intel i80200
69/210:Intel PXA250A
69/212:Intel PXA210A
69/242:Intel i80321-400
69/243:Intel i80321-600
69/290:Intel PXA250B/PXA26x
69/292:Intel PXA210B
69/2c2:Intel i80321-400-B0
69/2c3:Intel i80321-600-B0
69/2d0:Intel PXA250C/PXA255/PXA26x
69/2d2:Intel PXA210C
69/411:Intel PXA27x
69/41c:Intel IPX425-533
69/41d:Intel IPX425-400
69/41f:Intel IPX425-266
69/682:Intel PXA32x
69/683:Intel PXA930/PXA935
69/688:Intel PXA30x
69/689:Intel PXA31x
69/b11:Intel SA1110
69/c12:Intel IPX1200
6d:Microsoft
6d/d49:Azure Cobalt 100
70:Phytium
70/303:Phytium FTC310
70/660:Phytium FTC660
70/661:Phytium FTC661
70/662:Phytium FTC662
70/663:Phytium FTC663
70/664:Phytium FTC664
70/862:Phytium FTC862
c0:Ampere
c0/ac3:Ampere Ampere-1
c0/ac4:Ampere Ampere-1a" | cut -f2 -d:
} # GetARMCore
GetCoreType() {
# function that returns name of CPU cores on several platforms
# $1 is the CPU in question, 1st CPU is always cpu0
case ${CPUArchitecture} in
arm*|aarch*)
if [ -n "${ARMTypes}" ]; then
GetARMCore "${ARMTypes[$(( $1 * 2 ))]}" "${ARMTypes[$(( $(( $1 * 2 )) + 1 ))]}" | tail -n1
fi
;;
riscv*)
# TODO: newer kernels now expose more information so we could use this:
# (mvendorid corresponds to manufacturer's JEDEC ID)
# https://gist.github.com/ThomasKaiser/14002f473d354360bf6d87c652c209aa
# relying on uarch doesn't work with older RISC-V kernels since missing
grep -q '^uarch' <<< "${ProcCPU}"
case $? in
0)
awk -F": " '/^uarch/ {print $2}' <<< "${ProcCPU}" | sed -n $(( $1 + 1 ))p
;;
*)
awk -F": " '/^isa/ {print $2}' <<< "${ProcCPU}" | sed -n $(( $1 + 1 ))p
;;
esac
;;
loongarch*)
ModelName="$(awk -F": " '/^model name/ {print $2}' <<< "${ProcCPU}" | sed -n $(( $1 + 1 ))p)"
case ${ModelName} in
*3?5000*)
echo "LA464"
;;
*3?6000*)
echo "LA664"
;;
"")
# fallback to cpu model if existing
grep -q 'cpu model' <<< "${ProcCPU}" && awk -F": " '/^cpu model/ {print $2}' <<< "${ProcCPU}" | sed -n $(( $1 + 1 ))p
;;
*\(*)
# we use just the part in brackets: Loongson-3A R4 (Loongson-3A4000) @ 1500MHz
awk -F"[()]" '{print $2}' <<<"${ModelName}"
;;
*)
echo "${ModelName}"
;;
esac
;;
mips*)
awk -F": " '/^cpu model/ {print $2}' <<< "${ProcCPU}" | sed -n $(( $1 + 1 ))p
;;
x86_64)
# on hybrid x86 designs print core type
if [ ${#ClusterConfig[@]} -gt 1 ]; then
if [ $1 -lt ${ClusterConfig[1]} ]; then
echo "${PCores}"
else
echo "${ECores}"
fi
fi
;;
esac
} # GetCoreType
GetARMStepping() {
# Parse '^CPU variant|^CPU revision' fields from /proc/cpuinfo and transform them
# into 'Stepping' like lscpu does (the latter in older versions only showing info for
# cpu0 so partially useless on systems with different CPU clusters)
if [ -n "${ARMStepping}" ]; then
echo "r$(awk -Wposix '{printf("%d", $1)}' <<<${ARMStepping[$(( $1 * 2 ))]})p${ARMStepping[$(( $(( $1 * 2 )) + 1 ))]}"
fi
} # GetARMStepping
GetCPUInfo() {
# function that returns ARM/RISC-V core type in brackets if possible otherwise empty string
CoreType="$(GetCoreType $1)"
[ -n "${CoreType}" ] && echo " (${CoreType})"
} # GetCPUInfo
GetLastClusterCore() {
NextCore=${ClusterConfig[$1]}
[ "${NextCore}" = "" ] && NextCore=$(awk -F" " '/^CPU...:/ {print $2}' <<<"${LSCPU}")
echo -n $(( ${NextCore} - 1 ))
} # GetLastClusterCore
GetLastClusterCoreByType() {
NextCore=${ClusterConfigByCoreType[$1]}
[ "${NextCore}" = "" ] && NextCore=$(awk -F" " '/^CPU...:/ {print $2}' <<<"${LSCPU}")
echo -n $(( ${NextCore} - 1 ))
} # GetLastClusterCoreByType
BashBench(){
# quick integer performance assessment using a simple bash loop.
# Depends not only on CPU performance but also on bash version.
#
# 5.0.17 / E5-2665 @ 2.40GHz: 147485025
# 4.4.20 / Xeon Silver 4110 @ 3.00GHz: 64434988
# 5.0.3 / Xeon Silver 4110 @ 3.00GHz: 38958875
# 5.0.17 / N5100 @ 2.8GHz: 56864747
# 4.4.20 / Allwinner H3: 566944214
# 5.0.3 / BCM2711: 152325522
# 5.0.17 / Apple Firestorm: 28319838
# 5.2.15 / BCM2712 @ 3.0 GHz: 41210070
local i
StartTime=$(date +"%s%N")
i=0
while [ $i -lt 10000 ]
do
((i++))
done
FinishedTime=$(date +"%s%N")
RawTime=$(( ${FinishedTime} - ${StartTime} ))
case ${BASH_VERSION} in
5.*)
# multiply by 1.2 since this version seems faster
awk '{printf ("%0.0f",$1*1.2); }' <<<${RawTime}
;;
*)
echo -n ${RawTime}
;;
esac
} # BashBench
HandleGovernors() {
# check and report governors that might affect performance behaviour. Stuff like
# memory/GPU/NPU governors. On RK3588 it looks like this for example:
#
# Status of performance related governors found below /sys:
# cpufreq-policy0: ondemand / 408 MHz (conservative ondemand userspace powersave performance schedutil / 408 600 816 1008 1200 1416 1608 1800)
# cpufreq-policy4: ondemand / 408 MHz (conservative ondemand userspace powersave performance schedutil / 408 600 816 1008 1200 1416 1608 1800 2016 2208 2256 2304 2352 2400)
# cpufreq-policy6: ondemand / 408 MHz (conservative ondemand userspace powersave performance schedutil / 408 600 816 1008 1200 1416 1608 1800 2016 2208 2256 2304 2352 2400)
# dmc: dmc_ondemand / 528 MHz (rknpu_ondemand dmc_ondemand userspace powersave performance simple_ondemand / 528 1068 1560 2112)
# fb000000.gpu: simple_ondemand / 300 MHz (rknpu_ondemand dmc_ondemand userspace powersave performance simple_ondemand / 300 400 500 600 700 800 900 1000)
# fdab0000.npu: rknpu_ondemand / 1000 MHz (rknpu_ondemand dmc_ondemand userspace powersave performance simple_ondemand / 300 400 500 600 700 800 900 1000)
# use colours and bold when outputting to a terminal
[ -z "${BOLD}" ] && CheckTerminal
Governors="$(find /sys -name "*governor" 2>/dev/null | grep -E -v '/sys/module|cpuidle|watchdog')"
if [ "X${Governors}" = "X" ] || [ "${CPUArchitecture}" = "x86_64" ]; then
# skip if no governors found or on x86 where lots of cpufreq governors are
# listed to no avail since the actual work is done layers below.
return
elif [ "X$1" != "X" ]; then
# try to set all governors to $1
echo "${Governors}" | while read ; do
echo $1 >"${REPLY}" 2>/dev/null
done
# If in adjust mode we also tune ASPM since this can massively affect performance
# of components behind PCIe buses (NVMe SSDs, PCIe attached HBAs, NICs and so on)
if [ -w /sys/module/pcie_aspm/parameters/policy ] && [ -d /sys/bus/pci_express ]; then
read OriginalASPMSetting /sys/module/pcie_aspm/parameters/policy 2>/dev/null
fi
return
fi
# process governors:
echo "${Governors}" | while read ; do
read Governor <"${REPLY}"
if [ "X${Governor}" != "X" ]; then
SysFSNode="$(sed 's/cpufreq\//cpufreq-/' <<<"${REPLY%/*}")"
AvailableGovernorsSysFSNode="$(ls -d "${REPLY%/*}"/*available_governors 2>/dev/null)"
AvailableFrequenciesSysFSNode="$(ls -d "${REPLY%/*}"/*available_frequencies 2>/dev/null)"
if [ -r "${REPLY%/*}/cpuinfo_cur_freq" ]; then
Curfreq=" / $(awk '{printf ("%0.0f",$1/1000); }' <"${REPLY%/*}/cpuinfo_cur_freq") MHz"
Divider=1000
elif [ -r "${REPLY%/*}/scaling_cur_freq" ]; then
Curfreq=" / $(awk '{printf ("%0.0f",$1/1000); }' <"${REPLY%/*}/scaling_cur_freq") MHz"
Divider=1000
elif [ -r "${REPLY%/*}/cur_freq" ]; then
read Rawfreq <"${REPLY%/*}/cur_freq"
if [ ${Rawfreq} -gt 10000000 ]; then
Curfreq=" / $(awk '{printf ("%0.0f",$1/1000000); }' <<<"${Rawfreq}") MHz"
Divider=1000000
else
Curfreq=" / $(awk '{printf ("%0.0f",$1/1000); }' <<<"${Rawfreq}") MHz"
Divider=1000
fi
else
Curfreq=""
fi
if [ -r "${AvailableGovernorsSysFSNode}" ]; then
# with some kernels powersave and performance are only listed as available
# after the governor itself has been set to these. So try this just not
# with cpufreq since there it always works as designed
case "${SysFSNode##*/}" in
*cpufreq*)
:
;;
*)
echo performance >"${REPLY}" 2>/dev/null
echo powersave >"${REPLY}" 2>/dev/null
echo "${Governor}" >"${REPLY}" 2>/dev/null
;;
esac
read AvailableGovernors <"${AvailableGovernorsSysFSNode}"
if [ "X${AvailableGovernors}" != "X${Governor}" ]; then
[ -r "${AvailableFrequenciesSysFSNode}" ] \
&& AvailableFrequencies=" / $(tr ' ' '\n' <"${AvailableFrequenciesSysFSNode}" | sort -n | sed '/^$/d' | awk "{printf (\"%0.0f\\n\",\$1/${Divider}); }" | tr '\n' ' ' | sed -e 's/\ $//' -e 's/^ //')" \
|| AvailableFrequencies=""
printf "${SysFSNode##*/}: "
grep -q "performance" <<<"${AvailableGovernors}"
GovStatus=$?
if [ ${GovStatus} -eq 0 ] && [ "X${Governor}" = "Xperformance" ]; then
echo -e "${LGREEN}performance${NC}${Curfreq} (${AvailableGovernors}${AvailableFrequencies})"
elif [ ${GovStatus} -eq 0 ] && [ "X${Governor}" != "Xperformance" ]; then
echo -e "${LRED}${Governor}${NC}${Curfreq} ($(sed "s/performance/\x1b\x5b1mperformance\x1b\x5b0m/" <<<"${AvailableGovernors}")${AvailableFrequencies})"
else
echo "${Governor}${Curfreq} (${AvailableGovernors}${AvailableFrequencies})"
fi
fi
else
echo "${SysFSNode##*/}: ${Governor}${Curfreq}"
fi
fi
done | sort -n
} # HandleGovernors
HandlePolicies() {
# report available sysfs policies that might affect performance behaviour. Stuff like
# pcie_aspm, gpu/core_availability_policy, gpu/power_policy or iopolicy. With RK3588
# this might look like this for example:
#
# Status of performance related policies found below /sys:
# /sys/devices/platform/fb000000.gpu/power_policy: [coarse_demand] always_on
# /sys/module/pcie_aspm/parameters/policy: default performance [powersave] powersupersave
# use colours and bold when outputting to a terminal
[ -z "${BOLD}" ] && CheckTerminal
# If script is sourced we need to read in relevant dmesg contents
[ -z "${DMESG}" ] && DMESG="$(dmesg | grep pcie)"
# process policies
SysFSPolicies="$(find /sys -name "*policy" 2>/dev/null | grep -E -v 'hotplug|cpufreq|thermal_zone|apparmor|hostap|/sys/kernel|/sys/devices/pci|mobile_lpm_|xmit_hash_|fr_policy|selinux')"
if [ "X${SysFSPolicies}" = "X" ]; then
# skip if no policies found
return
fi
echo "${SysFSPolicies}" | while read ; do
read Policy <"${REPLY}"
if [ "X${Policy}" != "X" ]; then
case "${REPLY}" in
*pcie_aspm*)
# PCIe's ASPM gets special treatment since values are standardized
# so we can use coloured output. We also need to check for 'pcie'
# occurences in kernel ring buffer since reporting ASPM settings on
# devices lacking PCIe capabilities is pointless
grep -q pcie <<<"${DMESG}"
PCIeInDmesg=$?
if [ -d /sys/bus/pci_express ] && [ ${PCIeInDmesg} -eq 0 ]; then
case ${Policy} in
*"[performance]"*)
echo -e "${REPLY}: ${LGREEN}${Policy}${NC}"
;;
*"[powersave]"*|*"[powersupersave]"*)
echo -e "${REPLY}: ${LRED}${Policy}${NC}"
;;
*)
echo -e "${REPLY}: ${Policy}"
;;
esac
fi
;;
*)
# report policy if there is more than one value possible, otherwise skip
grep -q ' ' <<<"${Policy}" && echo -e "${REPLY}: ${Policy}"
;;
esac
fi
done | sort -n
} # HandlePolicies
PlotPerformanceGraph() {
# function that walks through all cpufreq OPP and plots a performance graph using
# 7-ZIP MIPS. Needs gnuplot and htmldoc (Debian/Ubuntu: gnuplot-nox htmldoc packages)
local i
if [ ! -f /sys/devices/system/cpu/cpufreq/policy0/scaling_governor ]; then
# no cpufreq support -> no way to test through different clockspeeds. Stop
echo -e " Done.\nNo cpufreq support available. Not able to draw performance graph(s)."
exit 1
fi
# repeat every measurement at least this many times and do not measure any cpufreq below
MinRepetitions=3 # how many times should each measurement be repeated
Repetitions=$(( 1000000000 / ${QuickAndDirtyPerformance} ))
[ ${Repetitions} -lt ${MinRepetitions} ] && Repetitions=${MinRepetitions}
SkipBelow=${MinKHz:-600000} # minimum cpufreq in KHz to measure
if [ "X${OutputCurrents[*]}" != "X" ]; then
# We are in Netio monitoring mode, so measure idle consumption first,
# set all governors and PCIe ASPM to lowest clockspeed / powersave
HandleGovernors powersave
NetioConsumptionFile="${TempDir}/netio.current"
echo -n $(( $(awk '{printf ("%0.0f",$1/10); }' <<<"${OutputCurrent[$(( ${NetioSocket} - 1 ))]}" ) * 10 )) >"${NetioConsumptionFile}"
export NetioConsumptionFile
/bin/bash "${PathToMe}" -N "${NetioDevice}" "${NetioSocket}" "${NetioConsumptionFile}" "4.8" "30" >/dev/null 2>&1 &
NetioMonitoringPID=$!
echo -e "\x08\x08 Done.\nTrying to determine idle consumption...\c"
echo -e "System health while idling for 4 minutes:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m 30 >>"${MonitorLog}" &
MonitoringPID=$!
snore 240
read IdleConsumption <"${NetioConsumptionFile}"
kill ${NetioMonitoringPID} ${MonitoringPID}
IdleTemp=$(ReadSoCTemp)
echo -e "\n##########################################################################\n\nIdle temperature: ${IdleTemp}°C, idle consumption: $(( $(awk '{printf ("%0.0f",$1/10); }' <<<"${IdleConsumption}" ) * 10 )) mW" >>"${ResultLog}"
fi
CheckNetio
# check if cpulist parameter has been provided as well:
if [ "X${CPUList}" = "X" ]; then
# -g has been used without further restrictions, we run performance test on all cores
CheckPerformance "all CPU cores" "$(tr -d '[:space:]' <<<"${ClusterConfig[@]}")"
PlotGraph "all CPU cores" "$(tr -d '[:space:]' <<<"${ClusterConfig[@]}")"
RenderPDF
else
# -g with additional options has been called
case ${CPUList} in
cores)
# check each core of every cluster, on RK3399 for example 0 and 4
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
FirstCore=${ClusterConfig[$i]}
CheckPerformance "CPU ${FirstCore}" "${FirstCore}" "${FirstCore}"
CPUInfo="$(GetCPUInfo ${FirstCore})"
PlotGraph "CPU ${FirstCore}${CPUInfo}" "${FirstCore}"
done
RenderPDF
;;
clusters)
# check all cores of every cluster, on RK3399 for example 0-3 and 4-5
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
FirstCore=${ClusterConfig[$i]}
LastCore=$(GetLastClusterCore $(( $i + 1 )))
CheckPerformance "CPU ${FirstCore}-${LastCore}" "${FirstCore}" "${FirstCore}-${LastCore}"
CPUInfo="$(GetCPUInfo ${FirstCore})"
PlotGraph "CPU ${FirstCore}-${LastCore}${CPUInfo}" "${FirstCore}"
done
RenderPDF
;;
coreclusters)
# check all identical cores of every cluster, on RK3588 for example 0-3 and 4-7
# though this SoC consists of 3 clusters: 0-3 (A55), 4-5 (A76) and 6-7 (A76)
for i in $(seq 0 $(( ${#ClusterConfigByCoreType[@]} -1 )) ) ; do
FirstCore=${ClusterConfigByCoreType[$i]}
LastCore=$(GetLastClusterCoreByType $(( $i + 1 )))
CheckPerformance "CPU ${FirstCore}-${LastCore}" "${FirstCore}" "${FirstCore}-${LastCore}"
CPUInfo="$(GetCPUInfo ${FirstCore})"
PlotGraph "CPU ${FirstCore}-${LastCore}${CPUInfo}" "${FirstCore}"
done
RenderPDF
;;
all)
# check each core of every cluster individually, check cores of each cluster,
# if real clusters and 'clusters of same type' (see RK3588 example above) differ
# then check 'clusters of same type' and then check all cores
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
FirstCore=${ClusterConfig[$i]}
CheckPerformance "CPU ${FirstCore}" "${FirstCore}" "${FirstCore}"
CPUInfo="$(GetCPUInfo ${FirstCore})"
PlotGraph "CPU ${FirstCore}${CPUInfo}" "${FirstCore}"
done
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
FirstCore=${ClusterConfig[$i]}
LastCore=$(GetLastClusterCore $(( $i + 1 )))
CheckPerformance "CPU ${FirstCore}-${LastCore}" "${FirstCore}" "${FirstCore}-${LastCore}"
CPUInfo="$(GetCPUInfo ${FirstCore})"
PlotGraph "CPU ${FirstCore}-${LastCore}${CPUInfo}" "${FirstCore}"
done
if [ ${#ClusterConfigByCoreType[@]} -ne ${#ClusterConfig[@]} ]; then
for i in $(seq 0 $(( ${#ClusterConfigByCoreType[@]} -1 )) ) ; do
FirstCore=${ClusterConfigByCoreType[$i]}
LastCore=$(GetLastClusterCoreByType $(( $i + 1 )))
CheckPerformance "CPU ${FirstCore}-${LastCore}" "${FirstCore}" "${FirstCore}-${LastCore}"
CPUInfo="$(GetCPUInfo ${FirstCore})"
PlotGraph "CPU ${FirstCore}-${LastCore}${CPUInfo}" "${FirstCore}"
done
fi
if [ ${#ClusterConfig[@]} -gt 1 ]; then
# more than one CPU cluster, we test using all cores simultaneously
CheckPerformance "all CPU cores" "$(tr -d '[:space:]' <<<"${ClusterConfig[@]}")"
PlotGraph "all CPU cores" "$(tr -d '[:space:]' <<<"${ClusterConfig[@]}")"
fi
RenderPDF
;;
*)
# individual taskset options have been provided, e.g. 0-2 or 3
if [ ${#CPUList} -eq 1 ]; then
# single core to be tested, we need to determine correct policy node
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
FirstCore=${ClusterConfig[$i]}
LastCore=$(GetLastClusterCore $(( $i + 1 )))
if [ ${CPUList} -le ${LastCore} ]; then
CheckPerformance "CPU core(s) ${CPUList}" "${FirstCore}" "${CPUList}"
CPUInfo="$(GetCPUInfo ${CPUList})"
PlotGraph "core ${CPUList}${CPUInfo}" "${FirstCore}"
break
fi
done
else
CheckPerformance "CPU core(s) ${CPUList}" "${CPUList:0:1}" "${CPUList}"
PlotGraph "core(s) ${CPUList}" "${CPUList:0:1}"
fi
RenderPDF
;;
esac
fi
exit 0
} # PlotPerformanceGraph
CheckPerformance() {
# function that gets provided with two or three arguments:
# * $1 test focus to be displayed
# * $2 policy cores: the cores that need to be adjusted when measuring, e.g. "0" for
# cpu0, "4" for cpu4 or for example on an RK3399 "04" to handle both cpu clusters
# at the same time
# * $3 taskset options as provided via the -g switch when calling sbc-bench
local i
if [ -n "${3}" ]; then
# if taskset options are provided ensure that '-mmt=1' is set when only a single
# core is tested.
TasksetOptions="taskset -c ${3} "
if [ ${#3} -eq 1 ]; then
SevenZIPOptions="-mmt=1"
elif [ ${#3} -eq 3 ]; then
# something like 0-3 or 4-5, determine count of cpu cores:
HowManyCores=$(( $(( ${3:2:1} - ${3:0:1} )) + 1 ))
SevenZIPOptions="-mmt=${HowManyCores}"
else
SevenZIPOptions=""
fi
else
TasksetOptions=""
SevenZIPOptions=""
fi
Clusters="$(ls -d /sys/devices/system/cpu/cpufreq/policy[${2}])"
echo -e "\x08\x08 Done.\nChecking ${1}: \c"
echo -e "\nSystem health while testing through ${1} ${Repetitions} times:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m $(( 30 * ${Repetitions} )) >>"${MonitorLog}" &
MonitoringPID=$!
SocTemp=$(ReadSoCTemp)
CpufreqDat="${TempDir}/cpufreq${2}.dat"
CpufreqLog="${TempDir}/cpufreq${2}.log"
if [ -s "${NetioConsumptionFile}" ]; then
NetioHeader=" / Watt"
echo -e "0\t0\t${IdleTemp}\t${IdleConsumption}" >"${CpufreqDat}"
echo -n "" >"${CpufreqDat}"
else
echo -n "" >"${CpufreqDat}"
fi
if [ ${USE_VCGENCMD} = true ] ; then
echo -e "Testing through ${1} ${Repetitions} times:\n\nSysfs/ThreadX/Tested: MIPS / Temp${NetioHeader}" >"${CpufreqLog}"
else
echo -e "Testing through ${1} ${Repetitions} times:\n\nSysfs/Tested: MIPS / Temp${NetioHeader}" >"${CpufreqLog}"
fi
# adjust min and max speeds (set max speeds on unaffected clusters to min speed)
for Cluster in /sys/devices/system/cpu/cpufreq/policy? ; do
[[ -e "${Cluster}" ]] || break
echo userspace >${Cluster}/scaling_governor
read MinSpeed <${Cluster}/cpuinfo_min_freq
read MaxSpeed <${Cluster}/cpuinfo_max_freq
echo ${MinSpeed} >${Cluster}/scaling_setspeed
done
for Cluster in ${Clusters}; do
echo userspace >${Cluster}/scaling_governor
read MinSpeed <${Cluster}/cpuinfo_min_freq
read MaxSpeed <${Cluster}/cpuinfo_max_freq
echo ${MinSpeed} >${Cluster}/scaling_setspeed
done
# now walk through higher cluster since this is supposed to provide more cpufreq OPP.
# On ARM usually little cores are the cores with lower numbers.
BiggestCluster="$(sort -n -r <<<${Clusters} | head -n1)"
for i in $((tr " " "\n" <${BiggestCluster}/scaling_available_frequencies ; tr " " "\n" <${BiggestCluster}/scaling_boost_frequencies) 2>/dev/null | sort -n | uniq | sed '/^[[:space:]]*$/d') ; do
# skip measuring cpufreq OPPs below $SkipBelow KHz
if [ $i -lt ${SkipBelow} ]; then
continue
fi
# try to set this speed on all affected cpufreq policies
if [ "X${3}" = "X" ]; then
for Cluster in /sys/devices/system/cpu/cpufreq/policy? ; do
[[ -e "${Cluster}" ]] || break
[ -f ${Cluster}/scaling_setspeed ] && echo ${i} >${Cluster}/scaling_setspeed
done
else
for Cluster in $(seq ${3:0:1} ${3:2:1}); do
[ -f /sys/devices/system/cpu/cpufreq/policy${Cluster}/scaling_setspeed ] && echo ${i} >/sys/devices/system/cpu/cpufreq/policy${Cluster}/scaling_setspeed
done
fi
snore 0.1
# if TasksetOptions is not provided measure clockspeed on highest core:
if [ "X${TasksetOptions}" = "X" ]; then
MeasureCore=$(awk '{print substr($0,length,1)}' <<<"${BiggestCluster}")
MeasuredSpeed=$(( $(taskset -c ${MeasureCore} "${InstallLocation}"/mhz/mhz 3 100000 | awk -F" cpu_MHz=" '{s+=$2} END {printf "%.0f", s}') / 3 ))
else
MeasuredSpeed=$(( $(${TasksetOptions} "${InstallLocation}"/mhz/mhz 3 100000 | awk -F" cpu_MHz=" '{s+=$2} END {printf "%.0f", s}') / 3 ))
fi
RoundedSpeed=$(( $(awk '{printf ("%0.0f",$1/10+0.5); }' <<<"${MeasuredSpeed}") * 10 ))
SysfsSpeed=$(( $i / 1000 ))
if [ ${USE_VCGENCMD} = true ] ; then
# On RPi we query ThreadX about clockspeeds too
ThreadXFreq=$("${VCGENCMD}" measure_clock arm 2>/dev/null | awk -F"=" '{printf ("%0.0f",$2/1000000); }' )
CoreVoltage=$("${VCGENCMD}" measure_volts uncached 2>/dev/null | cut -f2 -d=)
[ "X${CoreVoltage}" = "X" ] && CoreVoltage=$("${VCGENCMD}" measure_volts 2>/dev/null | cut -f2 -d=)
echo -e "$(printf "%4s" ${SysfsSpeed}) / $(printf "%4s" ${ThreadXFreq}) /$(printf "%6s" ${RoundedSpeed}):\c" >>"${CpufreqLog}"
echo -e "${ThreadXFreq}\t\c" >>"${CpufreqDat}"
echo -e "${ThreadXFreq}MHz, \c"
else
echo -e "$(printf "%4s" ${SysfsSpeed}) / $(printf "%4s" ${RoundedSpeed}) :\c" >>"${CpufreqLog}"
echo -e "${MeasuredSpeed}\t\c" >>"${CpufreqDat}"
echo -e "${SysfsSpeed}MHz, \c"
fi
echo -n "" >"${TempDir}/plotvalues"
for _check in $(seq 1 ${Repetitions}) ; do
# run 7-zip benchmark
${TasksetOptions} "${SevenZip}" b ${SevenZIPOptions} >"${TempLog}" 2>/dev/null
if [ -s "${NetioConsumptionFile}" ]; then
read ConsumptionNow <"${NetioConsumptionFile}"
fi
SocTemp=$(ReadSoCTemp)
MIPS="$(awk -F" " '/^Tot:/ {print $4}' <"${TempLog}")"
echo -e "${MIPS} ${SocTemp} ${ConsumptionNow}" >>"${TempDir}/plotvalues"
done
AveragedMIPS=$(( $(awk -F" " '{s+=$1} END {printf "%.0f", s}' <"${TempDir}/plotvalues") / ${Repetitions} ))
TempSum=$(awk -F" " '{s+=$2} END {printf "%.1f", s}' <"${TempDir}/plotvalues")
AveragedTemp=$(awk "{printf (\"%0.1f\",\$1/${Repetitions}); }" <<<"${TempSum}")
if [ -s "${NetioConsumptionFile}" ]; then
AveragedWatts=$(( $(awk -F" " '{s+=$3} END {printf "%.0f", s}' <"${TempDir}/plotvalues") / ${Repetitions} ))
ConsumptionInfo="$(printf "%6s" ${AveragedWatts})mW"
fi
echo "$(printf "%6s" ${AveragedMIPS}) $(printf "%5s" ${AveragedTemp})°C${ConsumptionInfo}" >>"${CpufreqLog}"
echo -e "${AveragedMIPS}\t${AveragedTemp}\t${AveragedWatts}" >>"${CpufreqDat}"
done
kill ${MonitoringPID} >/dev/null 2>&1
} # CheckPerformance
PlotGraph() {
# function that gets two arguments provided to graph the performance results:
# * $1 test focus to be displayed
# * $2 policy cores: the cores that need to be adjusted when measuring, e.g. "0" for
# cpu0, "4" for cpu4 or for example on an RK3399 "04" to handle both cpu clusters
# at the same time
# create random filename for graph png
GraphPNG="$(mktemp ${TempDir}/graph.XXXXXX)"
mv "${GraphPNG}" "${GraphPNG}.png"
# adjust y axis range by highest value
MaxMIPS=$(awk '{print $2}' <"${CpufreqDat}" | sort -n | tail -n1)
MaxTemp=$(awk '{print $3}' <"${CpufreqDat}" | sort -n | tail -n1)
Y2Range=$(awk '{printf ("%0.0f",$1*1.2); }' <<<"${MaxTemp}")
# Count columns in plot data
CountofColums=$(awk '{print NF}' "${CpufreqDat}" | head -n1)
case ${CountofColums} in
3)
# no consumption numbers, only plot MIPS and temp
YLabel="7-Zip MIPS"
YRange=$(awk '{printf ("%0.0f",$1*1.2); }' <<<"${MaxMIPS}")
PlotCommand="plot '${CpufreqDat}' using 1:2 lt rgb 'blue' w l title '7-Zip MIPS ${1}' axis x1y1, '' using 1:3 lt rgb 'green' w l title 'SoC temp' axis x1y2"
;;
4)
# also consumption numbers so include them in the graph too
YLabel="7-Zip MIPS / mW"
MaxWatt=$(awk '{print $4}' <"${CpufreqDat}" | sort -n | tail -n1)
YRangeWatt=$(awk '{printf ("%0.0f",$1*1.2); }' <<<"${MaxWatt}")
YRangeMIPS=$(awk '{printf ("%0.0f",$1*1.2); }' <<<"${MaxMIPS}")
if [ ${MaxWatt} -gt ${MaxMIPS} ]; then
YRange=${YRangeWatt}
else
YRange=${YRangeMIPS}
fi
PlotCommand="plot '${CpufreqDat}' using 1:2 lt rgb 'blue' w l title '7-Zip MIPS ${1}' axis x1y1, '' using 1:4 lt rgb 'black' w l title 'Consumption in mW' axis x1y1, '' using 1:3 lt rgb 'green' w l title 'SoC temp' axis x1y2"
;;
esac
# add individual results and ASCII graph to results log
echo -e "\n##########################################################################\n\n$(cat ${TempDir}/cpufreq${2}.log)" >>"${ResultLog}"
gnuplot-nox -p -e \
"set terminal dumb size 75, 30; set autoscale; set yrange [0:${YRangeMIPS}]; plot '${CpufreqDat}' using 1:2 with lines notitle" \
>>"${ResultLog}"
# plot PNG with gnuplot
PNGWidth=900
PNGHeight=450
cat <<- EOF | gnuplot-nox
set title '${DeviceName}: ${1}'
set ylabel '${YLabel}'
set ytics nomirror
set y2tics 0,10
set y2label 'degree celsius'
set xlabel 'CPU clockspeed in MHz'
set datafile sep '\t'
set key top left autotitle columnheader
set grid
set autoscale
set yrange [0:${YRange}]
set y2range [0:${Y2Range}]
set terminal png size ${PNGWidth},${PNGHeight}
set output '${GraphPNG}.png'
${PlotCommand}
plot '${CpufreqDat}' using 1:2 lt rgb 'blue' w l title '7-Zip MIPS ${1}' axis x1y1, '' using 1:3 lt rgb 'green' w l title 'SoC temp' axis x1y2
EOF
} # PlotGraph
RenderPDF() {
# fire up monitoring tasks to get device's health after executing the benchmark
# CheckTimeInState after
"${SevenZip}" b >/dev/null 2>&1 & # run 7-zip bench in the background
CheckClockspeedsAndSensors # test again loaded system after heating the SoC to the max
SummarizeResults >/dev/null
# use HTMLdoc to combine graph and text
cat <<- EOF >${TempDir}/report.html
sbc-bench performance graph
sbc-bench v${Version} - ${DeviceName} - $(date)
sbc-bench has been called with -g ${CPUList}
EOF
ls -r --time=atime "${TempDir}"/*.png | while read Graph ; do
echo -e "![](\"${Graph}\")
" >>${TempDir}/report.html
done
cat <<- EOF >>${TempDir}/report.html
$(sed '/^$/N;/^\n$/D' <"${ResultLog}")
EOF
htmldoc --charset utf-8 --headfootfont helvetica-oblique --headfootsize 7 --header ..c --tocheader . --firstpage c1 --quiet --browserwidth 900 --pagemode outline --fontsize 8 --format pdf14 --bodyfont helvetica --bottom 1cm --pagelayout single --left 2.5cm --right 2cm --top 1.7cm --linkstyle plain --linkcolor blue --textcolor black --bodycolor white --links --size 210x297mm --portrait --compression=9 --jpeg=95 --webpage -f "${TempDir}/report.pdf" "${TempDir}/report.html"
if [ -s "${TempDir}/report.pdf" ]; then
PDFName="sbc-bench-v${Version}-$(tr ' ' '-' <<<"${DeviceName,,}")-${CPUList}"
FinalPDF="$(mktemp "/tmp/${PDFName}".XXXXXX)"
cat "${TempDir}/report.pdf" >"${FinalPDF}"
mv "${FinalPDF}" "${FinalPDF}.pdf"
chmod 644 "${FinalPDF}.pdf"
# make a copy in a permanent location since stuff in /tmp/ gets lost after reboot
cp "${FinalPDF}.pdf" "${HOME}/"
echo -e "\x08\x08 Done.\n\nPlease check ${FinalPDF}.pdf"
else
echo -e "\x08\x08 Done.\n\nSomething went wrong"
fi
} # RenderPDF
GetTempSensor() {
# In Armbian we can not rely on /etc/armbianmonitor/datasources/soctemp at all any more
# since nobody is left there who cares about /usr/lib/armbian/armbian-hardware-monitor.
# Armbian always chooses /sys/class/hwmon/hwmon0 which can be something totally different
# than the SoC temperature, for example:
# * http://ix.io/3Q5y --> sun4i_ts (touch controller)
# * http://ix.io/3MFz --> w1_slave_temp (1-wire sensor)
# * http://ix.io/411x --> gpu_thermal (obviously _not_ cpu_thermal)
# * http://ix.io/41IL --> iwlwifi_1 (Wi-Fi card)
# * http://ix.io/4nt8 --> acpitz (whatever sensor remaining at 26.8°C)
if [ -f /etc/armbianmonitor/datasources/soctemp ] && [ "${CPUArchitecture}" != "x86_64" ]; then
TempSource=/etc/armbianmonitor/datasources/soctemp
ThermalNode="$(readlink /etc/armbianmonitor/datasources/soctemp)"
if [ -f "${ThermalNode%/*}/name" ]; then
read ThermalSource <"${ThermalNode%/*}/name" 2>/dev/null
elif [ -f "${ThermalNode%/*}/type" ]; then
read ThermalSource <"${ThermalNode%/*}/type" 2>/dev/null
fi
case ${ThermalSource} in
# check name/type of thermal node Armbian 'has chosen' (it's an unmaintained
# mess since 2018)
aml_thermal|cpu|cpu_thermal*|cpu-thermal*|cpu0-thermal*|cpu0_thermal*|soc_thermal*|soc-thermal*|CPU-therm|x86_pkg_temp)
# Seems like a good find
TempInfo="Thermal source: ${ThermalNode%/*}/ (${ThermalSource})"
;;
*)
# Quick results check within few months showed the following types which
# smell all not that good if it's about CPU or SoC temperatures:
# scpi_sensors, w1_slave_temp, iio_hwmon, sun4i_ts, gpu_thermal, iwlwifi_1
NodeGuess=$(cat /sys/devices/virtual/thermal/thermal_zone?/type 2>/dev/null | sort -n | grep -E "cpu|soc|CPU-therm|x86_pkg_temp|thermal-fan-est" | head -n1)
if [ "X${NodeGuess}" != "X" ]; then
# let's use this thermal node instead
if [ -d "${TempDir}" ]; then
TempSource="${TempDir}/soctemp"
else
TempSource="$(mktemp /tmp/soctemp.XXXXXX)"
trap 'rm -f "${TempSource}" ; exit 0' 0
fi
ThermalZone="$(GetThermalZone "${NodeGuess}")"
ln -fs ${ThermalZone}/temp ${TempSource}
if [ -f "${ThermalNode%/*}/temp1_label" ]; then
read TempLabel <"${ThermalNode%/*}/temp1_label"
case "${TempLabel}" in
aml_thermal|cpu|cpu_thermal*|cpu-thermal*|cpu0-thermal*|cpu0_thermal*|soc_thermal*|soc-thermal*|CPU-therm|x86_pkg_temp|k10temp|k8temp|coretemp)
# looks like a legit thermal sensor
TempInfo="Thermal source: ${ThermalZone}/ (${NodeGuess})"
;;
*)
# looks weird so print a warning
TempInfo="Thermal source: ${ThermalZone}/ (${NodeGuess})\n (Armbian wants to use ${ThermalNode%/*} instead, that\n zone is named ${ThermalSource}. Please check and if wrong\n file a bug here: https://github.com/armbian/build/issues/)"
;;
esac
fi
else
# use Armbian's 'choice' since no better match was found
OtherTempZones="$(cat /sys/devices/virtual/thermal/thermal_zone?/type | grep -v "${ThermalSource}" | tr '\n' ',' | sed -e 's/,/, /g' -e 's/, $//')"
if [ "X${OtherTempZones}" = "X" ]; then
# no other thermal zones available
TempInfo="Thermal source: ${ThermalNode%/*}/ (${ThermalSource})"
else
# report other thermal zones as well
TempInfo="Thermal source: ${ThermalNode%/*}/ (${ThermalSource})\n (other sensors found: ${OtherTempZones})"
fi
fi
;;
esac
else
if [ -d "${TempDir}" ]; then
TempSource="${TempDir}/soctemp"
else
TempSource="$(mktemp /tmp/soctemp.XXXXXX)"
trap 'rm -f "${TempSource}" ; exit 0' 0
fi
# check platform
case $(lscpu | awk -F" " '/^Architecture/ {print $2}') in
x86*|i686)
cat /sys/devices/virtual/thermal/thermal_zone?/type 2>/dev/null | grep -q x86_pkg_temp
case $? in
0)
# use x86_pkg_temp sensor if available
ThermalZone="$(GetThermalZone x86_pkg_temp)"
ln -fs ${ThermalZone}/temp ${TempSource}
TempInfo="Thermal source: ${ThermalZone}/ (x86_pkg_temp)"
;;
*)
# try to get hwmon node based on thermal driver loaded (idea/feedback courtesy
# @linuxium and @dan-and: https://github.com/ThomasKaiser/sbc-bench/issues/33)
find /sys -name 'temp?_input' -type f 2>/dev/null | while read ; do
read NodeName <"${REPLY%/*}/name"
case "${NodeName}" in
k10temp|k8temp|coretemp)
ln -fs "${REPLY}" ${TempSource}
TempInfo="Thermal source: ${REPLY%/*}/ (${NodeName})"
break
;;
esac
done
if [ ! -h "${TempSource}" ]; then
# still no thermal source found. If there is at least one thermal_zone
# with 'cpu' in its name then use it
CPUSensor="$(cat /sys/devices/virtual/thermal/thermal_zone?/type 2>/dev/null | grep -i cpu | head -n1)"
if [ "X${CPUSensor}" != "X" ]; then
ThermalZone="$(GetThermalZone "${CPUSensor}")"
ln -fs ${ThermalZone}/temp ${TempSource}
TempInfo="Thermal source: ${ThermalZone}/ (${CPUSensor})"
else
echo 0 >${TempSource}
fi
fi
;;
esac
;;
*)
if [[ -d "/sys/devices/platform/a20-tp-hwmon" ]]; then
# Allwinner A20 with old 3.4 kernel
ln -fs /sys/devices/platform/a20-tp-hwmon/temp1_input ${TempSource}
read ThermalSource /dev/null && \
TempInfo="Thermal source: /sys/devices/platform/a20-tp-hwmon/ (${ThermalSource})"
else
ThermalNodeGuess=$(cat /sys/devices/virtual/thermal/thermal_zone?/type 2>/dev/null | grep -E -i "aml_thermal|cpu|soc" | tail -n1)
HWMonNodeGuess=$(cat /sys/class/hwmon/hwmon?/name 2>/dev/null | grep -E -i "120e0000|cpu-hwmon" | tail -n1)
if [ "X${ThermalNodeGuess}" != "X" ]; then
# let's use this thermal node
ThermalZone="$(GetThermalZone "${ThermalNodeGuess}")"
ln -fs ${ThermalZone}/temp ${TempSource}
TempInfo="Thermal source: ${ThermalZone}/ (${ThermalNodeGuess})"
elif [ "X${HWMonNodeGuess}" != "X" ]; then
# temporary hack to support thermal readouts on JH71x0 boards running
# StarVision vendor kernel and Loongson CPUs with 4.19.0 vendor kernel
ThermalZone="$(GetHWNode "${HWMonNodeGuess}")"
if [ -r ${ThermalZone}/temp1_input ]; then
ln -fs ${ThermalZone}/temp1_input ${TempSource}
TempInfo="Thermal source: ${ThermalZone}/ (${HWMonNodeGuess})"
else
echo 0 >${TempSource}
fi
else
echo 0 >${TempSource}
fi
fi
;;
esac
fi
export TempSource TempInfo
InitialTemp=$(ReadSoCTemp)
} # GetTempSensor
GetThermalZone() {
# get thermal zone for specific type string ($1)
for zone in /sys/devices/virtual/thermal/thermal_zone* ; do
grep -q "${1}" <"${zone}/type"
case $? in
0)
echo ${zone}
return
;;
esac
done
} # GetThermalZone
GetHWNode() {
# get hwmon node for specific name string ($1)
for node in /sys/class/hwmon/hwmon* ; do
grep -q "${1}" <"${node}/name"
case $? in
0)
echo ${node}
return
;;
esac
done
} # GetHWNode
CheckNetio() {
# Function that checks connection with a Netio powermeter if $Netio is set and if
# successful spawns another execution of this script with -N (Netio monitor mode.).
if [ "X${Netio}" != "X" ]; then
# Try to fetch XML
XMLOutput="$(curl -q --connect-timeout 1 "http://${NetioDevice}/netio.xml" 2>/dev/null | tr '\015' '\012')"
if [ "X${XMLOutput}" = "X" ] && [ "X${MODE}" != "Xunattended" ]; then
echo -e "\nError: not able to fetch \"http://${NetioDevice}/netio.xml\" within a second.\nPlease check parameters and connection manually." >&2
DisplayUsage
exit 1
else
# check current reading of the socket we're supposed to be plugged into
OutputCurrents=($(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g' | tr '\n' ' '))
if [ ${OutputCurrents[$(( ${NetioSocket} - 1 ))]} -eq 0 ] && [ "X${MODE}" != "Xunattended" ]; then
echo -e "\nWarning: socket ${NetioSocket} of Netio device ${NetioDevice} provides zero current.\n"
fi
NetioConsumptionFile="${TempDir}/netio.current"
[ -f "${NetioConsumptionFile}" ] || echo -n 0 >"${NetioConsumptionFile}"
export NetioConsumptionFile
/bin/bash "${PathToMe}" -N "${NetioDevice}" "${NetioSocket}" "${NetioConsumptionFile}" >/dev/null 2>&1 &
NetioMonitoringPID=$!
trap 'kill ${NetioMonitoringPID} ; rm -rf "${TempDir}" ; exit 0' 0
fi
fi
} # CheckNetio
MonitorNetio() {
# Poll Netio powermeter accessible at $1 every ~1 second, extract current and
# powerfactor readouts for socket $2, write most recent 30 readouts to a file
# and generate an average number from this to be written to $3
# By also providing $4 and $5 you can adjust poll interval and sample count.
NetioDevice="$1"
NetioSocket="$2"
ConsumptionFile="$3"
SleepInterval=${4:-0.8}
CountofSamples=${5:-30}
# Try to renice to 19 to not interfere with benchmark behaviour
renice 19 $BASHPID >/dev/null 2>&1
while true ; do
XMLOutput="$(curl -q --connect-timeout 1 "http://${NetioDevice}/netio.xml" 2>/dev/null | tr '\015' '\012')"
InputVoltage=$(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g')
OutputCurrents=($(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g' | tr '\n' ' '))
OutputCurrent=${OutputCurrents[$(( ${NetioSocket} - 1 ))]}
OutputPowerFactors=($(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g' | tr '\n' ' '))
OutputPowerFactor=${OutputPowerFactors[$(( ${NetioSocket} - 1 ))]}
Consumption=$(awk -F" " '{printf ("%0.0f",$1*$2*$3); }' <<<"${InputVoltage} ${OutputCurrent} ${OutputPowerFactor}")
# create a file consisting of $CountofSamples entries with last consumption readouts so we
# can generate an average value based this and $SleepInterval
touch ${TempDir}/netio-socket-${NetioSocket}
PriorValues="$(tail -n${CountofSamples} ${TempDir}/netio-socket-${NetioSocket})"
echo -e "${PriorValues}\n${Consumption}" | sed '/^[[:space:]]*$/d' >${TempDir}/netio-socket-${NetioSocket}
CountOfEntries="$(wc -l <${TempDir}/netio-socket-${NetioSocket})"
SumOfEntries=$(awk '{s+=$1} END {printf "%.0f", s}' <${TempDir}/netio-socket-${NetioSocket})
AverageConsumption=$(( ${SumOfEntries} / ${CountOfEntries} ))
echo -n $(( $(awk '{printf ("%0.0f",$1/10); }' <<<"${AverageConsumption}" ) * 10 )) >"${ConsumptionFile}"
snore ${SleepInterval}
done
} # MonitorNetio
PrintCPUInfo() {
BasicSetup nochange
[ -z "${DTCompatible}" ] && [ -r /proc/device-tree/compatible ] && DTCompatible="$(tr "\000" "\n" /dev/null)"
[ -z "${LSCPU}" ] && LSCPU="$(lscpu)"
[ -z "${CPUArchitecture}" ] && CPUArchitecture="$(awk -F" " '/^Architecture/ {print $2}' <<<"${LSCPU}")"
[ -z "${VoltageSensor}" ] && VoltageSensor="$(GetVoltageSensor)"
[ -z "${CPUTopology}" ] && CPUTopology="$(PrintCPUTopology)"
[ -z "${CPUSignature}" ] && CPUSignature="$(GetCPUSignature)"
[ -z "${X86CPUName}" ] && X86CPUName="$(sed 's/ \{1,\}/ /g' <<<"${LSCPU}" | awk -F": " '/^Model name/ {print $2}' | sed -e 's/1.th Gen //' -e 's/.th Gen //' -e 's/Core(TM) //' -e 's/ Processor//' -e 's/Intel(R) Xeon(R) CPU //' -e 's/Intel(R) //' -e 's/(R)//' -e 's/CPU //' -e 's/ 0 @/ @/' -e 's/AMD //' -e 's/Authentic //' -e 's/ with .*//')"
[ -f /sys/devices/soc0/family ] && read SoC_Family /dev/null 2>&1 && Userland=", Userland: $(dpkg --print-architecture 2>/dev/null)"
[ "X${VirtWhat}" != "X" ] && [ "X${VirtWhat}" != "Xnone" ] && VirtOrContainer=" / ${BOLD}${VirtWhat}${NC}"
echo -e "Kernel: ${CPUArchitecture}${VirtOrContainer}${Userland}"
echo -e "\n${CPUTopology}\n"
if [ "X${TempInfo}" != "X" ]; then
echo -e "${TempInfo}\n"
fi
} # PrintCPUInfo
MonitorBoard() {
BasicSetup nochange
[ -z "${TempSource}" ] && GetTempSensor
[ -z "${DTCompatible}" ] && [ -r /proc/device-tree/compatible ] && DTCompatible="$(tr "\000" "\n" /dev/null)"
[ -z "${LSCPU}" ] && LSCPU="$(lscpu)"
[ -z "${CPUArchitecture}" ] && CPUArchitecture="$(awk -F" " '/^Architecture/ {print $2}' <<<"${LSCPU}")"
[ -z "${VoltageSensor}" ] && VoltageSensor="$(GetVoltageSensor)"
[ -z "${CPUTopology}" ] && CPUTopology="$(PrintCPUTopology)"
[ -z "${CPUSignature}" ] && CPUSignature="$(GetCPUSignature)"
[ -z "${X86CPUName}" ] && X86CPUName="$(sed 's/ \{1,\}/ /g' <<<"${LSCPU}" | awk -F": " '/^Model name/ {print $2}' | sed -e 's/1.th Gen //' -e 's/.th Gen //' -e 's/Core(TM) //' -e 's/ Processor//' -e 's/Intel(R) Xeon(R) CPU //' -e 's/Intel(R) //' -e 's/(R)//' -e 's/CPU //' -e 's/ 0 @/ @/' -e 's/AMD //' -e 's/Authentic //' -e 's/ with .*//')"
[ -z "${CPUFetchInfo}" ] && CPUFetchInfo="$(GrabCPUFetchInfo)"
if test -t 1; then
# when called from a terminal we print some system information first and insert
# empty line + header every 15 lines. On x86 include cpufetch info if available
if [ -x "${InstallLocation}"/cpufetch/cpufetch ] && [ "${CPUArchitecture}" = "x86_64" ]; then
CPUFetchInfo="$("${InstallLocation}"/cpufetch/cpufetch)"
[[ ${CPUFetchInfo} != *Unknown* ]] && echo -e "Information courtesy of cpufetch:\n${CPUFetchInfo}\n"
fi
PrintCPUInfo
SPACING=yes
else
ClusterConfigByCoreType=($(GetCoreClusters))
ClusterConfig=($(GetRelevantCPUClusters))
if [ -f "${TempDir}/Pcores" ]; then
read PCores <"${TempDir}/Pcores"
read ECores <"${TempDir}/Ecores"
fi
[ ${#ClusterConfig[@]} -eq 0 ] && ClusterConfig=(0)
fi
# Background monitoring -- try to renice to 19 to not interfere with benchmark behaviour
renice 19 $BASHPID >/dev/null 2>&1
# switch to scaling_cur_freq if cpuinfo_cur_freq is not readable
if [ -r /sys/devices/system/cpu/cpu0/cpufreq/cpuinfo_cur_freq ]; then
CpuFreqToQuery=cpuinfo_cur_freq
else
CpuFreqToQuery=scaling_cur_freq
fi
LastUserStat=0
LastNiceStat=0
LastSystemStat=0
LastIdleStat=0
LastIOWaitStat=0
LastIrqStat=0
LastSoftIrqStat=0
LastTotal=0
# check if we're in Netio consumption monitoring mode
[ -s "${NetioConsumptionFile}" ] && NetioHeader=" mW"
# check whether input voltage can be read
[ "X${VoltageSensor}" != "X" ] && VoltageHeader=" DC(V)"
# Check whether PMIC ADCs are readable on RPi 5
"${VCGENCMD}" pmic_read_adc >/dev/null 2>&1
case $? in
0)
PMIC_ADC=true
VoltageHeader=" DC(V)"
;;
*)
PMIC_ADC=false
;;
esac
if [ ${USE_VCGENCMD} = true ] && [ ${PMIC_ADC} = true ] ; then
DisplayHeader="Time fake/real load %cpu %sys %usr %nice %io %irq Temp VCore PMIC${VoltageHeader}${NetioHeader}"
CPUs=raspberrypi
elif [ ${USE_VCGENCMD} = true ] ; then
DisplayHeader="Time fake/real load %cpu %sys %usr %nice %io %irq Temp VCore${VoltageHeader}${NetioHeader}"
CPUs=raspberrypi
elif [ ${#ClusterConfig[@]} -eq 1 ] && [ -r /sys/devices/system/cpu/cpufreq/policy0/${CpuFreqToQuery} ] ; then
DisplayHeader="Time CPU load %cpu %sys %usr %nice %io %irq Temp${VoltageHeader}${NetioHeader}"
CPUs=singlecluster
elif [ ${#ClusterConfig[@]} -eq 3 ] && [ -r /sys/devices/system/cpu/cpufreq/policy${ClusterConfig[0]}/${CpuFreqToQuery} ] && [ -r /sys/devices/system/cpu/cpufreq/policy${ClusterConfig[1]}/${CpuFreqToQuery} ] && [ -r /sys/devices/system/cpu/cpufreq/policy${ClusterConfig[2]}/${CpuFreqToQuery} ] ; then
DisplayHeader="Time cpu${ClusterConfig[0]}/cpu${ClusterConfig[1]}/cpu${ClusterConfig[2]} load %cpu %sys %usr %nice %io %irq Temp${VoltageHeader}${NetioHeader}"
CPUs=triplecluster
elif [ -r /sys/devices/system/cpu/cpufreq/policy${ClusterConfig[1]}/${CpuFreqToQuery} ]; then
ClusterCount=$(( ${#ClusterConfig[@]} -1 ))
DisplayHeader="Time big.LITTLE load %cpu %sys %usr %nice %io %irq Temp${VoltageHeader}${NetioHeader}"
read FirstCluster /dev/null)
RealFreq=$("${VCGENCMD}" measure_clock arm 2>/dev/null | awk -F"=" '{printf ("%0.0f",$2/1000000); }' )
if [ ${PMIC_ADC} = true ]; then
ADC_Readouts="$("${VCGENCMD}" pmic_read_adc 2>/dev/null)"
InputVoltage="$(awk -F"=" '/EXT5V_V/ {printf ("%0.2f",$2); }' <<<"${ADC_Readouts}")V"
CoreVoltage="$(awk -F"=" '/VDD_CORE_V/ {printf ("%0.4f",$2); }' <<<"${ADC_Readouts}")V"
[ "X${CoreVoltage}" = "X" ] && CoreVoltage=$("${VCGENCMD}" measure_volts 2>/dev/null | cut -f2 -d=)
PMIC_Whole_Consumption=$(Parse_ADC_Readouts "${ADC_Readouts}" | awk '{s+=$1*$2} END {printf "%.1f", s}')
printf "%s: %4s/%4sMHz %5s %s %8s %8s %6s %7s %s\n" "$(date "+%H:%M:%S")" "${FakeFreq}" "${RealFreq}" "${LoadAvg}" "${procStats}" "${SocTemp}°C" "${CoreVoltage}" "${PMIC_Whole_Consumption}W" "${InputVoltage}" "${NetioColumn}"
else
CoreVoltage=$("${VCGENCMD}" measure_volts uncached 2>/dev/null | cut -f2 -d=)
[ "X${CoreVoltage}" = "X" ] && CoreVoltage=$("${VCGENCMD}" measure_volts 2>/dev/null | cut -f2 -d=)
printf "%s: %4s/%4sMHz %5s %s %8s %8s %s\n" "$(date "+%H:%M:%S")" "${FakeFreq}" "${RealFreq}" "${LoadAvg}" "${procStats}" "${SocTemp}°C" "${CoreVoltage}" "${NetioColumn}"
fi
;;
biglittle)
BigFreq=$(awk '{printf ("%0.0f",$1/1000); }' /dev/null)
LittleFreq=$(awk '{printf ("%0.0f",$1/1000); }' /dev/null)
printf "%s: %4s/%4sMHz %5s %s %8s %s %s\n" "$(date "+%H:%M:%S")" "${BigFreq}" "${LittleFreq}" "${LoadAvg}" "${procStats}" "${SocTemp}°C" "${VoltageColumn}" "${NetioColumn}"
;;
littlebig)
BigFreq=$(awk '{printf ("%0.0f",$1/1000); }' /dev/null)
LittleFreq=$(awk '{printf ("%0.0f",$1/1000); }' /dev/null)
printf "%s: %4s/%4sMHz %5s %s %8s %s %s\n" "$(date "+%H:%M:%S")" "${BigFreq}" "${LittleFreq}" "${LoadAvg}" "${procStats}" "${SocTemp}°C" "${VoltageColumn}" "${NetioColumn}"
;;
triplecluster)
Freq0=$(awk '{printf ("%0.0f",$1/1000); }' /dev/null)
Freq1=$(awk '{printf ("%0.0f",$1/1000); }' /dev/null)
Freq2=$(awk '{printf ("%0.0f",$1/1000); }' /dev/null)
printf "%s: %4s/%4s/%4sMHz %5s %s %8s %s %s\n" "$(date "+%H:%M:%S")" "${Freq0}" "${Freq1}" "${Freq2}" "${LoadAvg}" "${procStats}" "${SocTemp}°C" "${VoltageColumn}" "${NetioColumn}"
;;
singlecluster)
CpuFreq=$(awk '{printf ("%0.0f",$1/1000); }' /dev/null)
printf "%s: %4sMHz %5s %s %8s %s %s\n" "$(date "+%H:%M:%S")" "${CpuFreq}" "${LoadAvg}" "${procStats}" "${SocTemp}°C" "${VoltageColumn}" "${NetioColumn}"
;;
notavailable)
printf "%s: n/aMHz %7s %s %8s %s %s\n" "$(date "+%H:%M:%S")" "${LoadAvg}" "${procStats}" "${SocTemp}°C" "${VoltageColumn}" "${NetioColumn}"
;;
esac
snore ${SleepInterval}
done
} # MonitorBoard
TempTest() {
[ "X${TempSource}" = "X" ] && GetTempSensor
SocTemp=$(ReadSoCTemp 2>/dev/null | cut -f1 -d'.')
[ "X${SocTemp}" = "X" ] && \
{ echo -e "${LRED}${BOLD}WARNING: No temperature source found. Aborting.${NC}" >&2 ; exit 1 ; }
[ ${SocTemp} -lt 20 ] && \
echo -e "${LRED}${BOLD}WARNING: sysfs thermal readout is ominously low: ${SocTemp}°C.${NC}\n" >&2
BasicSetup nochange >/dev/null 2>&1
InstallPrerequisits
InitialMonitoring
echo -e "\n${BOLD}Thermal efficiency test using $(readlink "${TempSource}")${NC}"
echo -e "\nInstalling needed tools. This may take some time...\c"
# get/build mhz and cpuminer if not already there
if [ ! -x "${InstallLocation}"/mhz/mhz ]; then
cd "${InstallLocation}" || exit 1
git clone https://github.com/wtarreau/mhz >/dev/null 2>&1
if [ $? -ne 0 ]; then
echo -e "\n\n${LRED}${BOLD}Temporary Github problem. Not able to download mhz. Please try again later.${NC}" >&2
exit 1
fi
cd mhz || exit 1
make >/dev/null 2>&1
if [ ! -x "${InstallLocation}"/mhz/mhz ]; then
echo -e "${LRED}${BOLD}Not able to build necessary tools. Aborting.${NC}\nMost probably gcc and make packages are missing." >&2
exit 1
fi
else
grep -q 'among 5 runs of the short loop' "${InstallLocation}"/mhz/mhz.c
if [ $? -ne 0 ]; then
# rebuild mhz due to https://github.com/wtarreau/mhz/commit/6620e45f41429afe577aa3bb80614ac3934afd82
echo -e "\x08\x08\x08, mhz...\c"
cd "${InstallLocation}/mhz" || exit 1
git pull >/dev/null 2>&1
make >/dev/null 2>&1
fi
fi
InstallCpuminer >/dev/null 2>&1
if [ ! -x "${InstallLocation}"/cpuminer-multi/cpuminer ]; then
echo -e "${LRED}${BOLD}WARNING: Not able to execute cpuminer. Aborting.${NC}" >&2
exit 1
fi
# Start with testing
CheckClockspeedsAndSensors
SocTemp=$(ReadSoCTemp | cut -f1 -d'.')
echo " Done"
case $c in
T)
if [ ${SocTemp} -le ${TargetTemp} ]; then
echo -e "System health while heating up the SoC:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m 10 >>"${MonitorLog}" &
MonitoringPID=$!
"${InstallLocation}"/cpuminer-multi/cpuminer --benchmark --cpu-priority=2 >/dev/null &
MinerPID=$!
while [ ${SocTemp} -le ${TargetTemp} ]; do
echo "Heating SoC from current ${SocTemp}°C to ${TargetTemp}°C. This may take some time..."
printf "\x1b[1A"
snore 2
SocTemp=$(ReadSoCTemp | cut -f1 -d'.')
done
echo -e "Heating SoC from current ${TargetTemp}°C to ${TargetTemp}°C. This may take some time...\c"
kill ${MinerPID} ${MonitoringPID}
else
echo -e "Skipping heating up the SoC since already at ${SocTemp}°C\n" >>"${MonitorLog}"
echo -e "No need to heat the SoC to ${TargetTemp}°C since already at ${SocTemp}°C...\c"
fi
;;
t)
if [ ${SocTemp} -gt ${TargetTemp} ]; then
echo -e "System health while waiting for the SoC to cool down:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m 10 >>"${MonitorLog}" &
MonitoringPID=$!
while [ ${SocTemp} -gt ${TargetTemp} ]; do
echo "Waiting for the SoC cooling down from current ${SocTemp}°C to ${TargetTemp}°C. This may take some time..."
printf "\x1b[1A"
snore 2
SocTemp=$(ReadSoCTemp | cut -f1 -d'.')
done
echo -e "Waiting for the SoC cooling down from current ${SocTemp}°C to ${TargetTemp}°C. This may take some time...\c"
kill ${MonitoringPID}
else
echo -e "No need to wait for the SoC chilling since already at ${SocTemp}°C\n" >>"${MonitorLog}"
echo -e "No need to wait for the SoC chilling since already at ${SocTemp}°C...\c"
fi
;;
esac
CheckTimeInState before
RunCpuminerBenchmark
CheckTimeInState after
echo -e " Done.\n\007\007\007"
# Prepare test results
CheckForThrottling
echo -e "\n##########################################################################\n" >>"${ResultLog}"
cat "${MonitorLog}" >>"${ResultLog}"
[ -f "${TempDir}/throttling_info.txt" ] && cat "${TempDir}/throttling_info.txt" >>"${ResultLog}"
cat "${ResultLog}"
} # TempTest
ReadSoCTemp() {
if [ -h "${TempSource}" ]; then
read RawTemp <"${TempSource}"
if [ ${RawTemp:-0} -ge 1000 ]; then
RawTemp=$(awk '{printf ("%0.1f",$1/1000); }' <<<${RawTemp})
fi
echo -e ${RawTemp}
fi
} # ReadSoCTemp
ProcessStats() {
# Generate detailed usage statistics based on /proc/stat
procStatLine=(`sed -n 's/^cpu\s//p' /proc/stat`)
UserStat=${procStatLine[0]}
NiceStat=${procStatLine[1]}
SystemStat=${procStatLine[2]}
IdleStat=${procStatLine[3]}
IOWaitStat=${procStatLine[4]}
IrqStat=${procStatLine[5]}
SoftIrqStat=${procStatLine[6]}
Total=0
for eachstat in ${procStatLine[@]}; do
Total=$(( ${Total} + ${eachstat} ))
done
UserDiff=$(( ${UserStat} - ${LastUserStat} ))
NiceDiff=$(( ${NiceStat} - ${LastNiceStat} ))
SystemDiff=$(( ${SystemStat} - ${LastSystemStat} ))
IOWaitDiff=$(( ${IOWaitStat} - ${LastIOWaitStat} ))
IrqDiff=$(( ${IrqStat} - ${LastIrqStat} ))
SoftIrqDiff=$(( ${SoftIrqStat} - ${LastSoftIrqStat} ))
diffIdle=$(( ${IdleStat} - ${LastIdleStat} ))
diffTotal=$(( ${Total} - ${LastTotal} ))
diffX=$(( ${diffTotal} - ${diffIdle} ))
CPULoad=$(( ${diffX}* 100 / ${diffTotal} ))
UserLoad=$(( ${UserDiff}* 100 / ${diffTotal} ))
SystemLoad=$(( ${SystemDiff}* 100 / ${diffTotal} ))
NiceLoad=$(( ${NiceDiff}* 100 / ${diffTotal} ))
IOWaitLoad=$(( ${IOWaitDiff}* 100 / ${diffTotal} ))
IrqCombined=$(( ${IrqDiff} + ${SoftIrqDiff} ))
IrqCombinedLoad=$(( ${IrqCombined}* 100 / ${diffTotal} ))
LastUserStat=${UserStat}
LastNiceStat=${NiceStat}
LastSystemStat=${SystemStat}
LastIdleStat=${IdleStat}
LastIOWaitStat=${IOWaitStat}
LastIrqStat=${IrqStat}
LastSoftIrqStat=${SoftIrqStat}
LastTotal=${Total}
procStats=$(echo -e "$(printf "%3s" ${CPULoad})%$(printf "%4s" ${SystemLoad})%$(printf "%4s" ${UserLoad})%$(printf "%4s" ${NiceLoad})%$(printf "%4s" ${IOWaitLoad})%$(printf "%4s" ${IrqCombinedLoad})%")
} # ProcessStats
CheckOSRelease() {
# check OS
OperatingSystem="$(GetOSRelease)"
# Display warning when not executed on recent Debian, Fedora, Ubuntu or Rocky Linux distros
case ${OperatingSystem,,} in
*buster*|*bullseye*|*bookworm*|*focal*|*jammy*|*mantic*|*noble*|*thirty*|"fedora linux 3"[8-9]*|"rocky linux 9"*)
:
;;
*)
# only inform/ask user if $MODE != unattended
if [ "X${MODE}" != "Xunattended" ]; then
if [ "${1}" = "ForReview" ]; then
echo -e "${LRED}${BOLD}WARNING: This tool is meant to assist with device reviews but ${OperatingSystem} seems a bit too old for this.${NC}\n"
echo -e "Press [ctrl]-[c] to stop or ${BOLD}[enter]${NC} to continue.\c"
read
else
echo -e "${LRED}${BOLD}WARNING: This tool is meant to run only on recent Debian, Fedora, Ubuntu or Rocky Linux distros.${NC}\n"
echo -e "When executed on ${BOLD}${OperatingSystem}${NC} results might be partially meaningless.\nPlease see https://github.com/ThomasKaiser/sbc-bench/issues/81 for reasons.\n\nPress [ctrl]-[c] to stop or ${BOLD}[enter]${NC} to continue.\c"
read
fi
fi
;;
esac
} # CheckOSRelease
GetOSRelease() {
# try to get human friendly OS release name
[ "X${UBUNTU_CODENAME}" = "X" ] || UbuntuSuffix=" (${UBUNTU_CODENAME})"
OS="$(hostnamectl 2>/dev/null | awk -F": " '/Operating System:/ {print $2}')"
if [ "X${OS}" = "X" ] && [ "X${PRETTY_NAME}" != "X" ]; then
OS="${PRETTY_NAME}"
fi
case "${OS}" in
Armbian*|"Orange Pi"*)
# After replacing Canonical's advertising behaviour with own advertisings
# (https://github.com/armbian/build/pull/4303) the distro clowns over at
# Armbian now even start to manipulate base files of the operating systems
# their images base on most probably to fool their users into believing Armbian
# would be an operating system just like Debian or Ubuntu instead of just a
# build system. They simply overwrite the PRETTY_NAME definition in Debian's
# and Ubuntu's /etc/os-release file with some nonsense that will break certain
# 3rd party installation routines and confuse users. But that's what you get
# when a project is driven by 'ignorance and stupidity'. The fix to restore
# the distro's base-files package doesn't work any more since Armbian hobbyists
# once again replace distro packages with their own.
grep -q "${UBUNTU_CODENAME:-sucks}" <<<"${OS}" && echo "Ubuntu ${VERSION} tampered by ${OS}" || echo "Debian ${VERSION} tampered by ${OS}"
;;
"")
echo "n/a"
;;
*)
grep -q -i Gentoo <<<"${OS}" && read OS &2
exit 1
fi
export TempDir
# Create temporary files
TempLog="${TempDir}/temp.log"
ResultLog="${TempDir}/results.log"
MonitorLog="${TempDir}/monitor.log"
touch "${TempLog}" "${ResultLog}" "${MonitorLog}"
# delete $TempDir by default but not if in extensive mode:
[ "X${MODE}" = "Xextensive" ] || trap 'rm -rf "${TempDir}" ; exit 0' 0
} # CreateTempDir
CheckLoadAndDmesg() {
# Check if kernel ring buffer contains boot messages. These help identifying HW.
DMESG="$(dmesg | grep -E "Linux|pvtm|rockchip-dmc|rockchip-cpuinfo|Amlogic Meson|sun50i|pcie|mmc|leakage")"
grep -q -E '] Booting Linux|] Linux version ' <<<"${DMESG}"
case $? in
1)
grep -q "sunxi" <<<"${DMESG}"
IsAllwinner=$?
grep -q -E "AuthenticAMD|GenuineIntel" <<<"${ProcCPU}"
IsX86=$?
if [ "X${MODE}" != "Xunattended" ] && [ ${IsAllwinner} -ne 0 ] && [ ${IsX86} -ne 0 ]; then
# print warning on other platforms than Allwinner/x86 and if MODE != unattended
echo -e "${LRED}${BOLD}WARNING: dmesg output does not contain early boot messages which\nhelp in identifying hardware details.${NC}\n"
echo -e "It is recommended to reboot now and then execute the benchmarks.\nPress ${BOLD}[ctrl]-[c]${NC} to stop or ${BOLD}[enter]${NC} to continue.\c"
read
fi
;;
esac
# check for CPU cores being offline
[ -z "${LSCPU}" ] && LSCPU="$(lscpu)"
OfflineCores=$(awk -F" " '/^Off-line CPU/ {print $4}' <<<"${LSCPU}")
if [ "X${OfflineCores}" != "X" ] && [ "X${MODE}" != "Xunattended" ]; then
echo -e "${LRED}${BOLD}WARNING: One or more CPU cores are offline: ${OfflineCores}${NC}\n"
echo -e "Press ${BOLD}[ctrl]-[c]${NC} to stop or ${BOLD}[enter]${NC} to continue.\c"
read
fi
# skip whole load check on systems with more than 63 cores.
CPUCores=$(awk -F" " '/^CPU...:/ {print $2}' <<<"${LSCPU}")
[ ${CPUCores} -gt 63 ] && return
# Only continue if average load is less than 0.1 or averaged CPU utilization is lower
# than 2.5% for 30 sec. Please note that average load on Linux is *not* the same as CPU
# utilization: https://www.brendangregg.com/blog/2017-08-08/linux-load-averages.html
# switch to performance cpufreq governor in standard operation modes since this helps
# lowering load and CPU utilization in less time
if [ -d /sys/devices/system/cpu/cpufreq/policy0 ] && [ "X${NOTUNING}" != "Xyes" ]; then
for Cluster in /sys/devices/system/cpu/cpufreq/policy? ; do
[[ -e "${Cluster}" ]] || break
[ -w ${Cluster}/scaling_governor ] && echo performance >${Cluster}/scaling_governor 2>/dev/null
done
fi
AvgLoad1Min=$(awk -F" " '{print $1*100}' < /proc/loadavg)
if [ $AvgLoad1Min -ge 10 ]; then
echo -e "\nAverage load and/or CPU utilization too high (too much background activity). Waiting...\n"
/bin/bash "${PathToMe}" -m 5 >"${TempDir}/wait-for-loadavg.log" &
MonitoringPID=$!
while [ $AvgLoad1Min -ge 10 ] && [ ${CPUSum:-100} -ge 10 ]; do
snore 5
CPUutilization="$(awk -F" " '/^[0-9]/ {print $4}' <"${TempDir}/wait-for-loadavg.log" | sed 's/%//' | tail -n6)"
LogLength=$(wc -l <<<"${CPUutilization}")
if [ ${LogLength} -gt 5 ]; then
CPUSum="$(awk '{s+=$1} END {printf "%.0f", s}' <<<"${CPUutilization}")"
else
CPUSum=100
fi
echo -e "Too busy for benchmarking:$(uptime), cpu: $(tail -n1 <<<"${CPUutilization}")%"
AvgLoad1Min=$(awk -F" " '{print $1*100}' < /proc/loadavg)
done
kill ${MonitoringPID}
fi
echo ""
} # CheckLoadAndDmesg
GetRelevantCPUClusters() {
# If all CPU cores are of same type then just check for NUMA nodes and ignore
# cpufreq settings or package IDs (server SoCs like Ampere Altra or NXP LX2160A
# show rather weird package IDs, see http://ix.io/4kiu or http://ix.io/4uaA)
# Try to handle special case of crappy S912 SoC consisting of 8 identical A53
# cores of which 4 are crippled (1 GHz vs. 1.4 GHz while the SoC's boot BLOB
# fakes 1.5 GHz for the latter)
# Also try to cope with big.LITTLE/DynamIQ SoC bring-up situations where cpufreq
# isn't working yet while all cores share same ID, see http://ix.io/4Bc8 for example.
local ClustersByCpufreqOrPackageIDs=($(GetCPUClusters))
if [ ${#ClusterConfigByCoreType[@]} -eq 1 ] && [ ${#ClustersByCpufreqOrPackageIDs[@]} -ne 2 ]; then
NumaNodes=$(awk -F" " '/^NUMA node[0-9]/ {print $4}' <<<"${LSCPU}" | cut -f1 -d'-' | cut -f1 -d',')
[ "X${NumaNodes}" = "X" ] && echo 0 || echo "${NumaNodes}"
elif [ ${#ClustersByCpufreqOrPackageIDs[@]} -lt ${#ClusterConfigByCoreType[@]} ] ; then
# SoC bring-up stage, different CPU clusters are not properly defined
echo "${ClusterConfigByCoreType[@]}"
else
echo "${ClustersByCpufreqOrPackageIDs[@]}"
fi
} # GetRelevantCPUClusters
GetCPUClusters() {
# try to report different CPU clusters. Cores of same type might be handled differently.
# For example on RK3588 with 4 x A55 and 4 x A76 the latter are two clusters behaving
# differently wrt clockspeeds due to PVTM (see below at GetCoreClusters function
# that reports all cores of same type as single cluster)
if [ "X${VirtWhat}" != "X" ] && [ "X${VirtWhat}" != "Xnone" ]; then
# in virtualized environments we only check cpu0
echo "0"
else
case ${CPUArchitecture} in
aarch*|arm*)
if [ -d /sys/devices/system/cpu/cpufreq/policy0 ]; then
ls -ld /sys/devices/system/cpu/cpufreq/policy? | awk -F"policy" '{print $2}'
else
# check for different CPU types based on package ids. This allows to test through
# different cores even on systems with no cpufreq support.
for PKG_ID in $(cat /sys/devices/system/cpu/cpu*/topology/physical_package_id | sort | uniq); do
dirname -- $(dirname -- $(grep "^${PKG_ID}$" /sys/devices/system/cpu/cpu*/topology/physical_package_id | head -n1)) | tr -d -c '[:digit:]'
echo " "
done
fi
;;
x86_64)
Getx86ClusterDetails
;;
*)
# check for different package ids and use if existent otherwise treat all
# CPU cores as identical
if [ -f /sys/devices/system/cpu/cpu0/topology/physical_package_id ]; then
CountOfPackageIDs=$(sort /sys/devices/system/cpu/cpu*/topology/physical_package_id | uniq | wc -l)
if [ ${CountOfPackageIDs} -gt 1 ]; then
for PKG_ID in $(cat /sys/devices/system/cpu/cpu*/topology/physical_package_id | sort | uniq); do
dirname -- $(dirname -- $(grep "^${PKG_ID}$" /sys/devices/system/cpu/cpu*/topology/physical_package_id | head -n1)) | tr -d -c '[:digit:]'
echo " "
done
else
echo "0"
fi
else
echo "0"
fi
;;
esac
fi
} # GetCPUClusters
GetCoreClusters() {
# function to determine clusters by CPU core type used by MODE=extensive
# and Geekbench mode
#
# With x86 we rely on name based cluster detection while on ARM and other
# platforms we 'bundle' CPU core types by occurence:
#
# Amlogic S912 for example contains 2 quad-core A53 clusters with different
# cpufreq scaling properties but it's just 8 boring A53 and no big.LITTLE
# so there's no reason to treat S912 as '2 clusters CPU'.
#
# RK3588 for example consists of 4 x A55 cores and 4 x A76 but the latter
# are handled as two different clusters sharing same properties except
# clockspeed and throttling differences for a reason called PVTM:
# https://github.com/ThomasKaiser/Knowledge/blob/master/articles/Quick_Preview_of_ROCK_5B.md#pvtm
if [ "${CPUArchitecture}" = "x86_64" ]; then
Getx86ClusterDetails
else
local i
for i in $(seq 0 $(( ${CPUCores} - 1 )) ) ; do
ThisCore="$(GetCPUInfo $i)"
if [ "X${ThisCore}" != "X${LastCore}" ]; then
echo "${i}"
LastCore="${ThisCore}"
fi
done
fi
} # GetCoreClusters
Getx86ClusterDetails() {
# Since they can't be differentiated by either CPU ID or physical_package_id get
# Alder/Raptor/Meteor Lake E/P core clusters from ark.intel.com. HFI might be an option
# in the future but only with most recent kernels: https://docs.kernel.org/x86/intel-hfi.html
# Fortunately cache sizes do differ between E/P cores and with ACPI correctly set up
# /sys/devices/system/cpu/cpu*/acpi_cppc/nominal_perf should differ as well. The SKU
# differentiation of these hybrid CPU models follow this scheme:
# https://gist.github.com/ThomasKaiser/91ce41d44da14b577b3681bd09075a03
# Check amount of available CPU cores first and whether virtualization has been detected
# since when running in a virtualized environment it doesn't make sense trying to
# distinguish between efficiency and performance cores
if [ ${CPUCores} -eq 1 ] || [ "X${VirtWhat}" != "Xnone" ]; then
echo "0"
return
fi
# Check for hyper threading first since affecting size of P logical cluster (the 1st)
[ -f /sys/devices/system/cpu/smt/active ] && read HT "${TempDir}/Ecores"
echo "Sunny Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 2" || echo "0 1"
;;
i9-13900K|i9-13900KF|i9-13900F|i9-13900T|i9-13900KS|i9-13900HX|i9-13950HX|i9-13980HX|i9-13900|i9-13900TE|i9-13900E|i9-14900K|i9-14900KF|i9-14900|i9-14900HX|i9-14900T|i9-14900F)
# Raptor Lake, 8/16 cores, 32 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 16" || echo "0 8"
;;
i7-13850HX|i7-14700K|i7-14700KF|i7-14700|i7-14700F|i7-14700HX|i7-14700T)
# Raptor Lake, 8/12 cores, 28 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 16" || echo "0 8"
;;
i9-12900T|i9-12900TE|i9-12900HX|i9-12950HX|i9-12900KS|i9-12900E|i9-12900F|i9-12900|i9-12900K|i9-12900KF|i7-12850HX|i7-12800HX)
# Alder Lake, 8/8 cores, 24 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Golden Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 16" || echo "0 8"
;;
i7-13700K|i7-13700KF|i7-13700F|i7-13700T|i7-13700HX|i7-13700E|i7-13700|i7-13700TE|i7-14650HX)
# Raptor Lake, 8/8 cores, 24 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 16" || echo "0 8"
;;
i7-12700|i7-12700F|i7-12700E|i7-12700TE|i7-12700T|i7-12700K|i7-12700KF)
# Alder Lake, 8/4 cores, 20 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Golden Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 16" || echo "0 8"
;;
i9-12900HK|i9-12900H|i7-12700HL|i7-12800HL|i7-12650HX|i7-1280P|i7-12700H|i7-12800H|i7-12800HE)
# Alder Lake, 6/8 cores, 20 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Golden Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 12" || echo "0 6"
;;
i9-13900HK|i7-13700H|i5-13600K|i5-13600KF|i5-13500|i9-13905H|i9-13900H|i7-13800H|i7-1370P|i7-13705H|i7-13650HX|i5-13500HX|i5-13600HX|i7-1370PE|i7-13800HE|i5-13500T|i5-13500E|i5-13500TE|i5-13600|i5-13600T|i5-14600K|i5-14600KF|i5-14500|i5-14500HX|i5-14600|i7-1370PRE|i7-1375PRE|i7-13800HRE|i5-14600T|i5-14500T)
# Raptor Lake, 6/8 cores, 20 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 12" || echo "0 6"
;;
i7-1270PE|i7-1270P|i7-1260P|i5-12600HL|i5-12500HL|i5-12600HX|i5-1250PE|i5-1250P|i5-1240P|i5-12600HE|i5-12500H|i5-12600H)
# Alder Lake, 4/8 cores, 16 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Golden Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 8" || echo "0 4"
;;
i7-1360P|i5-13500H|i5-13600H|i5-1340P|i5-13505H|i5-1350P|i5-1340PE|i5-13600HE|i5-1350PE|i5-1350PRE|i5-13600HRE)
# Raptor Lake, 4/8 cores, 16 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 8" || echo "0 4"
;;
i7-1265UL|i7-1255UL|i7-1265UE|i7-1260U|i7-1250U|i7-1255U|i7-1265U|i5-1245UL|i5-1235UL|i5-1245UE|i5-1230U|i5-1240U|i5-1235U|i5-1245U|i3-1220P)
# Alder Lake, 2/8 cores, 12 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Golden Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 4" || echo "0 2"
;;
i7-1355U|i7-1365U|i5-1335U|i5-1334U|i5-1345U|i7-1365UE|i5-1335UE|i5-1345UE|"5 120U"*|"7 150U"*)
# Raptor Lake, 2/8 cores, 12 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 4" || echo "0 2"
;;
i7-12650H|i5-12600K|i5-12600KF)
# Alder Lake, 6/4 cores, 16 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Golden Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 12" || echo "0 6"
;;
i5-13400|i5-13400F|i7-13620H|i5-13450HX|i5-13400E|i5-13400T|i5-14400|i5-14400F|i5-14450HX|i5-14400T)
# Raptor Lake, 6/4 cores, 16 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 12" || echo "0 6"
;;
*"Ultra 7 155H"*|*"Ultra 7 165H"*|*"Ultra 7 1002H"*|*"Ultra 9 185H"*)
# Meteor Lake, 6/8/2 cores, 22 threads
echo "Crestmont" >"${TempDir}/Ecores"
echo "Redwood Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 12 20" || echo "0 6 14"
;;
i5-12450HX|i5-12450H|i3-12300HL|i3-1220PE|i3-12300HE)
# Alder Lake, 4/4 cores, 12 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Golden Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 8" || echo "0 4"
;;
i5-13420H|i3-1320PE|i3-13300HE|i3-1320PRE|i3-13300HRE)
# Raptor Lake, 4/4 cores, 12 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 8" || echo "0 4"
;;
*"Ultra 5 125H"*|*"Ultra 5 135H"*)
# Meteor Lake, 4/8/2 cores, 18 threads
echo "Crestmont" >"${TempDir}/Ecores"
echo "Redwood Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 8 16" || echo "0 4 12"
;;
i3-1215UL|i3-1215UE|i3-1210U|i3-1215U)
# Alder Lake, 2/4 cores, 8 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Golden Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 4" || echo "0 2"
;;
i3-1315U|i3-1315UE|i3-1315URE|"3 100U"*)
# Raptor Lake, 2/4 cores, 8 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 4" || echo "0 2"
;;
i5-1345URE|i7-1365URE|i7-1366URE)
# Raptor Lake, 2/8 cores, 12 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 4" || echo "0 2"
;;
*"Ultra 5 125U"*|*"Ultra 5 134U"*|*"Ultra 5 135U"*|*"Ultra 7 155U"*|*"Ultra 7 164U"*|*"Ultra 7 165U"*)
# Meteor Lake, 2/8/2 cores, 14 threads
echo "Crestmont" >"${TempDir}/Ecores"
echo "Redwood Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 4 12" || echo "0 2 10"
;;
*Gold*850*|*Celeron*730*)
# Alder Lake, 1/4 cores, 6 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Golden Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 2" || echo "0 1"
;;
i3-1305U|U300|U300E)
# Raptor Lake, 1/4 cores, 6 threads
echo "Gracemont" >"${TempDir}/Ecores"
echo "Raptor Cove" >"${TempDir}/Pcores"
[ ${HT} -eq 1 ] && echo "0 2" || echo "0 1"
;;
13100|13100E|13100F|13100T|13100TE|14100|14100F|14100T)
# Raptor Lake, 4/0 cores, 8 threads
echo "0"
;;
*)
# unknown CPU, try to check cache sizes since at least on currently known Intel
# CPUs efficiency and performance cores have differing cache sizes.
echo "Efficiency" >"${TempDir}/Ecores"
echo "Performance" >"${TempDir}/Pcores"
if [ -d /sys/devices/system/cpu/cpu0/cache ] ; then
local i
for i in $(seq 0 $(( ${CPUCores} - 1 )) ) ; do
ThisCache="$(find /sys/devices/system/cpu/cpu${i}/cache -name size 2>/dev/null | sort -V | while read ; do echo -n "$(cat "${REPLY}")" ; done)"
if [ "X${ThisCache}" != "X${LastCache}" ]; then
echo "${i}"
LastCache="${ThisCache}"
fi
done
else
echo "0"
fi
;;
esac
} # Getx86ClusterDetails
ParseOPPTables() {
# TODO: parse/process opp-peak-kBps values
[ -d /sys/firmware/devicetree/base ] && DVFS="$(for OPPTable in /sys/firmware/devicetree/base/*opp* ; do grep -q -E -- "opp-|opp_|-table|_table" <<<"${OPPTable}" && echo "${OPPTable}"; done | sort -n)"
if [ "X${DVFS}" = "X" ]; then
return
fi
echo -e "\n##########################################################################"
# report I2C accessible microvolt readings first
Measurements="$(find /sys/devices/platform -name microvolts 2>/dev/null | grep -i i2c)"
if [ "X${Measurements}" != "X" ]; then
echo ""
echo "${Measurements}" | while read ; do
if [ -f "${REPLY%/*}/name" ]; then
read NodeName <"${REPLY%/*}/name"
case ${NodeName} in
*cpu*|*gpu*|*center*|*npu*|*ddr*|*dmc*)
# try to report only performance relevant supply voltage readings
MicroVolts=$(awk '{printf ("%0.0f",$1/1000); }' <"${REPLY}")
if [ -f "${REPLY%/*}/max_microvolts" ]; then
MaxMicroVolts=$(awk '{printf ("%0.0f",$1/1000); }' <"${REPLY%/*}/max_microvolts")
echo -e " ${NodeName}: ${MicroVolts} mV (${MaxMicroVolts} mV max)"
else
echo -e " ${NodeName}: ${MicroVolts} mV"
fi
;;
esac
fi
done | sort -n
fi
for OPPTable in ${DVFS}; do
read OPPTableName <"${OPPTable}/name"
echo -e "\n ${OPPTableName}:"
find "${OPPTable}" -type d -name "opp*" 2>/dev/null | grep "${OPPTableName}/" | sort | while read ; do
[ -f "${REPLY}/opp-hz" ] && OPPHz="$(printf "%d\n" 0x$(od --endian=big -x <"${REPLY}/opp-hz" | cut -c9- | tr -d ' ') | awk '{printf ("%0.0f",$1/1000000); }')" || OPPHz=""
if [ -f "${REPLY}/opp-microvolt" ]; then
OPPVolt="$(printf "%d\n" 0x$(od --endian=big -x <"${REPLY}/opp-microvolt" | cut -c9- | tr -d ' ' | cut -c-8 | head -n1))"
if [ -f "${REPLY}/opp-supported-hw" ]; then
OPPSupportedHW="$(od --endian=big -x <"${REPLY}/opp-supported-hw" | cut -c9- | sed 's/0000 //g' | head -n1)"
[ "X${OPPHz}" != "X" ] && printf "%10s MHz %8s mV (%s)\n" ${OPPHz} $(awk '{printf ("%0.1f",$1/1000); }' <<<"${OPPVolt}") "${OPPSupportedHW}"
else
[ "X${OPPHz}" != "X" ] && printf "%10s MHz %8s mV\n" ${OPPHz} $(awk '{printf ("%0.1f",$1/1000); }' <<<"${OPPVolt}")
fi
elif [ -f "${REPLY}/opp-microvolt-speed0" ]; then
printf "%10s MHz " ${OPPHz}
for SpeedBin in $(ls "${REPLY}"/opp-microvolt-speed* | sort -n) ; do
OPPVolt="$(printf "%d\n" 0x$(od --endian=big -x <"${SpeedBin}" | cut -c9- | tr -d ' ' | cut -c-8 | head -n1))"
[ "X${OPPHz}" != "X" ] && printf "%8s mV" $(awk '{printf ("%0.1f",$1/1000); }' <<<"${OPPVolt}")
done
echo ""
else
printf "%10s MHz -\n" ${OPPHz}
fi
done | sort -n
done
} # ParseOPPTables
ParseRawOPPTables() {
DVFS="$(for OPPTable in /sys/firmware/devicetree/base/*opp* ; do grep -q -E -- "opp-|opp_|-table|_table" <<<"${OPPTable}" && echo "${OPPTable}"; done | sort -n)"
if [ "X${DVFS}" = "X" ]; then
return
fi
echo -e "\n##########################################################################"
for OPPTable in ${DVFS}; do
ls -laR "${OPPTable}"
echo ""
find "${OPPTable}" -type f 2>/dev/null | while read file ; do
echo -e "${file}\t$(od --endian=big -x <"${file}" | cut -c9- | tr -d ' ')"
done
done
} # ParseRawOPPTables
BasicSetup() {
# set cpufreq governor based on $1 (defaults to ondemand if not provided)
if [ "$1" != "nochange" ]; then
if [ -d /sys/devices/system/cpu/cpufreq/policy0 ]; then
for Cluster in /sys/devices/system/cpu/cpufreq/policy? ; do
[[ -e "${Cluster}" ]] || break
[ -w ${Cluster}/scaling_governor ] && echo ${1:-ondemand} >${Cluster}/scaling_governor 2>/dev/null
done
fi
fi
# detect environment
LSCPU="$(lscpu)"
CPUArchitecture="$(awk -F" " '/^Architecture/ {print $2}' <<<"${LSCPU}")"
X86CPUName="$(sed 's/ \{1,\}/ /g' <<<"${LSCPU}" | awk -F": " '/^Model name/ {print $2}' | sed -e 's/1.th Gen //' -e 's/.th Gen //' -e 's/Core(TM) //' -e 's/ Processor//' -e 's/Intel(R) Xeon(R) CPU //' -e 's/Intel(R) //' -e 's/(R)//' -e 's/CPU //' -e 's/ 0 @/ @/' -e 's/AMD //' -e 's/Authentic //' -e 's/ with .*//')"
VirtWhat="$(systemd-detect-virt 2>/dev/null)"
RK_NVMEM_FILE="$(find /sys/bus/nvmem/devices/rockchip*/* -name nvmem 2>/dev/null | head -n1)"
[ -r "${RK_NVMEM_FILE}" ] && RK_NVMEM="$(hexdump -C <"${RK_NVMEM_FILE}" 2>/dev/null | grep -E "52 4b |52 56 " | head -n1)"
AW_NVMEM_FILE="/sys/bus/nvmem/devices/sunxi-sid0/nvmem"
[ -r "${AW_NVMEM_FILE}" ] && AW_NVMEM="$(hexdump -C <"${AW_NVMEM_FILE}" 2>/dev/null | head -n1)"
CPUFetchInfo="$(GrabCPUFetchInfo)"
[[ ${CPUFetchInfo} != *Unknown* ]] && CPUFetchGuess="$(awk -F": " '/SoC:/ {print $2}' <<<"${CPUFetchInfo}" | sed "s/^[ \t]*//")"
CPUCores=$(awk -F" " '/^CPU...:/ {print $2}' <<<"${LSCPU}")
# Might not work with RISC-V on old kernels, see
# https://github.com/ThomasKaiser/sbc-bench/issues/46
[ ${CPUCores} -eq 0 ] && CPUCores=$(grep -c '^hart' <<< "${ProcCPU}")
# try to bring CPU cores back online that were sent offline when idle
for i in $(seq 0 $(( ${CPUCores} - 1 )) ); do
taskset -c ${i} echo "" >/dev/null 2>&1
done
# try to derive DeviceName from device-tree if available
if [ -f /proc/device-tree/model ]; then
read DeviceName /dev/null | tr -d '[:space:]' | \
grep -q 'c0000000000000000000000040' && BCM2711="B0" || BCM2711="C0 or later"
DeviceName="$(sed 's/Raspberry Pi/RPi/' <<<"${DeviceName}") / BCM2711 Rev ${BCM2711}"
;;
"nexell soc")
# FriendlyELEC SBC based on Nexell S5P6818, on Armbian use BOARD_NAME
if [ -f /etc/armbian-release ]; then
. /etc/armbian-release
DeviceName="${BOARD_NAME}"
fi
;;
"FriendlyARM "*)
# Remove vendor string since outdated anyway
DeviceName="$(sed 's/FriendlyARM //' <<<"${DeviceName}")"
;;
esac
if [ "${VirtWhat}" = "wsl" ]; then
# Differentiate between WSL and WSL2 VMs
uname -r | grep -q WSL2 && DeviceName="${HostName} WSL2 VM" || DeviceName="${HostName} WSL VM"
elif [ ! -f /proc/device-tree/model ] && [ "X${DMISysVendor}" != "X" ] && [ -z "${DeviceName}" ]; then
# if there's no device-tree support but DMI info available use this for DeviceName
DeviceName="${DMISysVendor} ${DMIProductName} ${DMIProductVersion}"
fi
;;
x86*|i686)
# if no DeviceName is already assigned then try to construct it from DMI data
if [ -z "${DeviceName}" ]; then
if [ "${VirtWhat}" = "wsl" ]; then
uname -r | grep -q WSL2 && DeviceName="${X86CPUName} WSL2 VM" || DeviceName="${X86CPUName} WSL VM"
elif [ "X${VirtWhat}" = "X" ] || [ "X${VirtWhat}" = "Xnone" ]; then
# seems bare metal, but we double check
grep -q -i "Virtual" <<<"${DMIProductName}" && \
DeviceName="${DMISysVendor} ${DMIProductName} ${DMIProductVersion} VM" || \
DeviceName="${DMISysVendor} ${DMIProductName} ${DMIProductVersion} / ${X86CPUName}"
else
# seems virtualized and not already caught by DMISysVendor case construct
DeviceName="${DMISysVendor} ${DMIProductName} ${DMIProductVersion} ${VirtWhat} VM"
fi
fi
;;
mips*|loongarch*)
# do nothing here and use what /proc/device-tree/model provides
:
;;
*)
echo "${CPUArchitecture} not supported. Aborting." >&2
exit 1
;;
esac
ClusterConfigByCoreType=($(GetCoreClusters))
ClusterConfig=($(GetRelevantCPUClusters))
if [ -f "${TempDir}/Pcores" ]; then
read PCores <"${TempDir}/Pcores"
read ECores <"${TempDir}/Ecores"
fi
[ ${#ClusterConfig[@]} -eq 0 ] && ClusterConfig=(0)
} # BasicSetup
CheckMissingPackages() {
# check for missing packages and construct installation string with list of needed packages
case ${OperatingSystem,,} in
"arch linux"*|*manjaro*)
# Arch/Manjaro
command -v pacman >/dev/null 2>&1
if [ $? -eq 0 ]; then
# Arch/Manjaro: check whether packages need updates and suggest to run a
# 'pacman -Syu' manually before continuing. Simply installing packages on
# a highly outdated Arch install ended with all programs refusing to run
# due to 'error while loading shared libraries: libcrypto.so.1.1: cannot
# open shared object file: No such file or directory'
packages="$(pacman -S -u --print-format %n,%v | sort -n)"
count_of_packages=$(wc -l <<<"${packages}")
if [ ${count_of_packages:-0} -gt 1 ]; then
echo -e "\x08Aborting. ${count_of_packages} packages need updates first (or reboot due to updated kernel):\n\n${packages}\n\nPlease run \"pacman -Syu\" before trying again." >&2
echo "stop"
return 1
fi
if [[ $(pacman -Q linux | cut -d" " -f2) > $(uname -r) ]]; then
echo -e "\x08Aborting. Kernel version mismatch: $(pacman -Q linux | cut -d" " -f2) installed but $(uname -r | cut -f1 -d"-") running\nPlease reboot before trying again." >&2
echo "stop"
return 1
fi
echo -e "pacman --noconfirm -Syq \c"
command -v gcc >/dev/null 2>&1 || echo -e "gcc make base-devel \c"
command -v sensors >/dev/null 2>&1
if [ $? -ne 0 ]; then
# package name seems to have changed so try both variants
pacman -Si lm_sensors >/dev/null 2>&1 && echo -e "lm_sensors \c"
pacman -Si lm-sensors >/dev/null 2>&1 && echo -e "lm-sensors \c"
fi
else
echo -e "echo \c"
fi
;;
*fedora*)
command -v dnf >/dev/null 2>&1
if [ $? -eq 0 ]; then
# Fedora
packages="$(dnf check-update 2>/dev/null | grep "[0-9]\.")"
count_of_packages=$(wc -l <<<"${packages}")
if [ ${count_of_packages:-0} -gt 1 ]; then
echo -e "\x08Aborting. ${count_of_packages} packages need updates first (or reboot due to updated kernel):\n\n${packages}\n\nPlease run \"dnf update -y\" before trying again." >&2
echo "stop"
return 1
fi
echo -e "dnf install -q -y \c"
command -v gcc >/dev/null 2>&1 || dnf group install -y -q "C Development Tools and Libraries" >/dev/null 2>"${TempDir}/packages.log"
command -v sensors >/dev/null 2>&1 || echo -e "lm_sensors \c"
command -v lsb_release >/dev/null 2>&1 || echo -e "redhat-lsb-core \c"
else
echo -e "echo \c"
fi
;;
*"rocky linux"*)
command -v dnf >/dev/null 2>&1
if [ $? -eq 0 ]; then
# Rocky Linux
packages="$(dnf check-update 2>/dev/null | grep "[0-9]\.")"
count_of_packages=$(wc -l <<<"${packages}")
if [ ${count_of_packages:-0} -gt 1 ]; then
echo -e "\x08Aborting. ${count_of_packages} packages need updates first (or reboot due to updated kernel):\n\n${packages}\n\nPlease run \"dnf update -y\" before trying again." >&2
echo "stop"
return 1
fi
# check whether "Extra Packages for Enterprise Linux" repo needs to be activated
dnf repolist | grep -q ^epel || dnf install -q -y epel-release
echo -e "dnf install -q -y \c"
command -v gcc >/dev/null 2>&1 || dnf group install -y -q "Development Tools" >/dev/null 2>"${TempDir}/packages.log"
command -v sensors >/dev/null 2>&1 || echo -e "lm_sensors \c"
else
echo -e "echo \c"
fi
;;
*suse*)
command -v zypper >/dev/null 2>&1
if [ $? -eq 0 ]; then
# Some Suse variant with zypper present
echo -e "zypper install -y \c"
command -v gcc >/dev/null 2>&1 || zypper install -y -t pattern devel_basis >/dev/null 2>"${TempDir}/packages.log"
command -v sensors >/dev/null 2>&1 || echo -e "sensors \c"
else
echo -e "echo \c"
fi
;;
*)
# other distro, let's check for apt
command -v apt-get >/dev/null 2>&1
if [ $? -eq 0 ]; then
# Debian/Ubuntu/Linux Mint
echo -e "apt-get -f -qq -y install \c"
for dpkg in gcc make build-essential lm-sensors ; do
dpkg -s ${dpkg} >/dev/null 2>&1 || echo -e "${dpkg} \c"
done
command -v powercap-info >/dev/null 2>&1
[ $? -ne 0 ] && [ -d /sys/devices/virtual/powercap ] && echo -e "powercap-utils \c"
# Check for hexdump only on Rockchip and Allwinner platforms where NVMEM is
# readable. In Debian based distros the tool is part of bsdmainutils package,
# no idea about other distros.
if [ -r "${RK_NVMEM_FILE}" ] || [ -r "${AW_NVMEM_FILE}" ]; then
command -v hexdump >/dev/null 2>&1 || echo -e "bsdmainutils \c"
fi
else
echo -e "echo \c"
fi
;;
esac
command -v curl >/dev/null 2>&1 || echo -e "curl \c"
command -v dmidecode >/dev/null 2>&1 || echo -e "dmidecode \c"
command -v git >/dev/null 2>&1 || echo -e "git \c"
command -v iostat >/dev/null 2>&1 || echo -e "sysstat \c"
command -v lshw >/dev/null 2>&1 || echo -e "lshw \c"
command -v openssl >/dev/null 2>&1 || echo -e "openssl \c"
command -v uptime >/dev/null 2>&1 || echo -e "procps \c"
command -v links >/dev/null 2>&1 || echo -e "links \c"
if [ "${ExecuteStockfish}" = "yes" ]; then
command -v g++ >/dev/null 2>&1 || echo -e "g++ \c"
fi
if [ "X${MODE}" = "Xextensive" ]; then
command -v decode-dimms >/dev/null 2>&1 || echo -e "i2c-tools \c"
fi
if [ "X${REVIEWMODE}" = "Xtrue" ]; then
command -v lspci >/dev/null 2>&1 || echo -e "pciutils \c"
command -v lsusb >/dev/null 2>&1 || echo -e "usbutils \c"
command -v mmc >/dev/null 2>&1
if [ $? -ne 0 ]; then
apt-cache show mmc-utils >/dev/null 2>&1 && echo -e "mmc-utils \c"
fi
command -v smartctl >/dev/null 2>&1 || echo -e "smartmontools \c"
command -v udevadm >/dev/null 2>&1 || echo -e "udev \c"
case ${OperatingSystem,,} in
"arch linux"*|*manjaro*)
command -v stress >/dev/null 2>&1 || echo -e "stress \c"
;;
*)
command -v stress-ng >/dev/null 2>&1 || echo -e "stress-ng \c"
;;
esac
fi
} # CheckMissingPackages
CheckPTS() {
command -v phoronix-test-suite >/dev/null 2>&1
if [ $? -ne 0 ]; then
command -v php >/dev/null 2>&1
if [ $? -eq 0 ]; then
echo "Neither phoronix-test-suite nor php found in \$PATH."
else
echo "No phoronix-test-suite found in \$PATH."
fi
echo -e "Please install PTS manually from http://phoronix-test-suite.com/?k=downloads\nThen execute \"phoronix-test-suite batch-setup\"."
exit 1
fi
} # CheckPTS
CheckGB() {
# try to download most recent GB version for the platform and check prerequisits
TotalMem=$(free | awk -F" " '/^Mem: / {print $7}' | tail -n1)
if [ ${TotalMem:-1200000} -lt 1200000 ]; then
echo -e "\x08\x08 \n${LRED}${BOLD}WARNING: This machine is low on memory. Likely Geekbench will be oom-killed${NC}\n"
echo -e "Press [ctrl]-[c] to stop or ${BOLD}[enter]${NC} to continue.\c"
read
fi
# get latest version string from blog, new major versions are advertised as e.g.
# 'Geekbench 6' and not 'Geekbench 6.0' which makes version string guessing a bit
# tricky
GBBlogContents="$(links -dump "https://www.geekbench.com/blog/")"
NewMajorVersion="$(grep "Geekbench [567]$" <<<"${GBBlogContents}" | head -n1 | awk -F" " '{print $2}').0"
LatestMinorVersion="$(awk -F" " '/ Geekbench [567].[0-9]/ {print $2}' <<<"${GBBlogContents}" | head -n1)"
GBVersion="$(echo -e "${NewMajorVersion}\n${LatestMinorVersion}" | sort -V | tail -n1)"
case ${GBVersion} in
7*)
echo -e "\x08\x08 No support for Geekbench ${GBVersion} yet. Exiting"
exit 1
;;
5*|6*)
:
;;
*)
echo -e "\x08\x08 Not able to determine Geekbench version. Exiting"
exit 1
;;
esac
# check platform since download URLs differ:
# RISC-V: https://cdn.geekbench.com/Geekbench-5.4.4-LinuxRISCVPreview.tar.gz
# 404
# ARM: https://cdn.geekbench.com/Geekbench-5.4.4-LinuxARMPreview.tar.gz
# https://cdn.geekbench.com/Geekbench-6.0.0-LinuxARMPreview.tar.gz
# x86: https://cdn.geekbench.com/Geekbench-5.4.4-Linux.tar.gz
# https://cdn.geekbench.com/Geekbench-6.0.0-Linux.tar.gz
ARCH=$(dpkg --print-architecture 2>/dev/null) || \
ARCH=$(awk -F'"' '/^CARCH/ {print $2}' /etc/makepkg.conf 2>/dev/null) || \
ARCH="$(uname -m)"
case $ARCH in
armhf|armv7l)
# 32-bit ARM: here the geekbench5 binary fails to launch the ARMv7 binary
DLSuffix="LinuxARMPreview"
GBBinaryName="geekbench_armv7"
FirstOfflineCPU=1
GBVersion="5.5" # latest version for this platform
;;
arm*|aarch64)
DLSuffix="LinuxARMPreview"
GBBinaryName="geekbench${GBVersion:0:1}"
FirstOfflineCPU=0
;;
riscv64)
DLSuffix="LinuxRISCVPreview"
GBBinaryName="geekbench_riscv64"
FirstOfflineCPU=1
;;
amd64|*x86*)
DLSuffix="Linux"
GBBinaryName="geekbench${GBVersion:0:1}"
FirstOfflineCPU=1
;;
*)
echo -e "\x08\x08 Not able to execute Geekbench on ${ARCH}. Exiting"
exit 1
;;
esac
cd "${InstallLocation}" || exit 1
for i in $(seq 9 -1 0); do
GBDir="Geekbench-${GBVersion}.${i}-${DLSuffix}"
GBBinary="${InstallLocation}/${GBDir}/${GBBinaryName}"
# if there's already an executable stop here
[ -x "${GBBinary}" ] && return
# try to download version ${GBVersion}.${i}
TryoutURL="https://cdn.geekbench.com/${GBDir}.tar.gz"
Downloadfile="${InstallLocation}/${GBDir}.tar.gz"
[ -f "${Downloadfile}" ] || curl -f -O -L -s -q --connect-timeout 10 "${TryoutURL}" 2>/dev/null
if [ -s "${Downloadfile}" ]; then
# tarball could be downloaded, proceed with untar/remove
echo -e "\x08\x08\x08, geekbench ${GBVersion}.${i}...\c"
tar xf "${Downloadfile}"
rm "${Downloadfile}"
break
elif [ -f "${Downloadfile}" ]; then
rm "${Downloadfile}"
fi
done
# create symlink with version number, to keep different major versions on same install
ln -sf "${GBBinary}" "/usr/local/bin/geekbench${GBVersion:0:1}"
} # CheckGB
InstallPrerequisits() {
case ${MODE} in
gb)
echo -e "sbc-bench v${Version} taking care of Geekbench\n\nInstalling needed tools: \c"
;;
pts)
echo -e "sbc-bench v${Version} taking care of Phoronix Test Suite\n\nInstalling needed tools: \c"
;;
*)
echo -e "sbc-bench v${Version}\n\nInstalling needed tools: \c"
;;
esac
# Determine missing packages and install them with a single command
MissingPackages="$(CheckMissingPackages | sed 's/\ $//')"
[ "X${MissingPackages}" = "Xstop" ] && exit 1
[ "X${UBUNTU_CODENAME}" != "X" ] && UBUNTU_MAJOR_VERSION="${VERSION_ID%.*}"
if [ ${UBUNTU_MAJOR_VERSION:-0} -lt 24 ]; then
# On Ubuntus prior to 24.04 and all other distros search for p7zip in $PATH and
# if not found add p7zip to list of packages to be installed
SevenZip=$(command -v 7za || command -v 7zr)
if [ -z "${SevenZip}" ]; then
MissingPackages="${MissingPackages} p7zip"
fi
fi
# add universe repository if needed and install all necessary packages in a batch
case "${MissingPackages}" in
*install|*"install -q -y"|*"install -y"|*"Syq")
# no packages to be installed
echo -e "\x08distro packages already installed...\c"
;;
*)
echo -e "\x08\x08 ${MissingPackages}...\c"
[ -r /etc/apt/sources.list ] && grep -v '^#' /etc/apt/sources.list | grep -q universe || add-apt-repository -y universe >/dev/null 2>&1
${MissingPackages} >/dev/null 2>>"${TempDir}/packages.log"
if [ $? -eq 100 ]; then
# apt cache might be too outdated so update and try again
echo -e "\x08\x08 Updating APT cache...\c"
AptMessage="$(apt update 2>&1)"
MissingPubKeys="$(tr "N" "\n" <<<"${AptMessage}" | awk -F" " '/^O_PUBKEY/ {print $2}' | sort | uniq | tr "\n" " ")"
if [ "X${MissingPubKeys}" != "X" ]; then
# try to add missing public keys and retry (Ubuntu's key server also has Debian keys)
echo -e "\x08\x08 Try to add missing public keys ${MissingPubKeys}...\c"
apt-key adv --keyserver keyserver.ubuntu.com --recv-keys ${MissingPubKeys} >/dev/null 2>&1
echo -e "\x08\x08 Updating APT cache again...\c"
apt update >/dev/null 2>&1
echo -e "\x08\x08 Installing packages...\c"
fi
${MissingPackages} >/dev/null 2>&1
elif [ $? -ne 0 ] && [ -s "${TempDir}/packages.log" ]; then
echo -e "\x08\x08 Something went wrong:\n"
cat "${TempDir}/packages.log"
echo -e "\nTrying to continue...\c"
fi
;;
esac
if [ ${UBUNTU_MAJOR_VERSION:-0} -lt 24 ]; then
# On Ubuntus prior to 24.04 and all other distros search for p7zip in $PATH
SevenZip=$(command -v 7za || command -v 7zr)
# Validate 7-zip version (only 16.02 allows for comparable scores with results from years ago)
if [ -x "${SevenZip}" ]; then
Output7Zip="$("${SevenZip}" lalala 2>&1)"
Valid7Zip="$(grep '^p7zip Version' <<<"${Output7Zip}" | head -n1 | awk -F" " '{print $3}')"
[ -z "${Valid7Zip}" ] && Valid7Zip="$(grep '^7-Zip ' <<<"${Output7Zip}" | head -n1 | awk -F" " '{print $3}')"
if [ "X${Valid7Zip}" != "X16.02" ]; then
# try to install/build p7zip 16.02 with Debian (security) patches applied. If this fails still
# use distro provided 7-zip binary (results validation will hint on problematic version later)
if [ ! -x "${InstallLocation}/p7zip/bin/7za" ]; then
grep -q "p7zip" <<<"${MissingPackages}" && echo -e "\x08\x08\x08 ${Valid7Zip}...\c"
InstallOldP7zip
fi
[ -x "${InstallLocation}/p7zip/bin/7za" ] && SevenZip="${InstallLocation}/p7zip/bin/7za"
fi
fi
else
# On Ubuntu 24.x onwards directly build/use p7zip 16.02 on our own
InstallOldP7zip
[ -x "${InstallLocation}/p7zip/bin/7za" ] && SevenZip="${InstallLocation}/p7zip/bin/7za"
fi
if [ -z "${SevenZip}" ]; then
echo -e "\x08\x08\x08 failed. ${LRED}${BOLD}No 7-zip binary found and could not be installed. Aborting${NC}" >&2
exit 1
fi
if [ "${PlotCpufreqOPPs}" = "yes" ]; then
command -v htmldoc >/dev/null 2>&1 || apt -f -qq -y --no-install-recommends install htmldoc >/dev/null 2>&1
command -v gnuplot >/dev/null 2>&1 || apt -f -qq -y --no-install-recommends install gnuplot-nox >/dev/null 2>&1
fi
# get/build tinymembench if not already there
[ -d "${InstallLocation}" ] || mkdir -p "${InstallLocation}"
if [ -f "${InstallLocation}/tinymembench/.git/config" ]; then
# exchange abandoned ssvb version with v0.4.9-nuumio
grep -q github.com/ssvb/tinymembench "${InstallLocation}/tinymembench/.git/config" && \
rm -rf "${InstallLocation}/tinymembench"
fi
if [ ! -x "${InstallLocation}"/tinymembench/tinymembench ]; then
echo -e "\x08\x08\x08, tinymembench...\c"
if [ -d "${InstallLocation}"/tinymembench ]; then
cd "${InstallLocation}"/tinymembench || exit 1
git pull >/dev/null 2>&1
else
cd "${InstallLocation}" || exit 1
git clone https://github.com/nuumio/tinymembench >/dev/null 2>&1
if [ $? -ne 0 ]; then
echo -e "\n\n${LRED}${BOLD}Temporary Github problem. Not able to download tinymembench. Please try again later.${NC}" >&2
exit 1
fi
cd tinymembench || exit 1
fi
make >/dev/null 2>&1
if [ ! -x "${InstallLocation}"/tinymembench/tinymembench ]; then
echo -e "${LRED}${BOLD}Not able to build necessary tools. Aborting.${NC}\nMost probably gcc and make packages are missing." >&2
exit 1
fi
fi
# get/build ramlat benchmark if not already built, rebuild if formerly compiled w/o GCC optimizations:
# https://www.cnx-software.com/2022/06/05/nanopi-r5s-preview-part-2-ubuntu-20-04-friendlycore/#comment-593141
if [ ! -x "${InstallLocation}"/ramspeed/ramlat ] || [ ! -f "${InstallLocation}"/ramspeed/Makefile ]; then
echo -e "\x08\x08\x08, ramlat...\c"
if [ ! -d "${InstallLocation}"/ramspeed ]; then
cd "${InstallLocation}" || exit 1 && git clone https://github.com/wtarreau/ramspeed >/dev/null 2>&1
if [ $? -ne 0 ]; then
echo -e "\n\n${LRED}${BOLD}Temporary Github problem. Not able to download ramspeed. Please try again later.${NC}" >&2
exit 1
fi
fi
[ -d "${InstallLocation}"/ramspeed ] && cd "${InstallLocation}"/ramspeed || exit 1 ; git pull >/dev/null 2>&1; make >/dev/null 2>&1
fi
# get/build mhz if not already there
if [ ! -x "${InstallLocation}"/mhz/mhz ]; then
echo -e "\x08\x08\x08, mhz...\c"
cd "${InstallLocation}" || exit 1
git clone https://github.com/wtarreau/mhz >/dev/null 2>&1
if [ $? -ne 0 ]; then
echo -e "\n\n${LRED}${BOLD}Temporary Github problem. Not able to download mhz. Please try again later.${NC}" >&2
exit 1
fi
cd mhz || exit 1
make >/dev/null 2>&1
if [ ! -x "${InstallLocation}"/mhz/mhz ]; then
echo -e "${LRED}${BOLD}Not able to build necessary tools. Aborting.${NC}\nMost probably gcc and make packages are missing." >&2
exit 1
fi
else
grep -q 'among 5 runs of the short loop' "${InstallLocation}"/mhz/mhz.c
if [ $? -ne 0 ]; then
# rebuild mhz due to https://github.com/wtarreau/mhz/commit/6620e45f41429afe577aa3bb80614ac3934afd82
echo -e "\x08\x08\x08, mhz...\c"
cd "${InstallLocation}/mhz" || exit 1
git pull >/dev/null 2>&1
make >/dev/null 2>&1
fi
fi
# get/build/update cpufetch if not already there
if [ -x "${InstallLocation}"/cpufetch/cpufetch ]; then
cd "${InstallLocation}/cpufetch" || exit 1
GitResult="$(git pull 2>/dev/null)"
if [[ ${GitResult} != *"up to date"* ]]; then
# always update cpufetch if something has changed on Github
echo -e "\x08\x08\x08, updating cpufetch...\c"
make >/dev/null 2>&1
fi
else
echo -e "\x08\x08\x08, cpufetch...\c"
cd "${InstallLocation}" || exit 1
git clone https://github.com/Dr-Noob/cpufetch >/dev/null 2>&1
if [ $? -ne 0 ]; then
echo -e "\n\n${LRED}${BOLD}Temporary Github problem. Not able to download cpufetch. Please try again later.${NC}" >&2
exit 1
fi
cd cpufetch || exit 1
make >/dev/null 2>&1
if [ ! -x "${InstallLocation}"/cpufetch/cpufetch ]; then
echo -e "${LRED}${BOLD}Not able to build necessary tools. Aborting.${NC}\nMost probably gcc and make packages are missing." >&2
exit 1
fi
fi
# if called with -s or with MODE=extensive we also use stockfish
if [ "${ExecuteStockfish}" = "yes" ] || [ "X${MODE}" = "Xextensive" ]; then
InstallStockfish && DownloadNeuralNet
fi
# if called with -c or as 'sbc-bench neon' or with MODE=extensive we also use cpuminer
if [ "${ExecuteCpuminer}" = "yes" ] || [ "X${MODE}" = "Xextensive" ]; then
InstallCpuminer
fi
} # InstallPrerequisits
InstallOldP7zip() {
if [ ! -x "${InstallLocation}/p7zip/bin/7za" ]; then
echo -e "\x08\x08\x08, p7zip 16.02...\c"
cd "${InstallLocation}" || exit 1
if [ -d "${InstallLocation}/p7zip/.git" ]; then
cd "${InstallLocation}/p7zip/" || exit 1 && git pull >/dev/null 2>&1
else
git clone https://github.com/ThomasKaiser/p7zip >/dev/null 2>&1
fi
if [ $? -ne 0 ]; then
echo -e "\n\n${LRED}${BOLD}Temporary Github problem. Not able to download p7zip 16.02. Please try again later.${NC}" >&2
exit 1
fi
cd "${InstallLocation}/p7zip/" || exit 1 && make clean >/dev/null 2>&1 && make -j${CPUCores} INSTALL=install CC=gcc CXX=g++ OPTFLAGS='-O3' >/dev/null 2>&1
fi
if [ ! -x "${InstallLocation}"/p7zip/bin/7za ]; then
echo -e "\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08 (can't build p7zip 16.02) \c"
fi
} # InstallOldP7zip
InstallCpuminer() {
# get/(re)build cpuminer if not already there or based on tkinjo1985 version
[ -f "${InstallLocation}"/cpuminer-multi/.git/config ] && grep -q tkinjo1985 "${InstallLocation}"/cpuminer-multi/.git/config >/dev/null 2>&1
if [ $? -eq 0 ]; then
# remove the old installation
rm -rf "${InstallLocation}"/cpuminer-multi
fi
if [ ! -x "${InstallLocation}"/cpuminer-multi/cpuminer ] && [ ! -f "${InstallLocation}"/cpuminer-multi/.do-not-try-to-build-again ]; then
echo -e "\x08\x08\x08, cpuminer...\c"
cd "${InstallLocation}" || exit 1
zypper install -y automake autoconf pkg-config libcurl4-openssl-dev libjansson-dev libssl-dev libgmp-dev make g++ zlib1g-dev >/dev/null 2>&1
apt-get -f -qq -y install automake autoconf pkg-config libcurl4-openssl-dev libjansson-dev libssl-dev libgmp-dev make g++ zlib1g-dev >/dev/null 2>&1
pacman --noconfirm -Sq automake autoconf pkg-config libcurl4-openssl-dev libjansson-dev libssl-dev libgmp-dev make g++ zlib1g-dev >/dev/null 2>&1
dnf install -q -y openssl-devel curl-devel zlib-devel >/dev/null 2>&1
if [ -d "${InstallLocation}/cpuminer-multi/.git" ]; then
cd "${InstallLocation}/cpuminer-multi/" || exit 1 && git pull >/dev/null 2>&1 && make clean >/dev/null 2>&1
else
git clone https://github.com/tpruvot/cpuminer-multi >/dev/null 2>&1
fi
if [ $? -ne 0 ]; then
echo -e "\n\n${LRED}${BOLD}Temporary Github problem. Not able to download cpuminer. Please try again later.${NC}" >&2
exit 1
fi
cd "${InstallLocation}/cpuminer-multi/" || exit 1 && ./build.sh >/dev/null 2>&1
fi
if [ ! -x "${InstallLocation}"/cpuminer-multi/cpuminer ]; then
echo -e "\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08 (can't build cpuminer) \c"
touch "${InstallLocation}"/cpuminer-multi/.do-not-try-to-build-again
fi
} # InstallCpuminer
InstallStockfish() {
# try to be compatible with Phoronix pts/stockfish-1.4.0 test profile as such grab
# https://github.com/official-stockfish/Stockfish/archive/refs/tags/sf_15.tar.gz
# and default net https://tests.stockfishchess.org/api/nn/nn-6877cd24400e.nnue
if [ ! -x "${InstallLocation}/Stockfish-sf_15/src/stockfish" ]; then
echo -e "\x08\x08\x08, stockfish...\c"
cd "${InstallLocation}" || exit 1
curl -f -L -s -q --connect-timeout 10 "https://github.com/official-stockfish/Stockfish/archive/refs/tags/sf_15.tar.gz" >"${InstallLocation}/sf_15.tar.gz" 2>/dev/null
[ -s "${InstallLocation}/sf_15.tar.gz" ] && tar xf sf_15.tar.gz
[ -d "${InstallLocation}/Stockfish-sf_15/src" ] && cd "${InstallLocation}/Stockfish-sf_15/src" || exit 1
case ${CPUArchitecture} in
x86_64)
gcc_enabled=$(c++ -Q -march=native --help=target | grep "\[enabled\]")
gcc_arch=$(c++ -Q -march=native --help=target | grep "march")
if [[ "${gcc_enabled}" =~ "-mavx512vnni " && "${gcc_enabled}" =~ "-mavx512dq " && "${gcc_enabled}" =~ "-mavx512f " && "${gcc_enabled}" =~ "-mavx512bw " && "${gcc_enabled}" =~ "-mavx512vl " ]] ; then
ARCH="x86-64-vnni256"
elif [[ "${gcc_enabled}" =~ "-mavx512f " && "${gcc_enabled}" =~ "-mavx512bw " ]] ; then
ARCH="x86-64-avx512"
elif [[ "${gcc_enabled}" =~ "-mbmi2 " && ! "${gcc_arch}" =~ "znver1" && ! "${gcc_arch}" =~ "znver2" ]] ; then
ARCH="x86-64-bmi2"
elif [[ "${gcc_enabled}" =~ "-mavx2 " ]] ; then
ARCH="x86-64-avx2"
elif [[ "${gcc_enabled}" =~ "-mpopcnt " && "${gcc_enabled}" =~ "-msse4.1 " ]] ; then
ARCH="x86-64-modern"
elif [[ "${gcc_enabled}" =~ "-mssse 3 " ]] ; then
ARCH="x86-64-ssse3"
elif [[ "${gcc_enabled}" =~ "-mpopcnt " && "${gcc_enabled}" =~ "-msse3 " ]] ; then
ARCH="x86-64-sse3-popcnt"
else
ARCH="x86-64-avx2"
fi
;;
i686)
ARCH=x86-32
;;
ppc64)
ARCH=ppc-64
;;
armv7*)
ARCH=armv7-neon
;;
aarch*)
grep -q apple <<<"${DTCompatible,,}" && ARCH=apple-silicon || ARCH=armv8
;;
riscv64)
ARCH=riscv64
;;
*)
ARCH=general-64
;;
esac
make profile-build ARCH=${ARCH} >"${TempDir}/stockfish-install.log" 2>&1
if [ ! -x "${InstallLocation}/Stockfish-sf_15/src/stockfish" ]; then
echo -e "\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08 (can't build stockfish) \c"
return 1
else
[ -f "${InstallLocation}/sf_15.tar.gz" ] && rm "${InstallLocation}/sf_15.tar.gz"
fi
fi
} # InstallStockfish
DownloadNeuralNet() {
if [ -d "${InstallLocation}/Stockfish-sf_15/src" ]; then
cd "${InstallLocation}/Stockfish-sf_15/src" || exit 1
case ${NeuralNetwork} in
????????????)
# prefix with nn- and suffix with .nnue
NeuralNetwork="nn-${NeuralNetwork}.nnue"
;;
????????????.nnue)
# prefix with nn-
NeuralNetwork="nn-${NeuralNetwork}"
;;
nn-????????????)
# suffix with .nnue
NeuralNetwork="${NeuralNetwork}.nnue"
;;
nn-????????????.nnue)
# name fits already
:
;;
*)
# use default net
FallbackNotification=" (fallback default net)"
NeuralNetwork="nn-6877cd24400e.nnue"
;;
esac
# download neural network if missing
if [ ! -f "${NeuralNetwork}" ]; then
echo -e "\x08\x08\x08, stockfish NN...\c"
curl -f -O -L -s -q --connect-timeout 10 "https://tests.stockfishchess.org/api/nn/${NeuralNetwork}" 2>/dev/null
fi
# check neural network
if [ -f "${NeuralNetwork}" ]; then
NetHeader="$(od <"${NeuralNetwork}" | head -n1 | cut -c9-28)"
if [ "X${NetHeader}" != "X027440 075363 027362" ]; then
echo -e "\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08 (can't use ${NeuralNetwork}${FallbackNotification}) \c"
return
fi
else
echo -e "\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08\x08 (can't download ${NeuralNetwork}${FallbackNotification}) \c"
fi
fi
} # DownloadNeuralNet
InitialMonitoring() {
# download Linux kernel end-of-life data
curl -s -q --connect-timeout 10 https://raw.githubusercontent.com/endoflife-date/endoflife.date/master/products/linuxkernel.md \
>"${TempDir}/linuxkernel.md" &
# record start time
BenchmarkStartTime=$(date +"%s")
# empty caches
echo 3 >/proc/sys/vm/drop_caches
# q&d performance assessment to estimate duration
QuickAndDirtyPerformance="$(BashBench)"
TinymembenchDuration=$(( $(( 3 + $(( ${QuickAndDirtyPerformance} / 300000000 )) )) * ${#ClusterConfig[@]} ))
RunHowManyTimes=3 # how many times should the multi-threaded tests be repeated
SingleThreadedDuration=$(( 20 + $(( ${QuickAndDirtyPerformance} * ${#ClusterConfig[@]} / 5000000 )) ))
MultiThreadedDuration=$(( ${RunHowManyTimes} * $(( 20 + $(( ${QuickAndDirtyPerformance} / 5000000 )) )) / ${CPUCores} ))
if [ "${ExecuteCpuminer}" = "yes" ] && [ -x "${InstallLocation}"/cpuminer-multi/cpuminer ]; then
EstimatedDuration=$(( ${TinymembenchDuration} + $(( $(( ${SingleThreadedDuration} + ${MultiThreadedDuration} )) / 60 )) + 8 ))
else
EstimatedDuration=$(( ${TinymembenchDuration} + $(( $(( ${SingleThreadedDuration} + ${MultiThreadedDuration} )) / 60 )) + 3 ))
fi
# collect CPU information
CPUTopology="$(PrintCPUTopology)"
echo -e "${CPUTopology}\n" >"${TempDir}/cpu-topology.log" &
CPUSignature="$(GetCPUSignature)"
[ -r /proc/device-tree/compatible ] && DTCompatible="$(tr "\000" "\n" /dev/null)"
OPPTables="$(ParseOPPTables)"
# try to identify ARM/RISC-V/Loongson SoCs
[ "${CPUArchitecture}" = "x86_64" ] && GuessedSoC="n/a" || GuessedSoC="$(GuessARMSoC)"
# upload raw /proc/cpuinfo contents and device-tree compatible entry to ix.io
ping -c1 -w2 ix.io >/dev/null 2>&1
if [ $? -eq 0 ] && [ "X${ProcCPUFile}" = "X/proc/cpuinfo" ]; then
UploadScheme="f:1=<-"
UploadServer="ix.io"
UploadAnswer="$( (echo -e "/proc/cpuinfo ${Version}\n\n$(uname -a) / ${DeviceName}\n" ; cat /proc/cpuinfo ; echo -e "\n${CPUTopology}\n\n${CPUSignature} / ${GuessedSoC} / ${CPUFetchGuess}$(cut -c9- <<<"${RK_NVMEM}") ${AW_NVMEM:19:2}${AW_NVMEM:16:2}${AW_NVMEM:13:2}${AW_NVMEM:10:2} ${AW_NVMEM:31:2}${AW_NVMEM:28:2}${AW_NVMEM:25:2}${AW_NVMEM:22:2} ${AW_NVMEM:44:2}${AW_NVMEM:41:2}${AW_NVMEM:38:2}${AW_NVMEM:35:2} ${AW_NVMEM:56:2}${AW_NVMEM:53:2}${AW_NVMEM:50:2}${AW_NVMEM:47:2}\n\n${DTCompatible}\n\n${OPPTables}\n\n$(grep . /sys/devices/virtual/thermal/thermal_zone?/* 2>/dev/null)\n\n$(grep . /sys/class/hwmon/hwmon?/* 2>/dev/null)") 2>/dev/null | curl -s -F ${UploadScheme} ${UploadServer} 2>&1)"
case "${UploadAnswer}" in
*ix.io/*)
# URL returned, so everything's fine
:
;;
*)
# something's wrong, e.g. "down for a while due to DDOS. thanks, buddy!" in early Nov. 2023
ping -c1 -w2 sprunge.us >/dev/null 2>&1 && UploadScheme="sprunge=<-" ; UploadServer="sprunge.us"
;;
esac
else
# upload location fallback to sprunge.us if possible
ping -c1 -w2 sprunge.us >/dev/null 2>&1 && UploadScheme="sprunge=<-" ; UploadServer="sprunge.us"
fi
# Log version and device info
[ -r /etc/hostname ] && read HostName /dev/null
if [ "X${MODE}" = "Xunattended" ] || [ "X${MODE}" = "Xextensive" ] || [ "X${MODE}" = "Xpts" ] || [ "X${MODE}" = "Xgb" ]; then
echo -e "sbc-bench v${Version} ${DeviceName:-$HostName} ${MODE} ($(date -R))\n" | sed 's/ / /g' >"${ResultLog}"
elif [ "X${REVIEWMODE}" = "Xtrue" ] && [ "X${NOTUNING}" != "Xyes" ]; then
echo -e "sbc-bench v${Version} ${DeviceName:-$HostName} ${MODE} ($(date -R))\n" | sed 's/ / /g' >"${ResultLog}"
elif [ "X${REVIEWMODE}" = "Xtrue" ]; then
echo -e "sbc-bench v${Version} ${DeviceName:-$HostName} NOTUNING review ($(date -R))\n" | sed 's/ / /g' >"${ResultLog}"
else
echo -e "sbc-bench v${Version} ${DeviceName:-$HostName} ($(date -R))\n" | sed 's/ / /g' >"${ResultLog}"
fi
# get distribution info
command -v lsb_release >/dev/null 2>&1 && (lsb_release -a 2>/dev/null | grep -v "n/a") >>"${ResultLog}" || \
echo -e "Description:\t${OperatingSystem}" >>"${ResultLog}"
ARCH=$(dpkg --print-architecture 2>/dev/null) || \
ARCH=$(awk -F'"' '/^CARCH/ {print $2}' /etc/makepkg.conf 2>/dev/null) || \
ARCH="$(uname -m)"
# Log Raspberry OS info if available
[ -f /etc/apt/sources.list.d/raspi.list ] && \
echo "Build system: $(grep -v '#' /etc/apt/sources.list.d/raspi.list | head -n1 | sed 's/deb //')" >>"${ResultLog}"
# Log Build system info if available
if [ -r /etc/radxa_image_fingerprint ]; then
# Radxa's rbuild
. /etc/radxa_image_fingerprint
echo "Build system: Radxa rbuild ${RBUILD_REVISION}, ${RBUILD_COMMAND#* }, ${RBUILD_UBOOT} ${RBUILD_UBOOT_VERSION}, $(awk -F" " '{print $2" "$3" "$4}' <<<"${RBUILD_BUILD_DATE}")" >>"${ResultLog}"
elif [ -r /etc/fenix-release ]; then
# Khadas' Fenix (mostly based on an old Armbian fork)
# they put image build information in /proc/cmdline like e.g.
# khadas_board=VIM3 hwver=VIM3.V12 coherent_pool=2M pci=pcie_bus_perf imagetype=EMMC_MBR uboottype=mainline
. /etc/fenix-release
if [ -r /proc/cmdline ]; then
read cmdline >"${ResultLog}"
else
echo "Build system: Khadas Fenix ${VERSION}" >>"${ResultLog}"
fi
elif [ -r /boot/dietpi/.version ]; then
# DietPi
. /boot/dietpi/.version
echo -e "Build system: DietPi ${G_DIETPI_VERSION_CORE}.${G_DIETPI_VERSION_SUB}.${G_DIETPI_VERSION_RC}, https://github.com/${G_GITOWNER}/DietPi/tree/${G_GITBRANCH}" >>"${ResultLog}"
elif [ -r /etc/orangepi-release ]; then
# Xunlong's forked Armbian scripts
. /etc/orangepi-release
elif [ -r /etc/armbian-release ]; then
# Armbian or other forks
. /etc/armbian-release
fi
[ "X${BOARD_NAME}" != "X" ] && \
echo "Build system: ${BUILD_REPOSITORY_URL:-https://github.com/armbian/build}, ${VERSION}, ${BOARD_NAME}, ${BOARDFAMILY}, ${LINUXFAMILY}" >>"${ResultLog}"
# Log system info and BIOS/UEFI versions if available:
command -v dmidecode >/dev/null 2>&1
if [ $? -eq 0 ]; then
SystemInfo="$(dmidecode -t system 2>/dev/null | grep -E "Manufacturer: |Product Name: |Version: |Family: |SKU Number: " | grep -E -v ": $|O.E.M.|123456789|0000000000000000|: Not |Default|default|System Product Name|System manufacturer|System Version|BAD INDEX")"
UEFIInfo="$(dmidecode -t bios 2>/dev/null | grep -E "Vendor:|Version:|Release Date:|Revision:")"
fi
if [ "X${SystemInfo}" != "X" ]; then
# Skip worthless SMBIOS/DMI emulation on RPi
grep -i -q "raspberrypi" <<<"${SystemInfo}" || echo -e "\nDevice Info:\n${SystemInfo}" >>"${ResultLog}"
fi
if [ "X${UEFIInfo}" != "X" ]; then
echo -e "\nBIOS/UEFI:\n${UEFIInfo}" >>"${ResultLog}"
fi
# On Raspberries we also collect 'firmware' information and on RPi 4 check SoC revision
# against config.txt contents:
if [ ${USE_VCGENCMD} = true ] ; then
ThreadXVersion="$("${VCGENCMD}" version 2>/dev/null)"
if [ "X${ThreadXVersion}" = "X" ]; then
# dealing with a fake vcgencmd not implementing version reporting
USE_VCGENCMD=false
else
# only report ThreadX stuff when 'vcgencmd version' outputs something
if [ -f /boot/config.txt ]; then
grep -q 'DO NOT EDIT THIS FILE' /boot/config.txt && ThreadXConfig=/boot/firmware/config.txt || ThreadXConfig=/boot/config.txt
else
ThreadXConfig=/boot/firmware/config.txt
fi
grep -q "arm_boost=1" ${ThreadXConfig} 2>/dev/null || (grep -q "C0 or later" <<<"${DeviceName}" && \
echo -e "\nWarning: this Raspberry Pi is powered by BCM2711 Rev. ${BCM2711} but arm_boost=1\nis not set in ${ThreadXConfig}. Some (mis)information about what you are missing:\nhttps://www.raspberrypi.com/news/bullseye-bonus-1-8ghz-raspberry-pi-4/" >>"${ResultLog}")
echo -e "\nRaspberry Pi ThreadX version:\n${ThreadXVersion}" >>"${ResultLog}"
[ -f ${ThreadXConfig} ] && echo -e "\nThreadX configuration (${ThreadXConfig}):\n$(grep -v '#' ${ThreadXConfig} | sed '/^\s*$/d')" >>"${ResultLog}"
ActualThreadXsettings="$("${VCGENCMD}" get_config int)"
echo -e "\nActual ThreadX settings:\n${ActualThreadXsettings}" >>"${ResultLog}"
fi
fi
# Log gcc version if not in Geekbench mode
if [ "X${MODE}" != "Xgb" ]; then
GCC="$(command -v gcc)"
GCC_Version="$(${GCC} --version | sed 's/gcc\ //' | head -n1)"
echo -e "\n${GCC} ${GCC_Version}" >>"${ResultLog}"
fi
# Some basic system info needed to interpret system health later
VoltageSensor="$(GetVoltageSensor)"
if [ "X${VoltageSensor}" != "X" ]; then
InputVoltage="$(GetInputVoltage "${VoltageSensor}")"
echo -e "\nUptime:$(uptime), ${InitialTemp}°C, ${InputVoltage}V, ${QuickAndDirtyPerformance}\n\n$(iostat | grep -E -v "^loop|boot0|boot1|mtdblock")\n\n$(free -h)\n\n$(swapon -s)\n" | sed '/^$/N;/^\n$/D' >>"${ResultLog}"
else
echo -e "\nUptime:$(uptime), ${InitialTemp}°C, ${QuickAndDirtyPerformance}\n\n$(iostat | grep -E -v "^loop|boot0|boot1|mtdblock")\n\n$(free -h)\n\n$(swapon -s)\n" | sed '/^$/N;/^\n$/D' >>"${ResultLog}"
fi
ShowZswapStats 2>/dev/null >>"${ResultLog}"
# set up Netio consumption monitoring if requested. Device address and socket
# need to be available as Netio (environment) variable.
if [ "X${Netio}" != "X" ]; then
QueryNetioDevice
echo -e "\nPower monitoring on socket ${NetioSocket} of ${NetioName} (Netio ${NetioModel}, FW v${Firmware}, XML API v${XmlVer}, ${InputVoltage}V @ ${Frequency}Hz) " >>"${ResultLog}"
fi
# log benchmark start in dmesg output
echo "sbc-bench started" >/dev/kmsg
# get status of swap devices to spot swapping activity ruining benchmark scores
SwapBefore="$(awk -F" " '{print $4}' /dev/null | tr '\015' '\012')"
OutputCurrents=($(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g' | tr '\n' ' '))
InputVoltage=$(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g')
Frequency=$(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g')
NetioModel=$(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g')
NetioName=$(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g')
Firmware=$(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g')
XmlVer=$(grep '^' <<<"${XMLOutput}" | sed -e 's/\(<[^<][^<]*>\)//g')
} # QueryNetioDevice
GetVoltageSensor() {
case "${DTCompatible,,}" in
*nanopi-r6s*)
# NanoPi R6S running with Rockchip's 5.10 BSP kernel?
if [ -f /sys/devices/iio_sysfs_trigger/subsystem/devices/iio\:device0/in_voltage2_raw ]; then
echo /sys/devices/iio_sysfs_trigger/subsystem/devices/iio\:device0/in_voltage2_raw
fi
;;
*rock-5b*|*rock-5-itx*)
# Rock 5B running with Rockchip's 5.10 BSP kernel?
if [ -f /sys/devices/iio_sysfs_trigger/subsystem/devices/iio\:device0/in_voltage6_raw ]; then
echo /sys/devices/iio_sysfs_trigger/subsystem/devices/iio\:device0/in_voltage6_raw
fi
;;
*)
# test for Allwinner A20 + PMU
if [ -f /sys/power/axp_pmu/ac/voltage ]; then
# Allwinner A20 powered via DC-IN running with mainline kernel + Armbian patches
InputVoltage="$(GetInputVoltage /sys/power/axp_pmu/ac/voltage)"
case ${InputVoltage} in
0|0.*)
# board seems to be powered through either battery or USB, so report the latter
echo /sys/power/axp_pmu/vbus/voltage
;;
*)
echo /sys/power/axp_pmu/ac/voltage
;;
esac
elif [ -f /sys/devices/platform/sunxi-i2c.0/i2c-0/0-0034/axp20-supplyer.28/power_supply/ac/voltage_now ]; then
# Allwinner A20 powered via DC-IN running 3.4 kernel
InputVoltage="$(GetInputVoltage /sys/devices/platform/sunxi-i2c.0/i2c-0/0-0034/axp20-supplyer.28/power_supply/ac/voltage_now)"
case ${InputVoltage} in
0|0.*)
# board seems to be powered through either battery or USB, so report the latter
echo /sys/devices/platform/sunxi-i2c.0/i2c-0/0-0034/axp20-supplyer.28/power_supply/usb/voltage_now
;;
*)
echo /sys/devices/platform/sunxi-i2c.0/i2c-0/0-0034/axp20-supplyer.28/power_supply/ac/voltage_now
;;
esac
elif [ -f /sys/power/axp_pmu/vbus/voltage ]; then
# Allwinner A20 powered through USB running with mainline kernel + Armbian patches
echo /sys/power/axp_pmu/vbus/voltage
elif [ -f /sys/devices/platform/sunxi-i2c.0/i2c-0/0-0034/axp20-supplyer.28/power_supply/usb/voltage_now ]; then
# Allwinner A20 powered through USB running 3.4 kernel
echo /sys/devices/platform/sunxi-i2c.0/i2c-0/0-0034/axp20-supplyer.28/power_supply/usb/voltage_now
fi
;;
esac
} # GetVoltageSensor
GetInputVoltage() {
case ${1##*/} in
in_voltage6_raw)
# Rock 5B running with Rockchip's 5.10 BSP kernel
awk '{printf ("%0.2f",$1/173.5); }' <"${1}" | sed 's/,/./'
;;
in_voltage2_raw)
case "${DTCompatible,,}" in
*nanopi-r6s*)
# NanoPi R6S running with Rockchip's 5.10 BSP kernel
awk '{printf ("%0.2f",$1/206.2); }' <"${1}" | sed 's/,/./'
;;
esac
;;
voltage|voltage_now)
# Allwinner A20
awk '{printf ("%0.2f",$1/1000000); }' <"${1}" | sed 's/,/./'
;;
esac
} # GetInputVoltage
CheckClockspeedsAndSensors() {
if [ -x "${InstallLocation}"/mhz/mhz ]; then
echo -e "\n##########################################################################" >>"${ResultLog}"
echo -e "\c" >"${TempDir}/cpufreq"
if [ -s "${MonitorLog}" ]; then
# 2nd check after most demanding benchmark has been run.
echo -e "\x08\x08 Done.\nChecking cpufreq OPP again...\c"
echo -e "\nTesting maximum cpufreq again, still under full load. System health now:\n" >>"${ResultLog}"
grep 'Time' "${MonitorLog}" | tail -n 1 >>"${ResultLog}"
grep ':' "${MonitorLog}" | tail -n 1 >>"${ResultLog}"
OnlyCPUFreqMax=YES
else
echo -e "\x08\x08 Done.\nChecking cpufreq OPP...\c"
# 1st check, try to get info about Intel P-States and HFI (Hardware Feedback Interface)
if [ "${CPUArchitecture}" = "x86_64" ]; then
PStateStatus="$(journalctl -b 2>/dev/null | awk -F": " '/intel_pstate:/ {print $3}' | sed ':a;N;$!ba;s/\n/, /g')"
if [ "X${PStateStatus}" != "X" ]; then
echo -e "\nIntel P-States: ${PStateStatus}" >>"${ResultLog}"
fi
HFIEnabled=$(awk -F":" '/^flags/ {print $2}' <<< "${ProcCPU}" | grep -c " hfi")
if [ ${HFIEnabled} -gt 0 ]; then
if [ -f /sys/devices/system/cpu/cpu0/acpi_cppc/nominal_perf ]; then
DifferentCores=$(cat /sys/devices/system/cpu/cpu*/acpi_cppc/nominal_perf | sort | uniq | wc -l)
else
DifferentCores=1
fi
if [ ${DifferentCores} -gt 1 ]; then
echo -e "\nIntel Hardware Feedback Interface enabled (${DifferentCores} core types)" >>"${ResultLog}"
else
echo -e "\nIntel Hardware Feedback Interface enabled" >>"${ResultLog}"
fi
fi
fi
# if powercapping seems to be available on Intel then add a hint
# https://www.cnx-software.com/2022/09/08/how-to-check-tdp-pl1-and-pl2-power-limits-in-windows-and-linux/
if [ -d /sys/devices/virtual/powercap/intel-rapl ]; then
grep -q -i GenuineIntel <<< "${ProcCPU}" && \
echo -e "\nPowercap present. You might want to check with \"powercap-info -p intel-rapl\"" >>"${ResultLog}"
fi
# if running on a Ryzen CPU add a hint to RyzenAdj
grep -q -i "AMD Ryzen" <<< "${ProcCPU}" && \
echo -e "\nAMD Ryzen detected. For power limits visit https://github.com/FlyGoat/RyzenAdj" >>"${ResultLog}"
fi
if [ ${#ClusterConfig[@]} -eq 1 ]; then
# all CPU cores have same package id, we only need to test one core
CPUInfo="$(GetCPUInfo 0)"
echo -e "\nChecking cpufreq OPP${CPUInfo}:\n" >>"${ResultLog}"
echo -e "cpu0${CPUInfo}: \c" >>"${TempDir}/cpufreq"
CheckCPUCluster 0 >>"${ResultLog}"
else
# different package ids, we walk through all clusters
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
FirstCore=${ClusterConfig[$i]}
LastCore=$(GetLastClusterCore $(( $i + 1 )))
CPUInfo="$(GetCPUInfo ${ClusterConfig[$i]})"
CoresOnline ${FirstCore} ${LastCore}
case $? in
0)
if [ ${FirstCore} -eq ${LastCore} ]; then
echo -e "\nChecking cpufreq OPP for cpu${FirstCore}${CPUInfo}:\n" >>"${ResultLog}"
echo -e "cpu${FirstCore}${CPUInfo}: \c" >>"${TempDir}/cpufreq"
else
echo -e "\nChecking cpufreq OPP for cpu${FirstCore}-cpu${LastCore}${CPUInfo}:\n" >>"${ResultLog}"
echo -e "cpu${FirstCore}-cpu${LastCore}${CPUInfo}: \c" >>"${TempDir}/cpufreq"
fi
CheckCPUCluster ${FirstCore} >>"${ResultLog}"
;;
*)
if [ ${FirstCore} -eq ${LastCore} ]; then
echo -e "\nSkipping cpu${FirstCore}${CPUInfo} since cores are offline: ${OfflineCores}" >>"${ResultLog}"
else
echo -e "\nSkipping cpu${FirstCore}-cpu${LastCore}${CPUInfo} since cores are offline: ${OfflineCores}" >>"${ResultLog}"
fi
;;
esac
done
fi
if [ "X${MODE}" = "Xextensive" ] && [ ! -s "${MonitorLog}" ]; then
# in this mode we also check all CPU cores in parallel, 1st in idle
echo -e "\nMeasuring highest clockspeeds for all cores in parallel (idle):\n" >>"${ResultLog}"
CheckAllCores idle >>"${ResultLog}"
# measure maximum clockspeeds under full load again
if [ -x "${InstallLocation}"/cpuminer-multi/cpuminer ]; then
echo -e "\nMeasuring highest clockspeeds for all cores in parallel (full load):\n" >>"${ResultLog}"
timeout 15 "${InstallLocation}"/cpuminer-multi/cpuminer --benchmark --cpu-priority=2 >/dev/null &
snore 10
CheckAllCores full-load >>"${ResultLog}"
fi
fi
else
echo -e "\x08\x08\x08 not possible since ${InstallLocation}/mhz/mhz not executable...\c"
fi
# if lm-sensors is present and reports anything add this to results.log
LMSensorsOutput="$(sensors -A 2>/dev/null | grep -v " +0.0 C" | sed -e 's/rpi_volt-isa-0000//' -e 's/in0: N\/A //')"
if [ "X${LMSensorsOutput}" != "X" ]; then
echo -e "\n##########################################################################\n" >>"${ResultLog}"
echo -e "Hardware sensors:\n\n${LMSensorsOutput}" >>"${ResultLog}"
# if temperature sensors can be read from disks, report them
SmartCtl="$(command -v smartctl 2>/dev/null)"
Disks="$(ls /dev/sd? /dev/nvme? 2>/dev/null | sort)"
if [ "X${SmartCtl}" != "X" ] && [ "X${Disks}" != "X" ]; then
echo "" >>"${ResultLog}"
# try to restrict SMART queries to 15 sec duration due to buggy devices
command -v timeout >/dev/null 2>&1 && SmartCtl="timeout 15 ${SmartCtl}"
for Disk in ${Disks} ; do
case ${Disk} in
/dev/sd*)
DiskTemp="$(${SmartCtl} -a ${Disk} | awk -F" " '/Temperature/ {print $10" "$2}' | head -n1 | sed -e 's/_/ /g' -e 's/^ *//g')"
[ "X${DiskTemp}" != "X" ] && echo -e "${Disk}:\t${DiskTemp}"
;;
/dev/nvme*)
echo -e "${Disk}:\t$(${SmartCtl} -a ${Disk} | awk -F" " '/Temperature:/ {print $2" "$3}' | head -n1)"
;;
esac
done | sed -e 's/ Airflow//' -e 's/ Temperature//' -e 's/ Celsius$/°C/' -e 's/ Cel$/°C/' >>"${ResultLog}"
fi
fi
} # CheckClockspeedsAndSensors
CoresOnline() {
# check whether CPU hotplug is supported on cores != 0 (cpu0 can't be offline)
# $1 -> first core to check
# $2 -> last core to check, if missing only $1 will be checked
local i
if [ ${1} -ne 0 ] && [ -f /sys/devices/system/cpu/cpu${1}/online ]; then
for i in $(seq ${1} ${2:-$1}) ; do
read IsOnline "${StatFile%/*}/reset"
;;
esac
Number=$(tr -c -d '[:digit:]' <<<${StatFile})
read MaxSpeed >${TempDir}/time_in_state_${1}_${Number}
echo ${REPLY} >>${TempDir}/full_time_in_state_${1}_${Number}
elif [ ${Cpufreq} -le ${MaxSpeed} ]; then
echo ${REPLY} >>${TempDir}/full_time_in_state_${1}_${Number}
fi
done
done
fi
} # CheckTimeInState
CheckCPUCluster() {
# check whether there's cpufreq support or not
if [ -d /sys/devices/system/cpu/cpufreq/policy${1} ]; then
# walk through all cpufreq OPP and report clockspeeds (kernel vs. measured)
read MinSpeed /sys/devices/system/cpu/cpufreq/policy${1}/scaling_min_freq 2>/dev/null
if [ "X${OnlyCPUFreqMax}" = "XYES" ]; then
OPPtoCheck="${MaxSpeed}"
elif [ -f /sys/devices/system/cpu/cpufreq/policy${1}/scaling_available_frequencies ]; then
OPPtoCheck=$((tr " " "\n" /dev/null | sort -n -r | uniq | sed '/^[[:space:]]*$/d')
elif [ ${MinSpeed} -eq 0 ]; then
OPPtoCheck="${MaxSpeed}"
else
OPPtoCheck="${MaxSpeed} ${MinSpeed}"
fi
for i in ${OPPtoCheck} ; do
# if MaxKHz environment variable is set then skip any higher cpufreq OPP,
# works similar for MinKHz
if [ ${i} -le ${MaxKHz:-90000000} ] && [ ${i} -ge ${MinKHz:-0} ]; then
echo ${i} >/sys/devices/system/cpu/cpufreq/policy${1}/scaling_max_freq
# instead of 'snore 0.1' fire up some real workload in a try to compensate for SoC
# firmwares that might do their own thing wrt clockspeeds (keep them low when idle)
taskset -c $1 "${InstallLocation}"/mhz/mhz 1 1000000 >/dev/null
MeasuredSpeed=$(taskset -c $1 "${InstallLocation}"/mhz/mhz 3 1000000 | awk -F" cpu_MHz=" '{print $2}' | awk -F" " '{print $1}' | sort -r -n | tr '\n' '/' | sed 's|/$||')
SpeedSum=$(tr '/' '\n' <<<"${MeasuredSpeed}" | tr -d '.' | awk '{s+=$1} END {printf "%.0f", s}')
RoundedSpeed=$(( ${SpeedSum} / 3000 ))
SysfsSpeed=$(( $i / 1000 ))
# report differences in cpufreq OPP ('advertised' clockspeed) and measured
# clockspeed if difference exceeds 1%
MeasuredDiff=$(awk '{printf ("%0.3f",$1/$2); }' <<<"${RoundedSpeed}000 ${SysfsSpeed}000" | tr -d '.')
if [ ${MeasuredDiff} -lt 990 ]; then
# measured clockspeed lower than 1% than cpufreq OPP
DiffPercentage=$(awk '{printf ("%0.0f",$1-$2); }' <<<"1000 ${MeasuredDiff}" | awk '{printf ("%0.1f",$1/10); }')
PrettyDiff="$(printf "%10s" \(-${DiffPercentage})%)"
CpufreqPrefix="${LRED}"
elif [ ${MeasuredDiff} -gt 1010 ]; then
# measured clockspeed higher than 1% than cpufreq OPP
DiffPercentage=$(awk '{printf ("%0.0f",$1-$2); }' <<<"${MeasuredDiff} 1000" | awk '{printf ("%0.1f",$1/10); }')
PrettyDiff="$(printf "%10s" \(+${DiffPercentage})%)"
CpufreqPrefix="${LGREEN}"
else
PrettyDiff=""
CpufreqPrefix=""
fi
# Check whether Linpack reliability measurement should be done as well (aarch64 only)
[ -x "${Linpack}/xhpl64" ] && [ -r "${Linpack}/HPL.dat" ] && [ "$(uname -m)" = "aarch64" ] && LinpackResult=" ($(MeasureWithLinpack))" || LinpackResult=""
if [ ${USE_VCGENCMD} = true ] ; then
# On RPi we query ThreadX about clockspeeds and Vcore voltage too, on RPi 5
# we even use the ADC measurements. Also we create an OPP table on the fly
# derived from ThreadX config via 'measure_volts' and 'measure_clock arm':
ThreadXFreq=$("${VCGENCMD}" measure_clock arm 2>/dev/null | awk -F"=" '{printf ("%0.0f",$2/1000000); }' )
CoreVoltage=$("${VCGENCMD}" measure_volts uncached 2>/dev/null | cut -f2 -d=)
[ "X${CoreVoltage}" = "X" ] && CoreVoltage=$("${VCGENCMD}" measure_volts 2>/dev/null | cut -f2 -d=)
[ "X${OnlyCPUFreqMax}" = "XYES" ] || printf "%10s MHz %8s mV\n" ${ThreadXFreq} $(awk '{printf ("%0.1f",$1*1000); }' <<<${CoreVoltage}) >>"${TempDir}/opp-table-threadx-${1}"
ADC_Readouts="$("${VCGENCMD}" pmic_read_adc 2>/dev/null)"
case $? in
0)
MeasuredCoreVoltage="$(awk -F"=" '/VDD_CORE_V/ {printf ("%0.4f",$2); }' <<<"${ADC_Readouts}")V"
echo -e "Cpufreq OPP: $(printf "%4s" ${SysfsSpeed}) ThreadX: $(printf "%4s" ${ThreadXFreq}) Measured: $(printf "%4s" ${RoundedSpeed}) @ ${CoreVoltage}/${MeasuredCoreVoltage}${PrettyDiff}${LinpackResult}"
;;
*)
echo -e "Cpufreq OPP: $(printf "%4s" ${SysfsSpeed}) ThreadX: $(printf "%4s" ${ThreadXFreq}) Measured: $(printf "%4s" ${RoundedSpeed}) @ ${CoreVoltage}${PrettyDiff}${LinpackResult}"
;;
esac
[ $i -eq ${MaxSpeed} ] && echo -e "OPP: $(printf "%4s" ${SysfsSpeed}), ThreadX: $(printf "%4s" ${ThreadXFreq}), Measured: $(printf "%4s" ${RoundedSpeed}) ${CpufreqPrefix}${PrettyDiff}${NC}">>"${TempDir}/cpufreq"
else
echo -e "Cpufreq OPP: $(printf "%4s" ${SysfsSpeed}) Measured: $(printf "%4s" ${RoundedSpeed}) $(printf "%27s" \(${MeasuredSpeed}))${PrettyDiff}${LinpackResult}"
[ $i -eq ${MaxSpeed} ] && echo -e "OPP: $(printf "%4s" ${SysfsSpeed}), Measured: $(printf "%4s" ${RoundedSpeed}) ${CpufreqPrefix}${PrettyDiff}${NC}">>"${TempDir}/cpufreq"
fi
fi
done
if [ "X${MaxKHz}" = "X" ]; then
echo ${MaxSpeed} >/sys/devices/system/cpu/cpufreq/policy${1}/scaling_max_freq
else
echo ${MaxKHz} >/sys/devices/system/cpu/cpufreq/policy${1}/scaling_max_freq
fi
else
# no cpufreq support: measure speeds on cpu0 on single core machines, otherwise on
# next cpu core to not interfere with probable bad IRQ/SMP affinitiy settings.
case ${CPUCores} in
1)
CpuToCheck=0
;;
*)
CpuToCheck=$(( $1 + 1 ))
;;
esac
taskset -c ${CpuToCheck} "${InstallLocation}"/mhz/mhz 1 1000000 >/dev/null
MeasuredSpeed=$(taskset -c ${CpuToCheck} "${InstallLocation}"/mhz/mhz 3 1000000 | awk -F" cpu_MHz=" '{print $2}' | awk -F" " '{print $1}' | sort -r -n | tr '\n' '/' | sed 's|/$||')
SpeedSum=$(tr '/' '\n' <<<"${MeasuredSpeed}" | tr -d '.' | awk '{s+=$1} END {printf "%.0f", s}')
RoundedSpeed=$(( ${SpeedSum} / 3000 ))
echo -e "No cpufreq support available. Measured on cpu${CpuToCheck}: ${RoundedSpeed} MHz (${MeasuredSpeed})"
echo -e "Measured: $(printf "%4s" ${RoundedSpeed})">>"${TempDir}/cpufreq"
fi
} # CheckCPUCluster
MeasureWithLinpack() {
# function that chdirs into ${Linpack}, then runs xhpl64 and provides the resulting
# Gflops number when passing or FAILED otherwise.
# https://github.com/raspberrypi/firmware/issues/1876#issuecomment-2002634934
cd "${Linpack}" || return 1
LinpackResult="$("./xhpl64" 2>&1)"
grep -q "PASSED" <<<"${LinpackResult}"
case $? in
0)
awk -F' ' '/^WR02R2L2/ {print $7}' <<<"${LinpackResult}"
;;
*)
echo "FAILED"
;;
esac
cd "${OLDPWD}" || return 1
} # MeasureWithLinpack
CheckAllCores() {
for i in $(seq 0 $(( ${CPUCores} -1 )) ) ; do
taskset -c ${i} "${InstallLocation}"/mhz/mhz 3 1000000 >"${TempDir}/CheckAllCores-${1}.${i}" &
done
if [ -r /sys/devices/system/cpu/cpu0/cpufreq/cpuinfo_cur_freq ]; then
CpuFreqToQuery=cpuinfo_cur_freq
elif [ -r /sys/devices/system/cpu/cpu0/cpufreq/scaling_cur_freq ]; then
CpuFreqToQuery=scaling_cur_freq
fi
# if in full-load mode wait 8 seconds
[ "X${1}" = "Xfull-load" ] && snore 8
for i in $(seq 0 $(( ${CPUCores} -1 )) ) ; do
[ -f /sys/devices/system/cpu/cpu${i}/cpufreq/${CpuFreqToQuery} ] && \
cat /sys/devices/system/cpu/cpu${i}/cpufreq/${CpuFreqToQuery} >"${TempDir}/Reported-${1}.${i}"
done
for job in $(jobs -p) ; do
wait ${job}
done
for i in $(seq 0 $(( ${CPUCores} -1 )) ) ; do
MeasuredSpeed=$(awk -F" cpu_MHz=" '{print $2}' <"${TempDir}/CheckAllCores-${1}.${i}" | awk -F" " '{print $1}' | sort -r -n | tr '\n' '/' | sed 's|/$||')
SpeedSum=$(tr '/' '\n' <<<"${MeasuredSpeed}" | tr -d '.' | awk '{s+=$1} END {printf "%.0f", s}')
RoundedSpeed=$(( ${SpeedSum} / 3000 ))
if [ -s "${TempDir}/Reported-${1}.${i}" ]; then
read ReportedSpeed <"${TempDir}/Reported-${1}.${i}"
echo -e "cpu${i}: ${RoundedSpeed}/$(( ${ReportedSpeed} / 1000 )) MHz (${MeasuredSpeed})"
else
echo -e "cpu${i}: ${RoundedSpeed} MHz (${MeasuredSpeed})"
fi
done
} # CheckAllCores
RunTinyMemBench() {
if [ "X${MODE}" = "Xextensive" ] || [ "X${REVIEWMODE}" = "Xtrue" ] || [ "X${ExecuteStockfish}" = "Xyes" ]; then
# extensive/review mode or yet unknown stockfish run time, do not print any duration estimates
echo -e "\x08\x08 Done."
else
echo -e "\x08\x08 Done (results will be available in $(( ${EstimatedDuration} * 120 / 100 ))-$(( ${EstimatedDuration} * 180 / 100 )) minutes)."
fi
# if we're not running with MODE=extensive shorten tinymembench execution drastically.
# TODO: Adjust time estimates
[ "X${MODE}" = "Xextensive" ] || TMBOptions="-b 2 -B 3 -l 3 -c 1000000"
echo -e "Executing tinymembench...\c"
echo -e "System health while running tinymembench:\n" >"${MonitorLog}"
if [ "X${MODE}" = "Xextensive" ]; then
/bin/bash "${PathToMe}" -m $(( 40 * ${#ClusterConfig[@]} )) >>"${MonitorLog}" &
else
/bin/bash "${PathToMe}" -m $(( 10 * ${#ClusterConfig[@]} )) >>"${MonitorLog}" &
fi
MonitoringPID=$!
echo -n "" >"${TempLog}"
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
CoresOnline ${ClusterConfig[$i]}
if [ $? -eq 0 ]; then
CPUInfo="$(GetCPUInfo ${ClusterConfig[$i]})"
echo -e "\nExecuting benchmark on cpu${ClusterConfig[$i]}${CPUInfo}:\n" >>"${TempLog}"
[ -s "${NetioConsumptionFile}" ] && snore 10
taskset -c ${ClusterConfig[$i]} "${InstallLocation}"/tinymembench/tinymembench ${TMBOptions} >>"${TempLog}" 2>&1
fi
done
kill ${MonitoringPID}
echo -e "\n##########################################################################" >>"${ResultLog}"
cat "${TempLog}" >>"${ResultLog}"
MemCpyScore="$(awk -F" " '/^ libc memcpy copy/ {print $5}' <"${TempLog}" | sort -n | tail -n1)"
MemSetScore="$(awk -F" " '/^ libc memset fill/ {print $5}' <"${TempLog}" | sort -n | tail -n1)"
# round results
MemBenchScore="$(( $(awk '{printf ("%0.0f",$1/10); }' <<<"${MemCpyScore}" ) * 10 )) | $(( $(awk '{printf ("%0.0f",$1/10); }' <<<"${MemSetScore}" ) * 10 ))"
} # RunTinyMemBench
RunRamlat() {
if [ -x "${InstallLocation}"/ramspeed/ramlat ]; then
echo -e "\x08\x08 Done.\nExecuting RAM latency tester...\c"
echo -e "\nSystem health while running ramlat:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m $(( ${#ClusterConfig[@]} * 3 )) >>"${MonitorLog}" &
MonitoringPID=$!
echo -n "" >"${TempLog}"
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
CoresOnline ${ClusterConfig[$i]}
if [ $? -eq 0 ]; then
CPUInfo="$(GetCPUInfo ${ClusterConfig[$i]})"
echo -e "\nExecuting ramlat on cpu${ClusterConfig[$i]}${CPUInfo}, results in ns:\n" >>"${TempLog}"
taskset -c ${ClusterConfig[$i]} "${InstallLocation}"/ramspeed/ramlat -n -w "12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27" 200 \
| sed -e 's/^/ /' >>"${TempLog}" 2>&1
fi
done
kill ${MonitoringPID}
echo -e "\n##########################################################################" >>"${ResultLog}"
cat "${TempLog}" >>"${ResultLog}"
fi
} # RunRamlat
Run7ZipBenchmark() {
echo -e "\x08\x08 Done.\nExecuting 7-zip benchmark...\c"
echo -e "\nSystem health while running 7-zip single core benchmark:\n" >>"${MonitorLog}"
echo -e "\c" >"${TempLog}"
# determine available RAM and adjust monitoring interval + dictionary size if necessary
TotalMem=$(free | awk -F" " '/^Mem: / {print $7}' | tail -n1)
[ ${TotalMem:-350000} -lt 350000 ] && DictSize="-md=2m"
MemAdjustment=$(( $(( 1250000 / ${TotalMem} )) / 3 ))
if [ ${MemAdjustment} = 0 ]; then
MonInterval=$(( ${SingleThreadedDuration} / 8 ))
else
MonInterval=$(( ${SingleThreadedDuration} / $(( 8 * ${MemAdjustment} )) ))
fi
[ ${MonInterval:-0} -lt 5 ] && MonInterval=5
[ ${MonInterval:-0} -gt 15 ] && MonInterval=15
/bin/bash "${PathToMe}" -m ${MonInterval} >>"${MonitorLog}" &
MonitoringPID=$!
if [ ${#ClusterConfig[@]} -eq 1 ]; then
# Only cpu0 or single CPU cluster
CPUInfo="$(GetCPUInfo 0)"
echo -e "\nExecuting benchmark single-threaded on cpu0${CPUInfo}" >>"${TempLog}"
[ -s "${NetioConsumptionFile}" ] && snore 10
taskset -c 0 "${SevenZip}" b ${DictSize} -mmt=1 >>"${TempLog}" 2>/dev/null
else
# test each cluster individually
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
CoresOnline ${ClusterConfig[$i]}
if [ $? -eq 0 ]; then
CPUInfo="$(GetCPUInfo ${ClusterConfig[$i]})"
echo -e "\nExecuting benchmark single-threaded on cpu${ClusterConfig[$i]}${CPUInfo}" >>"${TempLog}"
[ -s "${NetioConsumptionFile}" ] && snore 10
taskset -c ${ClusterConfig[$i]} "${SevenZip}" b ${DictSize} -mmt=1 >>"${TempLog}" 2>/dev/null
fi
done
fi
kill ${MonitoringPID}
echo -e "\n##########################################################################" >>"${ResultLog}"
cat "${TempLog}" >>"${ResultLog}"
ZipScoreSingleThreaded=$(awk -F" " '/^Tot:/ {print $4}' "${TempLog}" | sort -n | tail -n1)
if [ ${CPUCores} -gt 1 ]; then
# run multi-threaded test only if there's more than one CPU core
echo -e "\nSystem health while running 7-zip multi core benchmark:\n" >>"${MonitorLog}"
echo -e "\c" >"${TempLog}"
if [ ${MemAdjustment} = 0 ]; then
MonInterval=$(( ${MultiThreadedDuration} / 3 ))
else
MonInterval=$(( ${MultiThreadedDuration} / $(( 3 * ${MemAdjustment} )) ))
fi
[ ${MonInterval:-0} -lt 10 ] && MonInterval=10
[ ${MonInterval:-0} -gt 30 ] && MonInterval=30
/bin/bash "${PathToMe}" -m ${MonInterval} >>"${MonitorLog}" &
MonitoringPID=$!
echo -e "Executing benchmark ${RunHowManyTimes} times multi-threaded on CPUs $(cat /sys/devices/system/cpu/online)" >>"${TempLog}"
for ((i=1;i<=RunHowManyTimes;i++)); do
"${SevenZip}" b ${DictSize} -mmt=${CPUCores} >>"${TempLog}" 2>/dev/null
done
kill ${MonitoringPID}
echo -e "\n##########################################################################\n" >>"${ResultLog}"
cat "${TempLog}" >>"${ResultLog}"
# create average score from all finished benchmark runs (7-zip can get oom-killed)
FinishedRuns=$(grep -c '^Tot:' "${TempLog}")
[ ${FinishedRuns} -ne 0 ] && CombinedScore=$(( $(awk -F" " '/^Tot:/ {s+=$4} END {printf "%.0f", s}' <"${TempLog}") / ${FinishedRuns} ))
else
# use the single score instead on a single core machine
CombinedScore=$(awk -F" " '/^Tot:/ {print $4}' <"${TempLog}")
fi
sed -i 's/|//' "${TempLog}"
CompScore=$(awk -F" " '/^Avr:/ {print $4}' <"${TempLog}" | tr '\n' ', ' | sed 's/,$//')
DecompScore=$(awk -F" " '/^Avr:/ {print $7}' <"${TempLog}" | tr '\n' ', ' | sed 's/,$//')
TotScore=$(awk -F" " '/^Tot:/ {print $4}' <"${TempLog}" | tr '\n' ', ' | sed 's/,$//')
echo -e "\nCompression: ${CompScore}" >>"${ResultLog}"
echo -e "Decompression: ${DecompScore}" >>"${ResultLog}"
echo -e "Total: ${TotScore}" >>"${ResultLog}"
# round result
ZipScore="$(( $(awk '{printf ("%0.0f",$1/10); }' <<<"${CombinedScore}" ) * 10 ))"
if [ ${#ClusterConfigByCoreType[@]} -ne 1 ] && [ "X${MODE}" = "Xextensive" ]; then
# extensive mode: we're testing additionally through each CPU core cluster
echo -e "\nSystem health while running 7-zip cluster benchmarks:\n" >>"${MonitorLog}"
echo -e "\c" >"${TempLog}"
/bin/bash "${PathToMe}" -m $(( ${MonInterval} * ${#ClusterConfigByCoreType[@]} )) >>"${MonitorLog}" &
MonitoringPID=$!
for i in $(seq 0 $(( ${#ClusterConfigByCoreType[@]} -1 )) ) ; do
CoresOnline ${ClusterConfigByCoreType[$i]}
if [ $? -eq 0 ]; then
FirstCore=${ClusterConfigByCoreType[$i]}
CPUInfo="$(GetCPUInfo ${FirstCore})"
LastCore=$(GetLastClusterCoreByType $(( $i + 1 )))
HowManyCores=$(( $(( ${LastCore} - ${FirstCore} )) + 1 ))
if [ ${FirstCore} -eq ${LastCore} ]; then
echo -e "\nExecuting benchmark ${RunHowManyTimes} times single-threaded on CPU ${FirstCore}${CPUInfo}" >>"${TempLog}"
else
echo -e "\nExecuting benchmark ${RunHowManyTimes} times multi-threaded on CPUs ${FirstCore}-${LastCore}${CPUInfo}" >>"${TempLog}"
fi
for ((o=1;o<=RunHowManyTimes;o++)); do
taskset -c ${FirstCore}-${LastCore} "${SevenZip}" b ${DictSize} -mmt=${HowManyCores} >>"${TempLog}" 2>/dev/null
done
fi
done
kill ${MonitoringPID}
echo -e "\n##########################################################################\n" >>"${ResultLog}"
cat "${TempLog}" >>"${ResultLog}"
fi
} # Run7ZipBenchmark
RunOpenSSLBenchmark() {
echo -e "\x08\x08 Done.\nExecuting OpenSSL benchmark...\c"
echo -e "\nSystem health while running OpenSSL benchmark:\n" >>"${MonitorLog}"
echo -e "\n##########################################################################\n" >>"${ResultLog}"
/bin/bash "${PathToMe}" -m 16 >>"${MonitorLog}" &
MonitoringPID=$!
OpenSSLLog="${TempDir}/openssl.log"
if [ ${#ClusterConfig[@]} -eq 1 ]; then
# all CPU cores have same package id, we execute openssl twice
CPUInfo="$(GetCPUInfo 0)"
echo -e "Executing benchmark twice on cluster 0${CPUInfo}\n" >>"${ResultLog}"
for bytelength in $1 ; do
openssl speed -elapsed -evp aes-${bytelength}-cbc 2>/dev/null
openssl speed -elapsed -evp aes-${bytelength}-cbc 2>/dev/null
done | tr '[:upper:]' '[:lower:]' >"${OpenSSLLog}"
# add both scores and divide by two to get an average
AES256=$(( $(awk '/^aes-256-cbc/ {print $7}' <"${OpenSSLLog}" | awk -F"." '{s+=$1} END {printf "%.0f", s}') / 2 ))
[ "X${MODE}" = "Xextensive" ] && openssl speed -elapsed -evp aes-256-gcm 2>/dev/null | tr '[:upper:]' '[:lower:]' >>"${OpenSSLLog}"
else
# different package ids, we walk through all clusters
echo -e "Executing benchmark on each cluster individually\n" >>"${ResultLog}"
for bytelength in $1 ; do
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
CoresOnline ${ClusterConfig[$i]}
if [ $? -eq 0 ]; then
CPUInfo="$(GetCPUInfo ${ClusterConfig[$i]})"
taskset -c ${ClusterConfig[$i]} openssl speed -elapsed -evp aes-${bytelength}-cbc 2>/dev/null \
| tr '[:upper:]' '[:lower:]' | sed "/^aes/ s/$/${CPUInfo}/"
if [ "X${MODE}" = "Xextensive" ] && [ ${bytelength} -eq 256 ]; then
openssl speed -elapsed -evp aes-256-gcm 2>/dev/null | tr '[:upper:]' '[:lower:]' | sed "/^aes/ s/$/${CPUInfo}/"
fi
fi
done
done >"${OpenSSLLog}"
# check aes-256-cbc scores and choose highest for reporting
AES256=$(awk '/^aes-256-cbc/ {print $7}' <"${OpenSSLLog}" | awk -F"." '{print $1}' | sort -n | tail -n1)
fi
kill ${MonitoringPID}
echo -e "$(openssl version | awk -F" " '{print $1" "$2", built on "$3" "$4" "$5" "$6" "$7" "$8" "$9" "$10" "$11" "$12" "$13" "$14" "$15}' | sed 's/ *$//')\n$(grep '^type' "${OpenSSLLog}" | head -n1)" >>"${ResultLog}"
grep '^aes-' ${OpenSSLLog} >>"${ResultLog}"
# round result
OpenSSLScore="$(( $(awk '{printf ("%0.0f",$1/10); }' <<<"${AES256}") * 10 ))"
if [ "X${MODE}" = "Xextensive" ]; then
# in extensive mode run openssl benchmarks on all cores in parallel
echo -e "\nSystem health while running parallel OpenSSL benchmarks:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m 4 >>"${MonitorLog}" &
MonitoringPID=$!
for ((o=1;o<=CPUCores;o++)); do
taskset -c $(( ${o} - 1 )) openssl speed -elapsed -evp aes-256-cbc 2>/dev/null >"${TempDir}"/openssl.log.cbc.${o} &
done
snore 25
for ((o=1;o<=CPUCores;o++)); do
taskset -c $(( ${o} - 1 )) openssl speed -elapsed -evp aes-256-gcm 2>/dev/null >"${TempDir}"/openssl.log.gcm.${o} &
done
snore 25
grep '^aes-256-cbc' "${TempDir}"/openssl.log.* | cut -f2 -d':' | sort -r -n | sed "/^aes/ s/$/ (fully parallel)/" >>"${ResultLog}"
grep '^aes-256-gcm' "${TempDir}"/openssl.log.* | cut -f2 -d':' | sort -r -n | sed "/^aes/ s/$/ (fully parallel)/" >>"${ResultLog}"
kill ${MonitoringPID}
fi
} # RunOpenSSLBenchmark
RunCpuminerBenchmark() {
if [ "X${REVIEWMODE}" = "Xtrue" ]; then
echo -e "\x08\x08 Done.\nThrottling test: heating up the device, 5 more minutes to wait...\c"
else
echo -e "\x08\x08 Done.\nExecuting cpuminer. 5 more minutes to wait...\c"
fi
echo -e "\nSystem health while running cpuminer:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m 40 >>"${MonitorLog}" &
MonitoringPID=$!
"${InstallLocation}"/cpuminer-multi/cpuminer --benchmark --cpu-priority=2 >"${TempLog}" &
MinerPID=$!
snore 300
kill ${MinerPID} ${MonitoringPID}
echo -e "\n##########################################################################\n" >>"${ResultLog}"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <"${TempLog}" >>"${ResultLog}"
# Summarized 'Total:' scores, we need to skip the 1st or even better the two first since
# sometimes significantly lower which could then be misinterpreted as silent throttling
MinerRuns=$(grep -c " Total:" "${TempLog}")
if [ ${MinerRuns:-0} -ge 10 ]; then
# skip two first scores when more than 10 cpuminer scores could be generated
TotalScores="$(awk -F" " '/Total:/ {print $4}' "${TempLog}" | tail -n +3 | sort -r -n | uniq | tr '\n' ', ' | sed 's/,$//')"
else
# skip only 1st score
TotalScores="$(awk -F" " '/Total:/ {print $4}' "${TempLog}" | tail -n +2 | sort -r -n | uniq | tr '\n' ', ' | sed 's/,$//')"
fi
echo -e "\nTotal Scores: ${TotalScores}" >>"${ResultLog}"
CpuminerScore="$(awk -F"," '{print $2}' <<<"${TotalScores}")"
} # RunCpuminerBenchmark
RunStressNG() {
case ${OperatingSystem,,} in
"arch linux"*|*manjaro*)
StressCommand="stress --cpu ${CPUCores} --io ${CPUCores} --vm ${CPUCores} --vm-bytes 128M"
;;
*)
StressCommand="stress-ng --matrix 0"
;;
esac
if [ "X${REVIEWMODE}" = "Xtrue" ]; then
echo -e "\x08\x08 Done.\nThrottling test: heating up the device, 5 more minutes to wait...\c"
else
echo -e "\x08\x08 Done.\nExecuting ${StressCommand%% *}. 5 more minutes to wait...\c"
fi
echo -e "\nSystem health while running ${StressCommand%% *}:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m 40 >>"${MonitorLog}" &
MonitoringPID=$!
echo -e "Executing \"${StressCommand}\" for 5 minutes:\n" >"${TempLog}"
${StressCommand} -t 300 >>"${TempLog}" 2>&1
kill ${MonitoringPID}
echo -e "\n##########################################################################\n" >>"${ResultLog}"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <"${TempLog}" >>"${ResultLog}"
} # RunStressNG
RunStockfishBenchmark() {
echo -e "\x08\x08 Done.\nExecuting stockfish benchmark...\c"
echo -e "\nSystem health while running stockfish:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m 60 >>"${MonitorLog}" &
MonitoringPID=$!
cd "${InstallLocation}/Stockfish-sf_15/src" || exit 1
echo "" >"${TempLog}"
for ((i=1;i<=RunHowManyTimes;i++)); do
echo -e "setoption name EvalFile value ${NeuralNetwork} \n bench 128 ${CPUCores} 24 default depth" | ./stockfish 2>>"${TempLog}" >/dev/null
done
kill ${MonitoringPID}
echo -e "\n##########################################################################\n" >>"${ResultLog}"
echo -e "Executing Stockfish 15 using ${NeuralNetwork} ${RunHowManyTimes} times in a row:\n" >>"${ResultLog}"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <"${TempLog}" | sed -e '/^$/d' -e '/^============/i \ ' -e '/second/a \ ' >>"${ResultLog}"
StockfishScores="$(awk -F": " '/^Nodes\/second/ {print $2}' <"${TempLog}" | tr '\n' ', ' | sed 's/,$//')"
echo -e "Total Scores (${NeuralNetwork}): ${StockfishScores}" >>"${ResultLog}"
} # RunStockfishBenchmark
RunPTS() {
# executing phoronix-test-suite
echo -e "\x08\x08 Done.\nExecuting phoronix-test-suite...\c"
# if the CPU contains clusters of different CPU cores, test them individually first
if [ ${#ClusterConfigByCoreType[@]} -ne 1 ]; then
echo -e "\nSystem health while running Phoronix Test Suite cluster benchmarks:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m $(( 60 * ${#ClusterConfigByCoreType[@]} )) >>"${MonitorLog}" &
MonitoringPID=$!
for i in $(seq 0 $(( ${#ClusterConfigByCoreType[@]} -1 )) ) ; do
CoresOnline ${ClusterConfigByCoreType[$i]}
if [ $? -eq 0 ]; then
FirstCore=${ClusterConfigByCoreType[$i]}
CPUInfo="$(GetCPUInfo ${FirstCore})"
LastCore=$(GetLastClusterCoreByType $(( $i + 1 )))
HowManyCores=$(( $(( ${LastCore} - ${FirstCore} )) + 1 ))
# try to send as much cores as possible offline (cpu0 can't be sent offline)
for o in $(seq ${FirstOfflineCPU} $(( ${CPUCores} - 1 )) ); do
if [ $o -lt ${FirstCore} ] || [ $o -gt ${LastCore} ]; then
echo 0 > /sys/devices/system/cpu/cpu${o}/online 2>/dev/null
fi
done
PTS_SILENT_MODE=1 phoronix-test-suite batch-run ${PTSArguments} >"${TempLog}" 2>&1
ResultsURL="$(awk -F"https" '/Results Uploaded To/ {print $2}' <"${TempLog}")"
if [ "X${ResultsURL}" = "X" ]; then
echo -e "\x08\x08 Failed.\n$(cat "${TempLog}")\n"
grep -q 'is not installed' "${TempLog}" && \
echo -e "\nTry to manually resolve problems by \"phoronix-test-suite install ${PTSArguments}\""
exit 1
else
echo -e "\n##########################################################################\n" >>"${ResultLog}"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <"${TempLog}" >>"${ResultLog}"
fi
# bring back offline cores
for o in $(seq ${FirstOfflineCPU} $(( ${CPUCores} - 1 )) ); do
echo 1 >/sys/devices/system/cpu/cpu${o}/online
[ -f /sys/devices/system/cpu/cpufreq/policy${o}/scaling_governor ] && \
echo performance >/sys/devices/system/cpu/cpufreq/policy${o}/scaling_governor 2>/dev/null
snore 0.5
[ -f /sys/devices/system/cpu/cpufreq/policy${o}/scaling_governor ] && \
echo performance >/sys/devices/system/cpu/cpufreq/policy${o}/scaling_governor 2>/dev/null
done
fi
done
kill ${MonitoringPID}
fi
echo -e "\nSystem health while running Phoronix Test Suite:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m 60 >>"${MonitorLog}" &
MonitoringPID=$!
PTS_SILENT_MODE=1 phoronix-test-suite batch-run ${PTSArguments} >"${TempLog}"
kill ${MonitoringPID}
ResultsURL="$(awk -F"https" '/Results Uploaded To/ {print $2}' <"${TempLog}")"
if [ "X${ResultsURL}" = "X" ]; then
echo -e "\x08\x08 Failed.\n$(cat "${TempLog}")\n"
grep -q 'is not installed' "${TempLog}" && \
echo -e "\nTry to manually resolve problems by \"phoronix-test-suite install ${PTSArguments}\""
exit 1
else
echo -e "\n##########################################################################\n" >>"${ResultLog}"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <"${TempLog}" >>"${ResultLog}"
fi
} # RunPTS
BoostGB() {
snore 1 && for i in $(pgrep geekbench) ; do renice -20 "${i}" >/dev/null 2>&1 ; done
} # BoostGB
RunGB() {
# executing geekbench5 in a sane and monitored environment
echo -e "\x08\x08 Done.\nExecuting Geekbench...\n"
MonitorInterval=$(( ${QuickAndDirtyPerformance} / 10000000 ))
# if the CPU contains clusters of different CPU cores, test them individually first
if [ ${#ClusterConfigByCoreType[@]} -ne 1 ]; then
echo -e "\nSystem health while running Geekbench cluster benchmarks:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m $(( ${MonitorInterval} * ${#ClusterConfigByCoreType[@]} )) >>"${MonitorLog}" &
MonitoringPID=$!
for i in $(seq 0 $(( ${#ClusterConfigByCoreType[@]} -1 )) ) ; do
CoresOnline ${ClusterConfigByCoreType[$i]}
if [ $? -eq 0 ]; then
FirstCore=${ClusterConfigByCoreType[$i]}
CPUInfo="$(GetCPUInfo ${FirstCore})"
LastCore=$(GetLastClusterCoreByType $(( $i + 1 )))
HowManyCores=$(( $(( ${LastCore} - ${FirstCore} )) + 1 ))
# try to send as much cores as possible offline (cpu0 can't be sent offline)
for o in $(seq ${FirstOfflineCPU} $(( ${CPUCores} - 1 )) ); do
if [ $o -lt ${FirstCore} ] || [ $o -gt ${LastCore} ]; then
echo 0 > /sys/devices/system/cpu/cpu${o}/online 2>/dev/null
fi
done
echo -e "\n${BOLD}Executing on cores ${FirstCore}-${LastCore}${NC}\n"
BoostGB &
taskset -c ${FirstCore}-${LastCore} "${GBBinary}" 2>&1 | tee "${TempLog}"
ResultsURL="$(awk -F"https" '/browser.geekbench.com/ {print $2}' <"${TempLog}" | head -n1)"
if [ "X${ResultsURL}" = "X" ]; then
echo -e "\x08\x08 Failed...\c"
else
echo -e "\n##########################################################################\n" >>"${ResultLog}"
if [ ${FirstCore} -eq ${LastCore} ]; then
echo -e "Executing Geekbench on core ${FirstCore}${CPUInfo}\n" >>"${ResultLog}"
ResultList="${TempDir}/${FirstCore}.lst"
else
echo -e "Executing Geekbench on cores ${FirstCore}-${LastCore}${CPUInfo}\n" >>"${ResultLog}"
ResultList="${TempDir}/${FirstCore}-${LastCore}.lst"
fi
echo -e "\n https${ResultsURL}\n" >>"${ResultLog}"
links -dump "https${ResultsURL}" >"${TempLog}"
case ${GBVersion} in
5.*)
grep ' Score ' "${TempLog}" | sed '/Multi-Core*/i \ \ \ ' | sed 's/^\ //' >>${ResultList}
echo -e "\n Single-Core Performance" >>${ResultList}
sed '1,/^ Single-Core Performance$/d' "${TempLog}" | grep -v -E '/sec| FPS| Score' | head -n46 >>${ResultList}
;;
6.*)
grep ' Score ' "${TempLog}" | sed 's/^\ //' >>${ResultList}
echo -e "\n Single-Core Performance" >>${ResultList}
sed '1,/^ Single-Core Performance$/d' "${TempLog}" | grep -v -E '/sec| FPS| Score' | head -n36 >>${ResultList}
;;
esac
cat ${ResultList} >>"${ResultLog}"
fi
# bring back offline cores
for o in $(seq ${FirstOfflineCPU} $(( ${CPUCores} - 1 )) ); do
echo 1 >/sys/devices/system/cpu/cpu${o}/online
[ -f /sys/devices/system/cpu/cpufreq/policy${o}/scaling_governor ] && \
echo performance >/sys/devices/system/cpu/cpufreq/policy${o}/scaling_governor 2>/dev/null
snore 0.5
[ -f /sys/devices/system/cpu/cpufreq/policy${o}/scaling_governor ] && \
echo performance >/sys/devices/system/cpu/cpufreq/policy${o}/scaling_governor 2>/dev/null
done
fi
done
kill ${MonitoringPID}
fi
# run Geekbench on all cores twice
echo -e "\nSystem health while running Geekbench on all cores:\n" >>"${MonitorLog}"
/bin/bash "${PathToMe}" -m ${MonitorInterval} >>"${MonitorLog}" &
MonitoringPID=$!
echo -e "\n${BOLD}Executing on all cores 1st time${NC}\n"
BoostGB &
"${GBBinary}" 2>&1 | tee "${TempLog}"
echo ""
GBFullString="$(awk -F" : " "/^Geekbench ${GBVersion}./ {print \$1}" "${TempLog}")"
GBSystemInfo="$(grep -A25 "Gathering system information" "${TempLog}" | tail -n +2 | grep -B25 " Size ")"
TempLog2="${TempDir}/temp2.log"
echo -e "${BOLD}Executing on all cores 2nd time${NC}\n"
BoostGB &
"${GBBinary}" 2>&1 | tee "${TempLog2}"
kill ${MonitoringPID}
ResultsURL="$(awk -F"https" '/browser.geekbench.com/ {print $2}' <"${TempLog}" | head -n1)"
ResultsURL2="$(awk -F"https" '/browser.geekbench.com/ {print $2}' <"${TempLog2}" | head -n1)"
ClaimURL="$(awk -F"https" '/browser.geekbench.com/ {print $2}' <"${TempLog2}" | tail -n1)"
if [ "X${ResultsURL}" = "X" ] || [ "X${ResultsURL2}" = "X" ]; then
echo -e "\x08\x08 Failed.\c..."
else
echo -e "\n##########################################################################\n" >>"${ResultLog}"
echo -e "Executing Geekbench on all cores twice\n" >>"${ResultLog}"
ResultList="${TempDir}/all-1st.lst"
links -dump "https${ResultsURL}" >"${TempLog}"
links -dump "https${ResultsURL2}" >"${TempLog2}"
case ${GBVersion} in
5.*)
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <"${TempLog}" | sed '/add this result to your profile/,+3 d' | \
sed '/Geekbench 5 license/,+4 d' | sed '/active Internet connection/,+2 d' | \
sed '/preview build/,+1 d' | sed '/Single-Core/,+22 d' | sed '/Multi-Core/,+22 d' | \
sed '/Uploading results/,+4 d' | sed 's|: https://www.geekbench.com/||' >>"${ResultLog}"
grep ' Score ' "${TempLog}" | sed '/Multi-Core*/i \ \ \ ' | sed 's/^\ //' >${ResultList}
echo -e "\n Single-Core Performance" >>${ResultList}
sed '1,/^ Single-Core Performance$/d' "${TempLog}" | grep -v -E '/sec| FPS| Score' | head -n46 >>${ResultList}
cat ${ResultList} >>"${ResultLog}"
ResultList="${TempDir}/all-2nd.lst"
echo -e "\n https${ClaimURL}\n" >>"${ResultLog}"
grep ' Score ' "${TempLog2}" | sed '/Multi-Core*/i \ \ \ ' | sed 's/^\ //' >${ResultList}
echo -e "\n Single-Core Performance" >>${ResultList}
sed '1,/^ Single-Core Performance$/d' "${TempLog2}" | grep -v -E '/sec| FPS| Score' | head -n46 >>${ResultList}
cat ${ResultList} >>"${ResultLog}"
;;
6.*)
echo -e "${GBFullString}\n\n${GBSystemInfo}\n" >>"${ResultLog}"
grep ' Score ' "${TempLog}" | sed 's/^\ //' >${ResultList}
echo -e "\n Single-Core Performance" >>${ResultList}
sed '1,/^ Single-Core Performance$/d' "${TempLog}" | grep -v -E '/sec| FPS| Score' | head -n36 >>${ResultList}
cat ${ResultList} >>"${ResultLog}"
ResultList="${TempDir}/all-2nd.lst"
echo -e "\n https${ClaimURL}\n" >>"${ResultLog}"
grep ' Score ' "${TempLog2}" | sed 's/^\ //' >${ResultList}
echo -e "\n Single-Core Performance" >>${ResultList}
sed '1,/^ Single-Core Performance$/d' "${TempLog2}" | grep -v -E '/sec| FPS| Score' | head -n36 >>${ResultList}
cat ${ResultList} >>"${ResultLog}"
;;
esac
# create a results table on SoCs with different clusters
if [ ${#ClusterConfigByCoreType[@]} -ne 1 ]; then
CreateGBResultsTable | sed 's/ HTML /HTML5 /' >>"${ResultLog}"
fi
CompareURL="https://browser.geekbench.com/v${GBVersion:0:1}/cpu/compare/${ResultsURL##*/}?baseline=${ResultsURL2##*/}"
echo -e "\n\n${CompareURL}" >>"${ResultLog}"
fi
echo -e "\nGeekbench execution...\c"
} # RunGB
CreateGBResultsTable() {
cd "${TempDir}/" || exit 1
echo -e "\n##########################################################################\n"
echo -e "All Geekbench results:\n\n \c"
for o in *.lst ; do
printf "%10s" "${o%.*}" | sed 's/all-/all /g'
done
echo ""
for i in $(seq 1 $(wc -l <"${ResultList}") ); do
for o in *.lst ; do
case $o in
0*)
printf "\n%25s" "$(sed -n ${i}p <$o | cut -c-26 | tr -d '[:digit:]')"
;;
esac
printf "%10s" $(sed -n ${i}p <$o | cut -c25- | tr -d -c '[:digit:]')
done
done
} # CreateGBResultsTable
PrintCPUTopology() {
# prints list of CPU cores, clusters and cpufreq policy nodes
CPUFreqPolicy="none"
echo "CPU sysfs topology (clusters, cpufreq members, clockspeeds)"
echo " cpufreq min max"
echo " CPU cluster policy speed speed core type"
FirstCoreName="$(GetCoreType 0)"
FirstCoreStepping="$(GetARMStepping 0)"
for i in $(seq 0 $(( ${CPUCores} - 1 )) ); do
CoreName="$(GetCoreType $i)"
# check if CoreName is empty
if [ "X${CoreName}" = "X" ]; then
case ${CPUArchitecture} in
*86*)
# try to return microarchitecture instead of CPU name on x86 if available
if [[ ${CPUFetchInfo} != *Unknown* ]]; then
uArch="$(awk -F':' '/Microarchitecture:|uArch:/ {print $2}' <<<"${CPUFetchInfo}" | sed "s/^[ \t]*//")"
if [ "X${uArch}" = "X" ]; then
CoreName="${X86CPUName}"
else
CoreName="${uArch}"
fi
fi
;;
*arm*|*aarch*)
# On ARM with older kernels core/stepping info might only be available
# for cpu0 so use this instead
[ -n "${FirstCoreName}" ] && CoreName="${FirstCoreName} / ${FirstCoreStepping}"
;;
esac
else
CoreStepping="$(GetARMStepping $i)"
if [ "X${CoreStepping}" != "X" ]; then
CoreName="${CoreName} / ${CoreStepping}"
fi
fi
[ -f /sys/devices/system/cpu/cpu${i}/topology/physical_package_id ] && \
read CPUCluster >"${ResultLog}"
# Prepare benchmark results
echo -e "\n##########################################################################\n" >>"${ResultLog}"
# add thermal info if available
if [ "X${TempInfo}" != "X" ]; then
echo -e "${TempInfo}\n" >>"${ResultLog}"
fi
# include monitoring (filter out broken thermal readouts)
sed 's/ 0°C$/ --/' <"${MonitorLog}" >>"${ResultLog}"
# add throttling info if available
if [ -f "${TempDir}/throttling_info.txt" ]; then
echo -e "\n##########################################################################" >>"${ResultLog}"
cat "${TempDir}/throttling_info.txt" >>"${ResultLog}"
ThrottlingWarning="${LRED}${BOLD} (throttled)${NC}"
fi
# add dmesg output since start of the benchmark if something relevant is there
TimeStamp="$(dmesg | tr -d '[' | tr -d ']' | awk -F" " '/sbc-bench started/ {print $1}' | tail -n1)"
dmesg | sed "/${TimeStamp}/,\$!d" | grep -E -v 'sbc-bench started|started with executable stack' >"${TempDir}/dmesg"
if [ -s "${TempDir}/dmesg" ]; then
echo -e "\n##########################################################################\n\ndmesg output while running the benchmarks:\n" >>"${ResultLog}"
cat "${TempDir}/dmesg" >>"${ResultLog}"
fi
echo -e "\n##########################################################################\n" >>"${ResultLog}"
echo -e "$(iostat | grep -E -v "^loop|boot0|boot1|mtdblock")\n\n$(free -h)\n\n$(swapon -s)\n" | sed '/^$/N;/^\n$/D' >>"${ResultLog}"
ShowZswapStats 2>/dev/null >>"${ResultLog}"
echo >>"${ResultLog}"
cat "${TempDir}/cpu-topology.log" >>"${ResultLog}"
echo "${LSCPU}" >>"${ResultLog}"
LogEnvironment >>"${ResultLog}"
# Throttling detection/reporting
if [ "X${PlotCpufreqOPPs}" != "Xyes" ]; then
if [ -f /sys/devices/system/cpu/cpufreq/policy0/cpuinfo_max_freq ]; then
# Check for throttling for first:
MeasuredClockspeedStart=$(grep -A2 "^Checking cpufreq OPP" "${ResultLog}" | awk -F" " '/Measured/ {print $5}' | sed -n ${#ClusterConfig[@]}p)
MeasuredClockspeedFinished=$(grep -A2 "^Checking cpufreq OPP" "${ResultLog}" | awk -F" " '/Measured/ {print $5}' | sed -n $(( ${#ClusterConfig[@]} * 2 ))p)
MeasuredDifference=$(( 100 * MeasuredClockspeedStart / ${MeasuredClockspeedFinished:-MeasuredClockspeedStart} ))
if [ ${MeasuredDifference:-100} -gt 103 ] || [ -f "${TempDir}/throttling_info.txt" ]; then
# if measured clockspeed differs by more than 3% comparing begin and end of
# benchmarking or if throttling_info.txt exists, then add a throttling warning
ThrottlingWarning="${LRED}${BOLD} (throttled)${NC}"
fi
HighestClock=$(sort -n -r /sys/devices/system/cpu/cpufreq/policy?/cpuinfo_max_freq | head -n1)
LowestClock=$(sort -n -r /sys/devices/system/cpu/cpufreq/policy?/cpuinfo_max_freq | tail -n1)
ClockDifference=$(( 100000 * MeasuredClockspeedStart / HighestClock ))
if [ ${ClockDifference:-100} -lt 98 ] || [ ${ClockDifference:-100} -gt 102 ]; then
# if measured clockspeed differs by more than 2% compared to cpuinfo_max_freq
# then report this value slightly rounded instead of cpufreq sysfs entries
MHz="~$(( $(awk '{printf ("%0.0f",$1/10); }' <<<${MeasuredClockspeedStart} ) * 10 ))"
elif [ ${HighestClock} -eq ${LowestClock} ]; then
MHz="$(( HighestClock / 1000 )) MHz"
else
MHz="$(( HighestClock / 1000 ))/$(( LowestClock / 1000 )) MHz"
fi
else
# no cpufreq support, we check first measured value and use it if available
MeasuredClockspeedStart=$(awk -F": " '/No cpufreq support available. Measured on cpu/ {print $2}' <"${ResultLog}" | cut -f1 -d' ' | head -n 1)
if [ "X${MeasuredClockspeedStart}" = "X" ]; then
MHz="no cpufreq support"
else
# slightly round up measured clockspeed
MHz="~$(( $(awk '{printf ("%0.0f",$1/10+0.5); }' <<<"${MeasuredClockspeedStart}") * 10 )) MHz"
# check additionally for throttling
MeasuredClockspeedFinished=$(awk -F": " '/No cpufreq support available. Measured on cpu/ {print $2}' <"${ResultLog}" | cut -f1 -d' ' | tail -n1)
MeasuredDifference=$(( 100 * MeasuredClockspeedStart / MeasuredClockspeedFinished ))
if [ ${MeasuredDifference:-100} -gt 103 ]; then
# if measured clockspeed differs by more than 3% comparing begin and end of
# benchmarking then add a throttling warning
ThrottlingWarning="${LRED}${BOLD} (throttled)${NC}"
fi
fi
fi
fi
# Add a line suitable for Results.md on Github if not in efficiency plotting or PTS, GB or review mode
if [ "X${PlotCpufreqOPPs}" != "Xyes" ] && [ "X${MODE}" != "Xpts" ] && [ "X${MODE}" != "Xgb" ] && [ "X${REVIEWMODE}" != "Xtrue" ]; then
KernelArch="$(uname -m | sed -e 's/armv7l/armhf/' -e 's/aarch64/arm64/')"
if [ "X${KernelArch}" = "X" ] || [ "X${KernelArch}" = "X${ARCH}" ]; then
DistroInfo="${OperatingSystem} ${ARCH}"
else
DistroInfo="${OperatingSystem} ${KernelArch}/${ARCH}"
fi
echo -e "\n| ${DeviceName:-$HostName} | ${MHz}${ThrottlingWarning} | ${ShortKernelVersion} | ${DistroInfo} | ${ZipScore} | ${ZipScoreSingleThreaded} | ${OpenSSLScore} | ${MemBenchScore} | ${CpuminerScore:-"-"} |\c" | sed -e 's/ / /g' -e "s,\x1B\[[0-9;]*[a-zA-Z],,g" >>"${ResultLog}"
fi
} # SummarizeResults
LogEnvironment() {
# Log processor info if available and we're not running virtualized:
if [ "X${VirtWhat}" = "X" ] || [ "X${VirtWhat}" = "Xnone" ] || [ "X${DMIProductName}" = "XApple Virtualization Generic Platform" ]; then
command -v dmidecode >/dev/null 2>&1 && \
ProcessorInfo="$(dmidecode -t processor 2>/dev/null | grep -E -v -i "^#|^Handle|Serial|O.E.M.|1234567|SMBIOS|: Not |Unknown|OUT OF SPEC|00 00 00 00 00 00 00 00|: None|Scanning ")"
if [ "X${ProcessorInfo}" != "X" ]; then
echo -e "\n${ProcessorInfo}\n"
fi
fi
# report ARM/RISC-V/Loongson SoCs if possible
if [ "X${GuessedSoC}" != "Xn/a" ]; then
echo -e "\nSoC guess: ${GuessedSoC}"
elif [ "X${CPUSignature}" != "X" ]; then
if [ "X${CPUFetchGuess}" != "X" ]; then
echo -e "\nSoC guess: ${CPUFetchGuess} (${CPUSignature})"
else
echo -e "\nSignature: ${CPUSignature}"
fi
else
echo ""
fi
# check whether it's a Rockchip BSP kernel with dmc enabled
DMCGovernor="/sys/devices/platform/dmc/devfreq/dmc/governor"
if [ -f "${DMCGovernor}" ]; then
read UsedDMCGovernor <"${DMCGovernor}"
case ${UsedDMCGovernor} in
userspace|powersave|performance)
# report also configured RAM clock
read DRAMClock <"${DMCGovernor%/*}/cur_freq"
DMCGovernorSettings="${UsedDMCGovernor} ($(( ${DRAMClock} / 1000000 )) MHz)"
;;
*)
# check whether uptreshold and downdifferential values exist and if true report it
if [ -f "${DMCGovernor%/*}/upthreshold" ]; then
# report DMC governor and upthreshold value
read upthreshold <"${DMCGovernor%/*}/upthreshold"
if [ -f "${DMCGovernor%/*}/downdifferential" ]; then
# report DMC governor and upthreshold/downdifferential values
read downdifferential <"${DMCGovernor%/*}/downdifferential"
DMCGovernorSettings="${UsedDMCGovernor} (upthreshold: ${upthreshold}, downdifferential: ${downdifferential})"
else
# report DMC governor and upthreshold value
DMCGovernorSettings="${UsedDMCGovernor} (upthreshold: ${upthreshold})"
fi
else
# report only DMC governor
DMCGovernorSettings="${UsedDMCGovernor}"
fi
;;
esac
echo -e " DMC gov: ${DMCGovernorSettings}"
fi
# log /proc/device-tree/compatible contents if available
if [ "X${DTCompatible}" != "X" ]; then
echo "DT compat: $(head -n1 <<<"${DTCompatible}")"
tail -n +2 <<<"${DTCompatible}" | sed -e 's/^/ /'
fi
# Log compiler version if not in Geekbench mode
if [ "X${MODE}" != "Xgb" ]; then
GCC_Info="$(${GCC} -v 2>&1 | grep -E "^Target|^Configured")"
echo -e " Compiler: ${GCC} ${GCC_Version} / $(awk -F": " '/^Target/ {print $2}' <<< "${GCC_Info}")"
fi
# Log userland architecture if available
[ "X${ARCH}" != "X" ] && echo " Userland: ${ARCH}"
# Log ThreadX version if available
if [ "X${ThreadXVersion}" != "X" ]; then
echo -e " ThreadX: $(awk '/^version/ {print $2}' <<<"${ThreadXVersion}") / $(head -n1 <<<"${ThreadXVersion}")"
vcgencmd_mem_reloc_stats="$("${VCGENCMD}" mem_reloc_stats 2>/dev/null)"
grep -q compactions <<<"${vcgencmd_mem_reloc_stats}" && echo "${vcgencmd_mem_reloc_stats}" | while read ; do
echo " ${REPLY}"
done
fi
# check for VM/container mode to add this to kernel info
[ "X${VirtWhat}" != "X" ] && [ "X${VirtWhat}" != "Xnone" ] && VirtOrContainer=" (${VirtWhat})"
# kernel info
KernelVersion="$(uname -r)"
ShortKernelVersion="$(awk -F"." '{print $1"."$2}' <<<"${KernelVersion}")"
if [ -r /proc/self/smaps ]; then
KernelPageSize="$(awk -F" " '/KernelPageSize/ {print $2$3}' /proc/self/smaps 2>/dev/null | head -n1)"
[ "${KernelPageSize}" != "4kB" ] && PageSize=" (${KernelPageSize})" || PageSize=""
fi
echo -e " Kernel: ${KernelVersion}/${CPUArchitecture}${PageSize}${VirtOrContainer}"
# kernel config
KernelConfig="/boot/config-${KernelVersion}"
if [ -f "${KernelConfig}" ] ; then
grep -E "^CONFIG_HZ|^CONFIG_PREEMPT" "${KernelConfig}" | sed -e 's/^/ /' | sort -V
else
modprobe configs 2>/dev/null
[ -f /proc/config.gz ] && zgrep -E "^CONFIG_HZ|^CONFIG_PREEMPT" /proc/config.gz | sed -e 's/^/ /' | sort -V
fi
# with Rockchip BSP kernels try to report PVTM settings (Process-Voltage-Temperature Monitor)
grep -E "cpu.*pvtm|leakage" <<<"${DMESG}" | awk -F'] ' '{print " "$2}'
# Add kernel version info / warnings
KernelInfo="$(CheckKernelVersion "${KernelVersion}")"
[ -z "${KernelInfo}" ] || echo -e "\n##########################################################################\n"; \
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <<<"${KernelInfo}"
# cache and DIMM info
CacheAndDIMMs="$(CacheAndDIMMDetails)"
[ -z "${CacheAndDIMMs}" ] || echo -e "\n##########################################################################\n${CacheAndDIMMs}" >>"${ResultLog}"
# Always include OPP tables
if [ "X${USE_VCGENCMD}" = "Xtrue" ]; then
# check whether we collected RPi OPP tables when walking through the cpufreq OPP and
# if so include them using the usual sbc-bench format. The whole DVFS thing on RPi
# happens solely inside the closed source ThreadX world.
echo -e "\n##########################################################################" >>"${ResultLog}"
for OPPTable in "${TempDir}"/opp-table-threadx-* ; do
[[ -e "${OPPTable}" ]] || break
echo -e "\n ${OPPTable##*/}:" >>"${ResultLog}"
sort -n <"${OPPTable}" >>"${ResultLog}"
done
else
echo -e "${OPPTables}" >>"${ResultLog}"
fi
# results validation:
echo -e "\n##########################################################################\n"
IsValid="$(ValidateResults | sed -e 's/^/ * /')"
[ -n "${IsValid}" ] && echo -e "Results validation:\n\n${IsValid}\n" | sed "s,\x1B\[[0-9;]*[a-zA-Z],,g"
# add performance relevant governors/policies to results if available:
GovernorStateNow="$(HandleGovernors | grep -v cpufreq-policy)"
PolicyStateNow="$(HandlePolicies)"
if [ "X${GovernorStateNow}" != "X" ] && [ "X${PolicyStateNow}" != "X" ]; then
echo -e "Status of performance related governors found below /sys (w/o cpufreq):\n"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <<<"${GovernorStateNow}" | sed -e 's/^/ * /'
echo -e "\nStatus of performance related policies found below /sys:\n"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <<<"${PolicyStateNow}" | sed -e 's/^/ * /'
elif [ "X${GovernorStateNow}" != "X" ]; then
echo -e "Status of performance related governors found below /sys (w/o cpufreq):\n"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <<<"${GovernorStateNow}" | sed -e 's/^/ * /'
elif [ "X${PolicyStateNow}" != "X" ]; then
echo -e "Status of performance related policies found below /sys:\n"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <<<"${PolicyStateNow}" | sed -e 's/^/ * /'
fi
} # LogEnvironment
ValidateResults() {
# function that checks whether benchmark scores have been invalidated
# check 7-zip version (only 16.02 is ok to compare with results list)
Valid7Zip="$(grep '^p7zip Version' "${ResultLog}" | head -n1 | awk -F" " '{print $3}')"
[ -z "${Valid7Zip}" ] && Valid7Zip="$(grep '^7-Zip ' "${ResultLog}" | head -n1 | awk -F" " '{print $3}')"
[ "X${Valid7Zip}" = "X16.02" ] || [ "X${Valid7Zip}" = "X" ] || echo -e "${LRED}${BOLD}Distro uses problematic 7-zip version ${Valid7Zip}${NC} -> http://tinyurl.com/ukcktbsm"
# report significant mismatches between measured and 'advertised' clockspeeds from
# 1st measurement prior to benchmarking (to rule out later possible throttling effects)
if [ "X${USE_VCGENCMD}" = "Xtrue" ]; then
ClockspeedMismatchBefore="$(grep -B1000 "^Executing ramlat" "${ResultLog}" | grep -A2 "^Checking cpufreq OPP " | awk -F"[()]" '/^Cpufreq OPP:/ {print $2}' | grep "^-" | sort -n | head -n1)"
ClockspeedMismatchAfter="$(grep -A200 "^Testing maximum cpufreq again" "${ResultLog}" | grep -A2 "^Checking cpufreq OPP " | awk -F"[()]" '/^Cpufreq OPP:/ {print $2}' | grep "^-" | sort -n | head -n1)"
else
ClockspeedMismatchBefore="$(grep -B1000 "^Executing ramlat" "${ResultLog}" | grep -A2 "^Checking cpufreq OPP " | awk -F"[()]" '/^Cpufreq OPP:/ {print $4}' | grep "^-" | sort -n | head -n1)"
ClockspeedMismatchAfter="$(grep -A200 "^Testing maximum cpufreq again" "${ResultLog}" | grep -A2 "^Checking cpufreq OPP " | awk -F"[()]" '/^Cpufreq OPP:/ {print $4}' | grep "^-" | sort -n | head -n1)"
fi
if [ "X${ClockspeedMismatchBefore}" != "X" ] && [ "X${ClockspeedMismatchAfter}" != "X" ]; then
OneOrTwoDigitsBefore=$(wc -c <<<"${ClockspeedMismatchBefore}")
OneOrTwoDigitsAfter=$(wc -c <<<"${OneOrTwoDigitsAfter}")
if [ ${OneOrTwoDigitsBefore:-6} -gt 6 ] || [ ${OneOrTwoDigitsAfter:-6} -gt 6 ]; then
# mismatch greater than 9%, print warning in red and bold
echo -e "${LRED}${BOLD}Advertised vs. measured max CPU clockspeed: ${ClockspeedMismatchBefore} before, ${ClockspeedMismatchAfter} after${NC} -> https://tinyurl.com/32w9rr94"
else
echo -e "Advertised vs. measured max CPU clockspeed: ${ClockspeedMismatchBefore} before, ${ClockspeedMismatchAfter} after -> https://tinyurl.com/32w9rr94"
fi
elif [ -f /sys/devices/system/cpu/cpufreq/policy0/scaling_governor ]; then
# cpufreq scaling supported, check we've measured cpufreq before to report 'no mismatch'
grep -q "^Checking cpufreq OPP" "${ResultLog}" && \
echo -e "${LGREEN}Measured clockspeed not lower than advertised max CPU clockspeed${NC}"
fi
# check for certain RPi specifics
if [ -r "${ThreadXConfig}" ]; then
# Check whether arm_boost=1 is missing with BCM2711 rev C0 or later. Armbian 'experts'
# ship with such silly settings but set over_voltage=2 and arm_freq=1800 at the same
# time as such RPi 4 with BCM2711 rev C0 or later running with Armbian will waste more
# energy and starts to throttle earlier since the ARM cores are being fed unnecessarily
# with higher supply voltages than necessary and all of this just due to the usual
# amount of ignorance over at Armbian.
# https://github.com/armbian/build/issues/3400#issuecomment-1011435796
grep -q "arm_boost=1" "${ThreadXConfig}"
if [ $? -ne 0 ] && [ "${BCM2711}" = "C0 or later" ]; then
grep -q "arm_freq=1800" "${ThreadXConfig}"
case $? in
0)
# Armbian settings
echo -e "${LRED}${BOLD}Silly settings: \"arm_boost=1\" missing but \"arm_freq=1800\" set in ${ThreadXConfig}${NC} -> https://tinyurl.com/sbmvhwpf"
;;
*)
echo -e "${LRED}${BOLD}\"arm_boost=1\" missing in ${ThreadXConfig}${NC} -> https://tinyurl.com/sbmvhwpf"
;;
esac
fi
# check whether temp_soft_limit is defined since otherwise on certain RPi models
# the max clockspeed is silently lowered from 1400 to 1200 MHz once 60°C are hit
case "${DeviceName}" in
"Raspberry Pi 3 Model B Plus"*|"Raspberry Pi 3 Model A Plus"*|"Raspberry Pi Compute Module 3 Plus"*)
grep -q "arm_freq=1200" <<<"${ActualThreadXsettings}"
LimitedTo1200=$?
grep -q "temp_soft_limit" "${ThreadXConfig}"
TempSoftLimitSet=$?
[ ${LimitedTo1200} -ne 0 ] && [ ${TempSoftLimitSet} -ne 0 ] && echo "\"temp_soft_limit\" not set in ${ThreadXConfig} -> https://tinyurl.com/4e3kpt6n"
;;
esac
fi
# Swapping? Skip if there's no swap configured
ProcSwapLines=$(wc -l https://tinyurl.com/3h222wnh"
# check whether zswap sits on top of zram
[ -r /sys/module/zswap/parameters/enabled ] && ZswapEnabled="$(sed 's/Y/1/' https://tinyurl.com/spkr8ytz"
else
echo -e "${LRED}${BOLD}Swapping occured${NC} -> https://tinyurl.com/3h222wnh"
if [ "X${VirtWhat}" = "X" ] || [ "X${VirtWhat}" = "Xnone" ]; then
# identify type of swap only when not running inside a VM
SlowSwap="$(ListSwapDevices | sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" | awk -F") on " '{print $2}' | sed '/^$/d' | tr '\n' ',' | sed -e 's/,/, /g' -e 's/, $//')"
[ -z "${SlowSwap}" ] || echo -e "${LRED}${BOLD}Swap configured on ${SlowSwap}${NC}"
fi
fi
fi
fi
# Too high %system utilization (mostly caused by swapping on zram enabled systems)?
UtilizationValues="$(grep -A2000 -E "^System health while running tinymembench|^System health while running ramlat" "${MonitorLog}" | sed '/^Time/,+1 d' | awk -F"MHz " '/^[0-9]/ {print $2}' | awk -F" " '{print $3}' | sed 's/%//')"
PeakSysUtilization=$(sort -n -r <<<"${UtilizationValues}" | head -n1)
LogLength=$(wc -l <<<"${UtilizationValues}")
UtilizationSum=$(awk '{s+=$1} END {printf "%.0f", s}' <<<"${UtilizationValues}")
AverageSysUtilization=$(( ${UtilizationSum} / ${LogLength} ))
if [ ${PeakSysUtilization:-0} -gt 15 ] || [ ${AverageSysUtilization:-0} -gt 0 ]; then
echo -e "${LRED}${BOLD}Too much background activity (%system): ${AverageSysUtilization}% avg, ${PeakSysUtilization}% max${NC} -> https://tinyurl.com/mr2wy5uv"
else
# only report background activity being ok when not running inside a VM/container
[ "X${VirtWhat}" = "X" ] || [ "X${VirtWhat}" = "Xnone" ] && echo -e "${LGREEN}Background activity (%system) OK${NC}"
fi
# Too high overall CPU utilization with single threaded benchmarks? This is an indication
# of background activities needing too much CPU ressources. Skip in MODE=extensive/gb/pts
# Skip also if count of CPU cores is 1 or $1 is review
if [ "X${MODE}" != "Xextensive" ] && [ "X${MODE}" != "Xpts" ] && [ "X${MODE}" != "Xgb" ] && [ ${CPUCores} -gt 1 ] && [ "X$1" != "Xreview" ]; then
IdealUtilization=$(( 100 / ${CPUCores} ))
UtilizationValues="$(grep -A2000 "^System health while running tinymembench" "${MonitorLog}" | grep -B2000 -E " 7-zip multi | 7-zip cluster " | sed '/^Time/,+1 d' | awk -F"MHz " '/^[0-9]/ {print $2}' | awk -F" " '{print $2}' | sed 's/%//' | while read ; do [ ${REPLY} -ge ${IdealUtilization} ] && echo ${REPLY} ; done)"
PeakCPUUtilization=$(sort -n -r <<<"${UtilizationValues}" | head -n1)
LogLength=$(wc -l <<<"${UtilizationValues}")
UtilizationSum=$(awk '{s+=$1} END {printf "%.0f", s}' <<<"${UtilizationValues}")
AverageCPUUtilization=$(( ${UtilizationSum} / ${LogLength} ))
PeakDiff=$(( ${PeakCPUUtilization} - ${IdealUtilization} ))
AverageDiff=$(( ${AverageCPUUtilization} - ${IdealUtilization} ))
case ${CPUCores} in
2)
# 8% peak and 2% average is acceptable
[ ${PeakDiff} -gt 8 ] || [ ${AverageDiff} -gt 2 ] && echo -e "${LRED}${BOLD}Too much other background activity: ${AverageDiff}% avg, ${PeakDiff}% max${NC} -> https://tinyurl.com/mr2wy5uv"
;;
4)
# 5% peak and 1% average is acceptable
[ ${PeakDiff} -gt 5 ] || [ ${AverageDiff} -gt 1 ] && echo -e "${LRED}${BOLD}Too much other background activity: ${AverageDiff}% avg, ${PeakDiff}% max${NC} -> https://tinyurl.com/mr2wy5uv"
;;
5|6)
# 3% peak and 1% average is acceptable
[ ${PeakDiff} -gt 3 ] || [ ${AverageDiff} -gt 1 ] && echo -e "${LRED}${BOLD}Too much other background activity: ${AverageDiff}% avg, ${PeakDiff}% max${NC} -> https://tinyurl.com/mr2wy5uv"
;;
8)
# 2% peak and 0% average is acceptable
[ ${PeakDiff} -gt 2 ] || [ ${AverageDiff} -gt 0 ] && echo -e "${LRED}${BOLD}Too much other background activity: ${AverageDiff}% avg, ${PeakDiff}% max${NC} -> https://tinyurl.com/mr2wy5uv"
;;
*)
# With more CPU cores it's impossible to detect 'sane environment' so only
# notify if average utilization is off by more than 0%
[ ${AverageDiff} -gt 0 ] && echo -e "${LRED}${BOLD}Too much other background activity: ${AverageDiff}% avg, ${PeakDiff}% max${NC} -> https://tinyurl.com/mr2wy5uv"
;;
esac
fi
# check for out of memory events (oom-killer invocations)
if [ -s "${TempDir}/dmesg" ]; then
OOMCount="$(grep -c "oom-killer" "${TempDir}/dmesg")"
if [ ${OOMCount:-0} -gt 0 ]; then
case ${ProcSwapLines} in
1)
echo -e "${LRED}${BOLD}${OOMCount} oom-killer invocations (system too low on RAM and no ZRAM configured)${NC} -> https://tinyurl.com/ytma8u4e"
;;
*)
echo -e "${LRED}${BOLD}${OOMCount} oom-killer invocations (system too low on RAM and insufficient swap configured)${NC} -> https://tinyurl.com/ytma8u4e"
;;
esac
fi
fi
# powercap on Intel?
if [ -d /sys/devices/virtual/powercap/intel-rapl ]; then
grep -q -i GenuineIntel <<< "${ProcCPU}" && echo -e "Powercap detected. Details: \"sudo powercap-info -p intel-rapl\" -> https://tinyurl.com/4jh9nevj"
fi
# temporarily killed CPU cores due to overheating with Amlogic SoCs and BSP kernel
if [ ! -f "${TempDir}/dmesg" ]; then
# filter dmesg output to contain only contents from start of benchmarking
TimeStamp="$(dmesg | tr -d '[' | tr -d ']' | awk -F" " '/sbc-bench started/ {print $1}' | tail -n1)"
dmesg | sed "/${TimeStamp}/,\$!d" | grep -E -v 'sbc-bench started|started with executable stack' >"${TempDir}/dmesg"
fi
KilledCPUs="$(grep "CPU[0-7]: shutdown" "${TempDir}/dmesg" | awk -F" " '{print $2}' | sort | uniq | tr "\n" ":" | sed -e 's/::/, /g')"
if [ "X${KilledCPUs}" != "X" ]; then
ThrottlingWarning="${LRED}${BOLD} (throttled)${NC}"
echo -e "${LRED}${BOLD}Overheating resulted in CPU cores temporarily being stopped ($(sed 's/, $//' <<<"${KilledCPUs,,}"))${NC} -> https://tinyurl.com/2jetn2eb"
fi
# Throttling and frequency capping on RPi?
if [ "${USE_VCGENCMD}" = "true" ]; then
case "${ThrottlingCheck}" in
*"requency capping"*)
[ "${ThrottlingWarning}" = "" ] && echo -e "${LRED}${BOLD}Frequency capping (under-voltage) occured${NC} -> https://tinyurl.com/3j2c66kd" || echo -e "${LRED}${BOLD}Throttling / frequency capping (under-voltage) occured${NC} -> https://tinyurl.com/4ky59sys / https://tinyurl.com/3j2c66kd"
;;
*)
[ "${ThrottlingWarning}" = "" ] && echo -e "${LGREEN}No throttling${NC}" || echo -e "${LRED}${BOLD}Throttling occured${NC} -> https://tinyurl.com/4ky59sys"
;;
esac
else
# Throttling on all other systems?
if [ "${ThrottlingWarning}" = "" ] && [ -f /sys/devices/system/cpu/cpufreq/policy0/stats/time_in_state ]; then
# only report 'No throttling' when cpufreq statistics are available and not
# running inside a VM/container
[ "X${VirtWhat}" = "X" ] || [ "X${VirtWhat}" = "Xnone" ] && echo -e "${LGREEN}No throttling${NC}"
elif [ "${ThrottlingWarning}" != "" ]; then
# we need to check whether we're running in Geekbench or PTS mode since the
# cluster tests on CPUs with different core types end up with the CPUs remaining
# on lower clockspeeds for a fraction of time when bringing them back online
# which then results in stats/time_in_state cpufreq statistics showing the cores
# not all the time at maximum clockspeed.
if [ "X${MODE}" != "Xpts" ] && [ "X${MODE}" != "Xgb" ]; then
echo -e "${LRED}${BOLD}Throttling occured${NC} -> https://tinyurl.com/4ky59sys"
else
echo -e "Throttling might have occured -> https://tinyurl.com/4ky59sys"
fi
fi
fi
# ondemand governor used by distro but inappropriate settings on at least some cores
if [ "X$1" = "Xreview" ] && [ "${OriginalCPUFreqGovernor}" = "ondemand" ] && [[ -n "${io_is_busy[@]}" ]]; then
grep -q 0 <<<"${io_is_busy[@]}" && echo -e "${LRED}${BOLD}ondemand cpufreq governor used by distro but io_is_busy not set to 1 on all cores${NC} -> http://tinyurl.com/44pbmw79"
elif [ "X$1" = "Xreview" ] && [ "${OriginalCPUFreqGovernor}" = "ondemand" ] && [[ -z "${io_is_busy[@]}" ]]; then
echo -e "${LRED}${BOLD}ondemand cpufreq governor used by distro but io_is_busy not active${NC} -> http://tinyurl.com/44pbmw79"
fi
# check DT settings on big.LITTLE ARM designs for scheduler relevant stuff:
if [ -d /proc/device-tree/cpus ] && [ ${#ClusterConfig[@]} -ne 1 ]; then
capacitydmipsmhz=$(find /proc/device-tree/cpus -name capacity-dmips-mhz | wc -l)
if [ ${capacitydmipsmhz} -eq 0 ]; then
echo "${LRED}${BOLD}${#ClusterConfig[@]} different clusters but capacity-dmips-mhz property not set${NC}"
elif [ ${capacitydmipsmhz} -ne ${CPUCores} ]; then
echo "${LRED}${BOLD}${#ClusterConfig[@]} different clusters and ${CPUCores} cores but capacity-dmips-mhz property only set on ${capacitydmipsmhz}${NC}"
fi
if [ "${OriginalCPUFreqGovernor}" = "schedutil" ]; then
dynamicpowercoefficient=$(find /proc/device-tree/cpus -name dynamic-power-coefficient | wc -l)
schedenergycosts=$(find /proc/device-tree/cpus -name sched-energy-costs | wc -l)
if [ ${dynamicpowercoefficient} -eq 0 ] && [ ${schedenergycosts} -eq 0 ]; then
echo "${LRED}${BOLD}${OriginalCPUFreqGovernor} cpufreq governor configured but neither dynamic-power-coefficient nor sched-energy-costs defined${NC}"
elif [ ${dynamicpowercoefficient} -ne ${CPUCores} ]; then
echo "${OriginalCPUFreqGovernor} cpufreq governor configured: ${CPUCores} cores available vs. only ${dynamicpowercoefficient} dynamic-power-coefficient DT nodes"
elif [ ${schedenergycosts} -ne ${CPUCores} ]; then
echo "${OriginalCPUFreqGovernor} cpufreq governor configured: ${CPUCores} cores available vs. only ${schedenergycosts} sched-energy-costs DT nodes"
fi
fi
fi
} # ValidateResults
ListSwapDevices() {
# function to list swap devices
grep -q "/dev/zram" /proc/swaps && ZRAMCtl="$(zramctl -n -o NAME,DISKSIZE,ALGORITHM,STREAMS,DATA,COMPR,TOTAL)"
[ -r /sys/module/zswap/parameters/enabled ] && ZswapEnabled="$(sed 's/Y/1/' {"target": "/", "source": "/dev/mmcblk1p1", "fstype": "ext4", "options": "rw,noatime,nodiratime,errors=remount-ro,commit=600"} -> /sys/block/mmcblk1/device/type (SD or MMC)
SwapDevicePartition="$(findmnt -U "$(stat --printf=%m ${SwapDevice})" | grep "^/" | awk -F" " '{print $2}')"
if [ "X${SwapDevicePartition}" = "Xoverlay" ] && [ -r /proc/cmdline ]; then
# FriendlyELEC images using overlayfs: https://wiki.friendlyelec.com/wiki/index.php/How_to_use_overlayfs_on_Linux
RootPartition="$(tr ' ' '\n' /dev/null || \
sed '/^$/N;/^\n$/D' <"${ResultLog}" | sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" | curl -s -F ${UploadScheme} ${UploadServer})
# Display benchmark results if not in PTS, GB or preview mode
if [ "X${MODE}" != "Xpts" ] && [ "X${MODE}" != "Xgb" ] && [ "X${REVIEWMODE}" != "Xtrue" ]; then
[ "X${IsValid}" != "X" ] && echo -e "${BOLD}Results validation:${NC}\n\n${IsValid}\n"
MemoryScores="$(awk -F" " '/^ libc / {print $2$4" "$5" "$6}' <"${ResultLog}" | grep -E 'memcpy|memset' | awk -F'MB/s' '{print $1"MB/s"}')"
CountOfMemoryScores=$(wc -l <<<"${MemoryScores}")
if [ ${#ClusterConfig[@]} -eq 1 ] || [ $(( ${#ClusterConfig[@]} * 2 )) -ne ${CountOfMemoryScores} ]; then
# if only 1 CPU cluster or mismatch between count of memory scores and cluster members
# then report plain results
echo -e "${BOLD}Memory performance${NC}\n${MemoryScores}"
else
# suffix memory scores with core types if possible
ClusterInfo=" (all ${#ClusterConfig[@]} CPU clusters measured individually)"
echo -e "${BOLD}Memory performance${NC}${ClusterInfo}:"
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
CPUInfo="$(GetCPUInfo ${ClusterConfig[$i]})"
echo "$(grep "^memcpy:" <<<"${MemoryScores}" | sed -n $(( ${i} + 1 ))p)${CPUInfo}"
echo "$(grep "^memset:" <<<"${MemoryScores}" | sed -n $(( ${i} + 1 ))p)${CPUInfo}"
done
fi
if [ "${ExecuteCpuminer}" = "yes" ] && [ -x "${InstallLocation}"/cpuminer-multi/cpuminer ]; then
echo -e "\n${BOLD}Cpuminer total scores${NC} (5 minutes execution): $(awk -F"Total Scores: " '/^Total Scores: / {print $2}' "${ResultLog}") kH/s"
fi
if [ "${ExecuteStockfish}" = "yes" ] && [ -x "${InstallLocation}/Stockfish-sf_15/src/stockfish" ]; then
echo -e "\n${BOLD}Stockfish scores${NC} (${RunHowManyTimes} consecutive runs): ${StockfishScores} nodes/second"
fi
echo -e "\n${BOLD}7-zip total scores${NC} (${RunHowManyTimes} consecutive runs): $(awk -F" " '/^Total:/ {print $2}' "${ResultLog}"), single-threaded: ${ZipScoreSingleThreaded}"
if [ -f "${OpenSSLLog}" ]; then
echo -e "\n${BOLD}OpenSSL results${NC}${ClusterInfo}:\n$(grep '^type' "${OpenSSLLog}" | head -n1)"
grep '^aes-...-cbc' "${OpenSSLLog}"
fi
elif [ "X${MODE}" = "Xgb" ]; then
echo -e "First run:\n"
case ${GBVersion} in
5.*)
grep ' Score ' "${TempLog}" | sed '/Multi-Core*/i \ \ \ '
echo -e "\nSecond run:\n"
grep ' Score ' "${TempLog2}" | sed '/Multi-Core*/i \ \ \ '
;;
6.*)
grep ' Score ' "${TempLog}"
echo -e "\nSecond run:\n"
grep ' Score ' "${TempLog2}"
;;
esac
echo -e "\n${CompareURL}\n"
[ "X${IsValid}" != "X" ] && echo -e "${BOLD}Results validation:${NC}\n\n${IsValid}\n"
elif [ "X${REVIEWMODE}" = "Xtrue" ] && [ "X${NOTUNING}" != "Xyes" ]; then
[ "X${IsValid}" != "X" ] && echo -e "${BOLD}Results validation:${NC}\n\n${IsValid}\n"
fi
case ${UploadURL} in
http*)
# uploading results worked, check sanity of results and environment
echo " ${UploadURL} |" | sed 's/http:/https:/' >>"${ResultLog}"
echo -e "\nFull results uploaded to ${UploadURL}\c" | sed 's/http:/https:/'
# check whether benchmark ran into a sane environment (no throttling and no swapping)
if [ ${IOWaitAvg:-0} -le 2 ] && [ ${IOWaitMax:-0} -le 5 ] && [ ${SysMax:-0} -le 5 ] && [ ! -f "${TempDir}/throttling_info.txt" ]; then
# in case it's not x86/x64 then also suggest adding results to official list
case ${CPUArchitecture} in
arm*|aarch*|riscv*|mips*|loongarch*)
# not running on x86/x64, neither throttling nor relevant swapping occured.
# Check whether SoC in question is already known since if true no more
# submissions to official results are needed
grep -q "^SoC guess:" "${ResultLog}"
if [ $? -ne 0 ] && [ "X${MODE}" != "Xunattended" ]; then
# not an already known SoC, so suggest submitting results
echo -e "\n\nIn case this device ${BOLD}is not already represented${NC} in official sbc-bench results list then please"
echo -e "consider submitting it at https://github.com/ThomasKaiser/sbc-bench/issues with this line:"
tail -n 1 "${ResultLog}"
fi
echo
;;
esac
fi
;;
*)
if [ "X${MODE}" != "Xunattended" ]; then
echo -e " |\n\n" >>"${ResultLog}"
echo -e "\nUnable to upload full test results. Please copy&paste the below stuff to pastebin.com and\nprovide the URL. Check the output for throttling and swapping please.\n\n" >&2
sed '/^$/N;/^\n$/D' <"${ResultLog}" >&2
fi
;;
esac
# write continous log, see
# Skip log writing if log is a symlink to somewhere else
[ -h /var/log/sbc-bench.log ] && return 1
[ -s /var/log/sbc-bench.log ] && echo -e "\n\n\n" >>/var/log/sbc-bench.log
sed '/^$/N;/^\n$/D' <"${ResultLog}" >>/var/log/sbc-bench.log
echo ""
# On systems running with Rockchip BSP kernel check DMC governor settings and if not
# optimal, suggest retesting with performance DMC governor
if [ -f "${DMCGovernor}" ]; then
if [ "X${UsedDMCGovernor}" != "Xperformance" ]; then
echo -e "\n${LRED}${BOLD}WARNING:${NC} ${LRED}The DMC governor settings of this device are not adjusted for performance${NC}"
echo -e "${LRED}and as such DRAM bandwidth and latency might have been severly harmed. Your current\nsettings: ${DMCGovernorSettings}\n${NC}"
echo -e "${LRED}For a discussion wrt settings see https://github.com/ThomasKaiser/Knowledge/issues/7${NC}\n"
echo -e "${LRED}It is strongly advised to ${BOLD}switch to maximum performance and run sbc-bench again${NC} ${LRED}to be${NC}"
echo -e "${LRED}able to compare real hardware performance with default settings of this distro/kernel.${NC}"
echo -e "${LRED}You might want to execute this now and call sbc-bench again directly afterwards:\n${NC}"
echo -e "${LRED}echo performance | sudo tee ${DMCGovernor}\n${NC}"
echo -e "${LRED}Alternatively you can simply use review mode: sbc-bench -r\n${NC}"
fi
fi
} # UploadResults
CheckIOWait() {
IOWait="$(awk -F" " '/^[0-9]/ {print $8}' <"${MonitorLog}" | sed 's/%//')"
LogLength=$(wc -l <<<"${IOWait}")
IOWaitSum="$(awk '{s+=$1} END {printf "%.0f", s}' <<<"${IOWait}")"
echo $(( ${IOWaitSum} * 10 / ${LogLength} ))
} # CheckIOWait
CheckCPUUtilization() {
# $1 is the CPU utilization w/o any disturbing background tasks, e.g. 50% on a dual
# core system, 12% on an octa core, %25 on a quad core and so on
IOWait="$(awk -F" " '/^[0-9]/ {print $8}' <"${MonitorLog}" | sed 's/%//')"
LogLength=$(wc -l <<<"${IOWait}")
IOWaitSum="$(awk '{s+=$1} END {printf "%.0f", s}' <<<"${IOWait}")"
echo $(( ${IOWaitSum} * 10 / ${LogLength} ))
} # CheckCPUUtilization
CheckForThrottling() {
# skip this check if $MaxKHz is set
[ "X${MaxKHz}" != "X" ] && return
# Check for throttling on normal ARM or RISC-V SBC (on x86 cpufreq statistics are
# more or less irrelevant)
case ${CPUArchitecture} in
arm*|aarch*|riscv*)
if [ -f /sys/devices/system/cpu/cpufreq/policy0/stats/time_in_state ]; then
ls /sys/devices/system/cpu/cpufreq/policy?/stats/time_in_state | sort | while read ; do
Number=$(echo ${REPLY} | tr -c -d '[:digit:]')
diff "${TempDir}/time_in_state_after_${Number}" "${TempDir}/time_in_state_before_${Number}" >/dev/null 2>&1
if [ $? -ne 0 ]; then
if [ ${#ClusterConfig[@]} -eq 1 ]; then
# all CPU cores have same cpufreq policies, we report globally
ReportCpufreqStatistics ${Number}
echo -e "${LRED}${BOLD}ATTENTION: Throttling${SwapWarning} occured. Check the log for details.${NC}\n"
else
# separate swapping warning:
[ "${SwapWarning}" = "" ] || echo -e "${LRED}${BOLD}ATTENTION: Swapping has occured invalidating benchmark scores.${NC}\n"
# report affected cluster
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
if [ ${ClusterConfig[$i]} -eq ${Number} ]; then
FirstCore=${Number}
LastCore=$(GetLastClusterCore $(( ${i} + 1 )))
CPUInfo="$(GetCPUInfo ${Number})"
ReportCpufreqStatistics ${Number} " for CPUs ${FirstCore}-${LastCore}${CPUInfo}"
echo -e "${LRED}${BOLD}ATTENTION: Throttling occured on CPUs ${FirstCore}-${LastCore}${CPUInfo}. Check the log for details.${NC}\n"
fi
done
fi
fi
done
fi
# Check for killed CPU cores. Some unfortunate users might still use Allwinner BSP kernels
CPUCoresNow=$(lscpu | awk -F" " '/^CPU...:/ {print $2}')
if [ ${CPUCoresNow} -lt ${CPUCores} ]; then
echo -e "${LRED}${BOLD}ATTENTION: Due to overheating prevention $(( ${CPUCores} - ${CPUCoresNow} )) CPU cores have been killed. Check the log for details.${NC}\n"
fi
# Check for throttling/undervoltage on Raspberry Pi
grep -q '1400/1200MHz' "${MonitorLog}" && Warning="ATTENTION: Silent throttling has occured. Check the log for details."
if [ ${USE_VCGENCMD} = true ] ; then
Health="$(LC_ALL=C perl -e "printf \"%19b\n\", $("${VCGENCMD}" get_throttled | cut -f2 -d=)" 2>/dev/null | tr -d '[:blank:]')"
# https://forum.armbian.com/topic/7763-benchmarking-cpus/?do=findComment&comment=59042
HealthLength=$(wc -c <<<"${Health}")
[ ${HealthLength} -eq 19 ] && Health="0${Health}"
case ${Health} in
10*)
Warning="ATTENTION: Frequency capping to 600 MHz${SwapWarning} has occured. Check the log for details."
ReportRPiHealth ${Health} >>"${TempDir}/throttling_info.txt"
;;
01*)
Warning="ATTENTION: Throttling${SwapWarning} has occured. Check the log for details."
ReportRPiHealth ${Health} >>"${TempDir}/throttling_info.txt"
;;
11*)
Warning="ATTENTION: Throttling and frequency capping${SwapWarning} has occured. Check the log for details."
ReportRPiHealth ${Health} >>"${TempDir}/throttling_info.txt"
;;
esac
if [ "X${Warning}" = "X" ]; then
echo -e "${LGREEN}No downclocking of CPU cores occured.${NC}\n"
else
echo -e "${LRED}${BOLD}${Warning}${NC}\n"
fi
fi
;;
esac
} # CheckForThrottling
ReportCpufreqStatistics() {
# Displays cpufreq driver statistics from before and after the benchmark as comparison
if [ -f "${TempDir}/full_time_in_state_before_${1}" ]; then
echo -e "\nThrottling statistics (time spent on each cpufreq OPP)${2}:\n" >>"${TempDir}/throttling_info.txt"
awk -F" " '{print $1}' <${TempDir}/full_time_in_state_before_${1} | sort -r -n | while read ; do
if [ ${REPLY} -le ${MaxKHz:-90000000} ]; then
BeforeValue=$(awk -F" " "/^${REPLY} / {print \$2}" <${TempDir}/full_time_in_state_before_${1})
AfterValue=$(awk -F" " "/^${REPLY} / {print \$2}" <${TempDir}/full_time_in_state_after_${1})
if [ ${AfterValue} -eq ${BeforeValue} ]; then
Duration=0
else
Duration=$(awk '{printf ("%0.2f",$1/100); }' <<<$(( ${AfterValue} - ${BeforeValue} )) )
fi
echo -e "$(printf "%4s" $(( ${REPLY} / 1000 )) ) MHz: $(printf "%7s" ${Duration}) sec" >>"${TempDir}/throttling_info.txt"
fi
done
fi
} # ReportCpufreqStatistics
Parse_ADC_Readouts() {
# this function tries to multiply all amperage and voltage values spitten out by the
# RPi 5B PMIC ADCs. Querying ThreadX via 'vcgencmd pmic_read_adc' will result in
# something like this: https://gist.github.com/ThomasKaiser/f98c6f97a2f82d85791cbaf6cebf10b8
grep current <<<"${1}" | while read ; do
PowerRail="${REPLY%_A*}"
Ampere=$(sed 's/A//' <<<"${REPLY##*=}")
Voltage=$(grep "${PowerRail}_V" <<<"${1}")
[ -n "${Voltage}" ] && echo "${Ampere} ${Voltage##*=}" | sed 's/V//'
done
} # Parse_ADC_Readouts
ReportRPiHealth() {
# Displaying the 'vcgencmd get_throttled' output in an understandable way
echo -e "\nQuerying ThreadX on RPi for thermal or undervoltage issues:\n\n${1}"
cat <<-EOF
||| |||_ under-voltage
||| ||_ currently throttled
||| |_ arm frequency capped
|||_ under-voltage has occurred since last reboot
||_ throttling has occurred since last reboot
|_ arm frequency capped has occurred since last reboot
EOF
} # ReportRPiHealth
CacheAndDIMMDetails() {
DIMMDetails="$(lshw -C memory 2>/dev/null | grep -E "^ |-bank:" | grep -vi "serial:")"
if [ "X${DIMMDetails}" != "X" ]; then
if [ "X${VirtWhat}" = "X" ] || [ "X${VirtWhat}" = "Xnone" ]; then
# only report DIMM config when running bare metal
echo "${DIMMDetails}" >"${TempDir}/dimms"
# unfortunately lshw only reports max clockspeeds of DIMM modules so we try to
# get configured speed via dmidecode as well
DIMMFilter="$(echo -e "\tLocator:|\tConfigured Memory Speed:|\tConfigured Clock Speed:")"
command -v dmidecode >/dev/null 2>&1 && dmidecode --type 17 | grep -E "${DIMMFilter}" | tr "\n" "|" | sed -e 's/|\tCon/:/g' -e 's/\ //g' | tr '|' '\n' | grep -vi "unknown$" | while read ; do
Pattern="$(awk -F":" '{print $2}' <<<"${REPLY}")"
Insertion="$(awk -F":" '{print $4}' <<<"${REPLY}" | sed 's/\//\\\//')"
if [ "X${Insertion}" != "X" ]; then
sed -i "s/^ slot: ${Pattern}$/ configured speed: ${Insertion}/g" "${TempDir}/dimms"
fi
done
echo -e "\nDIMM configuration:"
cat "${TempDir}/dimms"
fi
fi
# in MODE=extensive check wether there's even more detailed DIMM info available via i2c
if [ "X${MODE}" = "Xextensive" ]; then
unset DIMMDetails
modprobe eeprom >/dev/null 2>&1
command -v decode-dimms >/dev/null 2>&1 && \
DIMMDetails="$(decode-dimms 2>/dev/null | sed -ne '/Decoding EEPROM/,$ p' | sed '/^$/N;/^\n$/D' | grep -v Serial)"
if [ "X${DIMMDetails}" != "X" ]; then
echo -e "\n${DIMMDetails}"
fi
fi
if [ ${#ClusterConfig[@]} -gt 1 ] || [ "${CPUArchitecture}" = "riscv64" ]; then
# only output individual cache sizes from sysfs on RISC-V or if more than 1 CPU
# cluster (since otherwise lscpu already reported the full picture)
find /sys/devices/system/cpu -name "cache" -type d 2>/dev/null | sort -V | while read ; do
find "${REPLY}" -name size -type f 2>/dev/null | while read ; do
echo -e "\n${REPLY}: $(cat ${REPLY})\c"
[ -f ${REPLY%/*}/level ] && echo -e ", level: $(cat ${REPLY%/*}/level)\c"
[ -f ${REPLY%/*}/type ] && echo -e ", type: $(cat ${REPLY%/*}/type)\c"
done
done | sed -e 's|/sys/devices/system/cpu/||' -e 's|cache/||' -e 's|/size||' | sort -V
fi
echo ""
} # CacheAndDIMMDetails
GuessARMSoC() {
# function that tries to guess ARM SoC names correctly
#
# ARM core types/steppings this function deals with as of early 2024:
# https://gist.github.com/ThomasKaiser/1fef6a6a09b07d48632ca99ec075a1df
#
# For a rough performance estimate wrt different Cortex ARMv8 cores see:
# https://www.cnx-software.com/2021/12/10/starfive-dubhe-64-bit-risc-v-core-12nm-2-ghz-processors/#comment-588823
#
# As for the logic wrt Rockchip and Amlogic BSP kernel output parsing see here please:
# https://gist.github.com/ThomasKaiser/f28027f182ff9ae7bfa60065c950be75
#
# MIDR_EL1 related stuff: https://gist.github.com/ThomasKaiser/d99228ac986378c41f4f8e6bc3f5cb70
#
# Allwinner SID related stuff: https://gist.github.com/ThomasKaiser/05a0ec1685ee19b3713640b06431d2b7
# If in simulation mode (-m and CPUINFOFILE set) skip all SoC vendor specific detection
# mechanisms (dmesg, nvmem)
if [ "X${ProcCPUFile}" != "X/proc/cpuinfo}" ]; then
SoCGuess="$(GuessSoCbySignature)"
if [ "X${SoCGuess}" != "X" ] && [ "X${MonitorMode}" = "XTRUE" ]; then
echo "${SoCGuess}"
return
fi
fi
[ "X${AW_NVMEM}" != "X" ] && Allwinner_SID=" (SID: ${AW_NVMEM:19:2}${AW_NVMEM:16:2}${AW_NVMEM:13:2}${AW_NVMEM:10:2})" || Allwinner_SID=""
HardwareInfo="$(awk -F': ' '/^Hardware/ {print $2}' <<< "${ProcCPU}" | tail -n1)"
RockchipGuess="$(awk -F': ' '/rockchip-cpuinfo cpuinfo: SoC/ {print $3}' <<<"${DMESG}" | head -n1)"
AmlogicGuess="Amlogic Meson$(grep -i " detected$" <<<"${DMESG}" | awk -F"Amlogic Meson" '/Amlogic Meson/ {print $2}' | head -n1)"
AMLS4Guess="$(awk -F"= " '/cpu_version: chip version/ {print $2}' <<<"${DMESG}")"
if [ "X${RockchipGuess}" != "X" ] && [ "X${RockchipGuess}" != "X0" ]; then
# use Rockchip SoC info from dmesg output
if [ "X${RK_NVMEM}" != "X" ] && [ "${RockchipGuess:0:4}" = "3588" ]; then
case "${RK_NVMEM:28:2}" in
21)
echo "Rockchip RK3588 (${RockchipGuess} / ${RK_NVMEM:16:42})"
;;
33)
echo "Rockchip RK3588s (${RockchipGuess} / ${RK_NVMEM:16:42})"
;;
*)
echo "Rockchip RK3588/RK3588s (${RockchipGuess} / ${RK_NVMEM:16:42})"
;;
esac
elif [ "X${RK_NVMEM}" != "X" ]; then
echo "Rockchip RK${RockchipGuess:0:4} (${RockchipGuess} / ${RK_NVMEM:16:42})" | sed 's| RK3588| RK3588/RK3588s|'
else
echo "Rockchip RK${RockchipGuess:0:4} (${RockchipGuess})" | sed 's| RK3588| RK3588/RK3588s|'
fi
elif [ "X${RK_NVMEM}" != "X" ]; then
# use Rockchip NVMEM available below /sys/bus/nvmem/devices/rockchip* to parse SoC model from there
case ${RK_NVMEM:16:5} in
03*|13*|23*|53*|81*)
# reverse order: 52 4b 23 82 -> RK3228, also affects RK3288
# RK3228A and RK3229 share same '52 4b 23 82' signature
echo "Rockchip RK${RK_NVMEM:17:1}${RK_NVMEM:16:1}${RK_NVMEM:20:1}${RK_NVMEM:19:1}" | sed 's|3228|3229/RK3228A|'
;;
33*)
# unknown order, affects RK3306, RK3308, RK3318, RK3326, RK3328, RK3358 and in theory RK3399
case ${RK_NVMEM:19:2} in
80|81|62|82|85)
# reverse order: 52 4b 33 81 -> RK3318, also affects RK3328
echo "Rockchip RK${RK_NVMEM:17:1}${RK_NVMEM:16:1}${RK_NVMEM:20:1}${RK_NVMEM:19:1}"
;;
*)
# normal order
echo "Rockchip RK${RK_NVMEM:16:2}${RK_NVMEM:19:2}"
;;
esac
;;
11*)
# unknown order, affects RV1103, RV1106, RV1109 and RV1126
case ${RK_NVMEM:19:2} in
30|60|62|90)
echo "Rockchip RV11${RK_NVMEM:20:1}${RK_NVMEM:19:1}"
;;
*)
echo "Rockchip RV11${RK_NVMEM:19:2}"
;;
esac
;;
"35 88")
# RK3588/RK3588s, normal order: 52 4b 35 88 -> RK3588
case "${RK_NVMEM:28:2}" in
21)
echo "Rockchip RK3588 / ${RK_NVMEM:16:42}"
;;
33)
echo "Rockchip RK3588s / ${RK_NVMEM:16:42}"
;;
*)
echo "Rockchip RK3588/RK3588s / ${RK_NVMEM:16:42}"
;;
esac
;;
*)
# normal order: 52 4b 35 28 -> RK3528, also affects RK3566, RK3568, RK3582, RK3583
echo "Rockchip RK${RK_NVMEM:16:2}${RK_NVMEM:19:2} / ${RK_NVMEM:16:42}"
;;
esac
elif [ "X${AmlogicGuess}" != "XAmlogic Meson" ]; then
echo "${AmlogicGuess}" | sed -e 's/GXL (Unknown) Revision 21:b (2:2)/GXL (S905D) Revision 21:b (2:2)/' \
-e 's/GXL (Unknown) Revision 21:c (84:2)/GXL (S905X) Revision 21:c (84:2)/' \
-e 's/GXL (Unknown) Revision 21:c (c2:2)/GXL (S905L) Revision 21:c (c2:2)/' \
-e 's/GXL (Unknown) Revision 21:c (e2:2)/GXL (S905X) Revision 21:c (e2:2)/' \
-e 's/GXL (Unknown) Revision 21:d (4:2)/GXL (S905D) Revision 21:d (4:2)/' \
-e 's/GXL (Unknown) Revision 21:d (a4:2)/GXL (S905W) Revision 21:d (a4:2)/' \
-e 's/GXM (Unknown) Revision 22:a (82:2)/GXM (S912) Revision 22:a (82:2)/' \
-e 's/AXG (Unknown) Revision 25:b (43:2)/AXG (A113X) Revision 25:b (43:2)/' \
-e 's/AXG (Unknown) Revision 25:c (43:2)/AXG (A113X) Revision 25:c (43:2)/' \
-e 's/G12A (Unknown) Revision 28:b (30:2)/G12A (S905Y2) Revision 28:b (30:2)/' \
-e 's/G12A (Unknown) Revision 28:c (30:2)/G12A (S905Y2) Revision 28:c (30:2)/' \
-e 's/G12A (Unknown) Revision 28:b (70:2)/G12A (S905L3A) Revision 28:b (70:2)/' \
-e 's/G12A (Unknown) Revision 28:c (70:2)/G12A (S905L3A) Revision 28:c (70:2)/' \
-e 's/SM1 (Unknown) Revision 2b:b (1:2)/SM1 (S905D3) Revision 2b:b (1:2)/' \
-e 's/SM1 (Unknown) Revision 2b:c (10:2)/SM1 (S905X3) Revision 2b:c (10:2)/' \
-e 's/ Detected//' -e 's/ detected//'
elif [ "X${AMLS4Guess}" != "X" ]; then
case ${AMLS4Guess} in
*" 3:4")
echo "Amlogic Meson S4 (S905Y4) Revision ${AMLS4Guess}"
;;
*)
echo "Amlogic Meson S4 (S805X2 or S905Y4) Revision ${AMLS4Guess}"
;;
esac
else
# Guessing by 'Hardware :' in /proc/cpuinfo is something that only reliably works
# with vendor's BSP kernels. With mainline kernel it's impossible to rely on this
case ${HardwareInfo} in
Amlogic*)
ModelName="$(awk -F': ' '/^model name/ {print $2}' <<< "${ProcCPU}" | tail -n1)"
case "${ModelName}" in
Amlogic*)
echo "${ModelName}"
;;
*)
AmLogicSerial="$(awk -F': ' '/^AmLogic Serial/ {print $2}' <<< "${ProcCPU}" | tail -n1)"
if [ "X${AmLogicSerial}" = "X" ]; then
AmLogicSerial="$(awk -F': ' '/^Serial/ {print $2}' <<< "${ProcCPU}" | tail -n1)"
fi
case "${AmLogicSerial}" in
19*)
# Meson8: S802: RevC (19 - 0:27ED)
echo "Amlogic S802"
;;
1b*)
# Meson8B: S805: RevA (1b - 0:B72)
echo "Amlogic S805"
;;
1d*)
# Meson8m2: S812: RevA (1d - 0:74E)
echo "Amlogic S812"
;;
1f??0*|1f??1*)
# GXBB: S905: 1f:b (0:1) / 1f:c (0:1) / 1f:c (13:1)
ParseAmlSerial GXBB S905
;;
1f??23*)
# GXBB: S905H: 1f:c (23:1)
ParseAmlSerial GXBB S905H
;;
1f??20*)
# GXBB: S905M
ParseAmlSerial GXBB S905M
;;
1f*)
# GXBB: S905, S905H, S905M
# - S905: 1f:b (0:1) / 1f:c (0:1)
# - S905H: 1f:c (23:1)
ParseAmlSerial GXBB S905/S905H/S905M
;;
20*)
# GXTVBB
ParseAmlSerial GXTVBB Unknown
;;
21??0*|21??4*)
# GXL: S905D: 21:d (0:2), 21:d (4:2)
ParseAmlSerial GXL S905D
;;
21??3*)
# GXL: S805X: 21:d (34:2)
ParseAmlSerial GXL S805X
;;
21??8*)
# GXL: S905X: 21:a (82:2), 21:b (82:2), 21:c (84:2), 21:d (84:2)
ParseAmlSerial GXL S905X
;;
21??a*)
# GXL: S905W: 21:b (a2:2), 21:e (a5:2)
ParseAmlSerial GXL S905W
;;
21??b*)
# GXL: S805Y
ParseAmlSerial GXL S805Y
;;
21??c*)
# GXL: S905L: 21:b (c2:2), 21:c (c4:2), 21:d (c4:2), 21:e (c5:2)
ParseAmlSerial GXL S905L
;;
21??e*)
# GXL: S905M2: 21:b (e2:2), 21:d (e4:2)
ParseAmlSerial GXL S905M2
;;
21*)
# GXL: S805X, S805Y, S905X, S905D, S905W, S905L, S905L2, S905M2
# - S905D: 21:d (0:2), 21:d (4:2)
# - S805X: 21:d (34:2)
# - S905X: 21:a (82:2), 21:b (82:2), 21:c (84:2), 21:d (84:2)
# - S905W: 21:b (a2:2), 21:e (a5:2)
# - S905L: 21:b (c2:2), 21:c (c4:2), 21:d (c4:2), 21:e (c5:2)
# - S905M2: 21:b (e2:2), 21:d (e4:2)
ParseAmlSerial GXL Unknown
;;
22*)
# GXM: S912: 22:a (82:2), 22:b (82:2)
ParseAmlSerial GXM S912
;;
23*)
# TXL
ParseAmlSerial TXL Unknown
;;
24??10*)
# TXLX: T962X
ParseAmlSerial TXLX T962X
;;
24??20*)
# TXLX: T962E
ParseAmlSerial TXLX T962E
;;
24*)
# TXLX: T962X, T962E
ParseAmlSerial TXLX Unknown
;;
25??22*)
# AXG: A113D
ParseAmlSerial AXG A113D
;;
25??37*)
# AXG: A113X
ParseAmlSerial AXG A113X
;;
25*)
# AXG: A113X, A113D
# - Unknown: 25:b (43:2), 25:c (43:2)
ParseAmlSerial AXG Unknown
;;
26*)
# GXLX, seems to be compatible to GXL since one occurence of ID '26:e (c1:2)'
# has been detected with 'Amlogic Meson GXL (S905X) P212 Development Board'
# and same ID on IPBS9505 TV box
ParseAmlSerial GXLX Unknown
;;
27*)
# TXHD
ParseAmlSerial TXHD Unknown
;;
28??1*)
# G12A: S905D2: 28:b (10:2)
ParseAmlSerial G12A S905D2
;;
28??3*)
# G12A: S905Y2: 28:b (30:2)
ParseAmlSerial G12A S905Y2
;;
28??4*)
# G12A: S905X2: 28:b (40:2)
ParseAmlSerial G12A S905X2
;;
28??7*)
# G12A: S905L3A: 28:b (70:2)
ParseAmlSerial G12A S905L3A
;;
28*)
# G12A: S905X2, S905D2, S905Y2
# - S905X2: 28:b (40:2)
# - S905Y2: 28:b (30:2)
# - S905L3A: 28:b (70:2)
ParseAmlSerial G12A Unknown
;;
29??1*)
# - G12B: A311D: 29:b (10:2)
# - G12B: A311D: 29:c (10:0)
ParseAmlSerial G12B A311D
;;
29??4*)
# - G12B: S922X: 29:a (40:2), 29:b (40:2), 29:c (40:2)
ParseAmlSerial G12B S922X
;;
29*)
# G12B: A311D, S922X
# - A311D: 29:b (10:2)
# - S922X: 29:a (40:2), 29:b (40:2)
# - 'S922X-B': 29:c (40:2)
ParseAmlSerial G12B Unknown
;;
2a*)
# GXLX2: some weird GXL variant, most probably for S905L2 only
# https://www.cnx-software.com/2020/09/15/low-cost-amlogic-s905l2-tv-boxes-show-up-on-aliexpress-for-20/
# http://ix.io/45QA / http://ix.io/3RLI
# Fake 2 GHz while in reality 1.2 GHz, 'Revision 2a:e (c5:2)'
# while S905L always appears as 'Revision 21:X (cX:X)'
ParseAmlSerial GXLX2 S905L2
;;
2b??05*|2b??10*)
# SM1: S905X3: 2b:c (10:2)
ParseAmlSerial SM1 S905X3
;;
2b??01*|2b??04*|2b??30*)
# SM1: S905D3: 2b:b (1:2), 2b:c (4:2)
ParseAmlSerial SM1 S905D3
;;
2b*)
# SM1: S905X3, S905D3, S905Y3: 2b:b (1:2), 2b:c (4:2), 2b:c (10:2), 2b:b (40:2)
ParseAmlSerial SM1 Unknown
;;
2c*)
# A1: A113L (dual A35: https://www.amlogic.com/#Products/408/index.html / meson-a1.dtsi)
ParseAmlSerial A1 A113L
;;
2e*)
# TL1: T962X2
ParseAmlSerial TL1 T962X2
;;
2f*)
# TM2: T962X3, T962E2 (quad-core A55)
ParseAmlSerial TM2 T962X3/T962E2
;;
30*)
# C1
ParseAmlSerial C1 Unknown
;;
32??02*)
# SC2: S905X4: 32:b (2:2)
ParseAmlSerial SC2 S905X4
;;
32*)
# SC2: S905X4, S905C2
ParseAmlSerial SC2 S905X4/S905C2
;;
33*)
# C2
ParseAmlSerial C2 Unknown
;;
34*)
# T5
ParseAmlSerial T5 Unknown
;;
35*)
# T5D: T950D4, T950X4 (quad-core A53)
ParseAmlSerial T5D Unknown
;;
360b*)
# T7: A311D2, POP1-G: 36:b (1:3)
ParseAmlSerial T7 A311D2
;;
360c*)
# T7C: A311D2-N0D (A311D2 with NPU and different ISP): 36:c (1:2)
# https://docs.khadas.com/products/sbc/vim4/configurations/identify-version / https://archive.md/YUeWa
ParseAmlSerial T7C A311D2-N0D
;;
370b*)
# S4: S905Y4
ParseAmlSerial S4 S905Y4
;;
37*)
# S4: S905Y4, S805X2, S905W2
ParseAmlSerial S4 S905Y4/S805X2/S905W2
;;
38*)
# T3: T965D4, T963D4, T982 (quad-core A55)
ParseAmlSerial T3 Unknown
;;
39*)
# P1: (8 x A55) https://tinyurl.com/ye8m9uf4
ParseAmlSerial P1 Unknown
;;
3a*)
# S4D: S805C3, S905C3, S905C3ENG (quad Cortex-A35): https://archive.md/4H6xM
# but quad-core A55 according to Amlogic 5.4 BSP kernel: tinyurl.com/r598z7aa
# and CoreElec device tree files
# https://tinyurl.com/y85lsxsc and/vs. https://tinyurl.com/5n99muj6
ParseAmlSerial S4D Unknown
;;
3b*)
# T5W: T962D4 (quad-core A55)
ParseAmlSerial T5W Unknown
;;
3c*)
# A5: A113X2 (quad-core A55)
ParseAmlSerial A5 Unknown
;;
3d*)
# C3
ParseAmlSerial C3 Unknown
;;
3e*)
# S5: S928X (4 x A55 + 1 x A76) https://tinyurl.com/mpwhcsua
ParseAmlSerial S5 Unknown
;;
*)
# https://tinyurl.com/wwuwdef7
ParseAmlSerial Unknown Unknown
;;
esac
;;
esac
;;
sun3i*)
# SoC ID: 0x1663
echo "Allwinner F1C100s/F1C100A/F1C200s/F1C500/F1C500s/F1C600/F1D100/R6${Allwinner_SID}"
;;
sun4i*)
# SoC ID: 0x1623
echo "Allwinner A10${Allwinner_SID}"
;;
sun5i*)
# SoC ID: 0x1625
echo "Allwinner A10s/A13/R8${Allwinner_SID}"
;;
sun8iw10*)
# SoC ID: 0x1699
echo "Allwinner B288/B100${Allwinner_SID}"
;;
sun8iw11*)
# SoC ID: 0x1701
echo "Allwinner R40/V40/T3/A40i${Allwinner_SID}"
;;
sun8iw12*)
# SoC ID: 0x1721
echo "Allwinner V5/V100${Allwinner_SID}"
;;
sun8iw15*)
# SoC ID: 0x1755
echo "Allwinner A50/MR133/R311${Allwinner_SID}"
;;
sun8iw16*)
# SoC ID: 0x1816
echo "Allwinner V313/V316/V526/V536/V5V200${Allwinner_SID}"
;;
sun8iw17*)
echo "Allwinner T7${Allwinner_SID}"
;;
sun8iw18*)
echo "Allwinner R328${Allwinner_SID}"
;;
sun8iw19*)
# SoC ID: 0x1817
echo "Allwinner V533/V833/V831${Allwinner_SID}"
;;
sun6i*|sun8iw1*)
# SoC ID: 0x1633
echo "Allwinner A31/A31s${Allwinner_SID}"
;;
sun8iw20*)
# SoC ID: 0x1859
echo "Allwinner F133/H133/R528/T113${Allwinner_SID}"
;;
sun8iw21*)
# SoC ID: 0x1886, https://v853.docs.aw-ol.com
echo "Allwinner R853/V851S/V851SE/V853${Allwinner_SID}"
;;
sun7iw2*|sun8iw2*)
# SoC ID: 0x1651
echo "Allwinner A20${Allwinner_SID}"
;;
sun8iw3*)
# SoC ID: 0x1650
echo "Allwinner A23${Allwinner_SID}"
;;
sun8iw5*)
# SoC ID: 0x1667
echo "Allwinner A33/R16${Allwinner_SID}"
;;
sun8iw6*)
# SoC ID: 0x1673
echo "Allwinner A83T/H8/H80/V66/R58${Allwinner_SID}"
;;
sun8iw7*)
# SoC ID: 0x1680
echo "Allwinner H3/H2+${Allwinner_SID}"
;;
sun8iw8*)
# SoC ID: 0x1681
echo "Allwinner V3/S3/V3s${Allwinner_SID}"
;;
sun9i*)
# SoC ID: 0x1639
echo "Allwinner A80${Allwinner_SID}"
;;
sun20iw1*)
# https://d1.docs.aw-ol.com / https://d1s.docs.aw-ol.com
echo "Allwinner D1${Allwinner_SID}"
;;
sun20iw2*)
# https://r128.docs.aw-ol.com
echo "Allwinner R128${Allwinner_SID}"
;;
sun50iw1p*)
# SoC ID: 0x1689
# Since Armbian patched arch/arm64/kernel/cpuinfo.c since Aug 2016 every
# other Allwinner ARMv8 SoC (H5/H6/H616) will identify itself as sun50iw1p1
# when kernel has been tampered with by Armbian.
# https://github.com/armbian/build/issues/3400 / https://archive.md/VxK14
AllwinnerGuess="$(IdentifyAllwinnerARMv8 | head -n1)"
case ${AllwinnerGuess} in
*unidentified*)
if [ -f /etc/armbian-release ]; then
# use Armbian's release info since there we can rely on SoC family
# naming unlike cpuinfo output that was fake for many years
ArmbianReleaseFile=/etc/armbian-release
elif [ -f /etc/orangepi-release ]; then
# try to deal with Xunlong's lame Armbian rip-off over at
# https://github.com/orangepi-xunlong/orangepi-build
ArmbianReleaseFile=/etc/orangepi-release
fi
if [ -f "${ArmbianReleaseFile}" ]; then
BoardFamily="$(awk -F'=' '/^BOARDFAMILY/ {print $2}' <"${ArmbianReleaseFile}")"
case ${BoardFamily} in
sun50iw1)
echo "Allwinner A64${Allwinner_SID}"
;;
sun50iw2)
echo "Allwinner H5${Allwinner_SID}"
;;
sun50iw6)
echo "Allwinner H6${Allwinner_SID}"
;;
sun50iw9)
echo "Allwinner H616/H313/H618${Allwinner_SID}"
;;
*)
echo "Allwinner A64${Allwinner_SID} or https://tinyurl.com/yyf3d7fg"
;;
esac
else
echo "Allwinner A64${Allwinner_SID} or https://tinyurl.com/yyf3d7fg"
fi
;;
*)
echo "${AllwinnerGuess}${Allwinner_SID}"
;;
esac
;;
sun50iw2*)
# SoC ID: 0x1718
echo "Allwinner H5${Allwinner_SID}"
;;
sun50iw3*)
# SoC ID: 0x1719
echo "Allwinner A63${Allwinner_SID}"
;;
sun50iw6*)
# SoC ID: 0x1728
echo "Allwinner H6${Allwinner_SID}"
;;
sun50iw9*)
# SoC ID: 0x1823
echo "Allwinner H313/H503/H513/H616/H618/H700/T507/T517${Allwinner_SID}"
;;
sun50iw10*)
# SoC ID: 0x1855
echo "Allwinner A100/A133/A53/B810/MR813/R818/T509${Allwinner_SID}"
;;
sun50iw11*)
# SoC ID: 0x1851, https://r329.docs.aw-ol.com
echo "Allwinner R329${Allwinner_SID}"
;;
sun50iw12*)
# SoC ID: 0x1860
echo "Allwinner TV303${Allwinner_SID}"
;;
sun55iw3*)
# SoC ID: 0x1890
echo "Allwinner A523/A527/T523/T527/MR527${Allwinner_SID}"
;;
sun55iw5*)
echo "Allwinner TV301${Allwinner_SID}"
;;
sun60iw1*)
echo "Allwinner A736/T736${Allwinner_SID}"
;;
sun60iw2*)
echo "Allwinner A733${Allwinner_SID}"
;;
sun*)
SoCGuess="$(GuessSoCbySignature)"
[ "X${SoCGuess}" = "X" ] && echo "unknown Allwinner SoC${Allwinner_SID}" || echo "${SoCGuess}${Allwinner_SID}"
;;
Allwinner*)
SoCGuess="$(GuessSoCbySignature)"
[ "X${SoCGuess}" = "X" ] && sed -e 's/ board//' -e 's/ Family//' <<<"${HardwareInfo}" || echo "${SoCGuess}${Allwinner_SID}"
;;
Hardkernel*)
case ${HardwareInfo} in
*XU3|*XU4|*HC1|*HC2|*MC1|*XU4Q)
echo "Exynos 5422"
;;
*C1*)
echo "Amlogic S805"
;;
*C2)
echo "Amlogic S905"
;;
*C4)
echo "Amlogic S905X3"
;;
*M1)
echo "Rockchip RK3568"
;;
*M1S)
echo "Rockchip RK3566"
;;
*N1)
echo "Rockchip RK3399"
;;
*N2*)
echo "Amlogic S922X"
;;
*)
sed 's/Hardkernel //' <<<"${HardwareInfo}"
;;
esac
;;
*)
# guess SoC based on CPU topology
SoCGuess="$(GuessSoCbySignature)"
if [ "X${SoCGuess}" != "X" ] && [ "X${VirtWhat}" != "X" ] && [ "X${VirtWhat}" != "Xnone" ]; then
# add virtualization disclaimer
echo "${SoCGuess}${Allwinner_SID} / guessing impossible since running in ${VirtWhat}"
else
echo "${SoCGuess:-n/a}${Allwinner_SID}"
fi
;;
esac
fi
} # GuessARMSoC
ParseAmlSerial() {
# gets SoC family and SoC guess as $1/$2 and then translates the Serial number's digits
# 0-7 into Soc variant/revision details. Looks like this for example:
# GXL S905X 210a820094e04a85134XXXXXXXXXXXXX -> Amlogic Meson GXL (S905X) Revision 21:a (82:0)
# T7 A311D2 360b0103000000000e0XXXXXXXXXXXXX -> Amlogic Meson T7 (A311D2) Revision 36:b (1:3)
# SC2 S905X4 320b020200000000190XXXXXXXXXXXXX -> Amlogic Meson SC2 (S905X4) Revision 32:b (2:2)
echo "Amlogic Meson ${1} (${2}) Revision ${AmLogicSerial:0:2}:${AmLogicSerial:2:2} (${AmLogicSerial:4:2}:${AmLogicSerial:6:2})" | sed -e 's/:0/:/g' -e 's/(0/(/'
} # ParseAmlSerial
GuessSoCbySignature() {
# Guess by CPU topology (core types and revision, clusters and cpufreq policies) and by
# specific features/flags. Skip whole check if one or more cores are offline.
if [ "X${OfflineCores}" != "X" ]; then
echo "Not able to guess since these CPU cores are offline: ${OfflineCores}"
return 1
fi
case ${CPUSignature} in
??A8r1p3)
# TI OMAP3530, Cortex-A8 / r1p3 / swp half thumb fastmult vfp edsp thumbee neon
echo "TI Sitara OMAP3530"
;;
??A8r1p7)
# TI Sitara AM35xx, Cortex-A8 / r1p7
echo "TI Sitara AM35xx"
;;
??A8r2p2)
# Samsung Exynos 3110 (S5PC110): 1 x Cortex-A8 / r2p2 / swp half thumb fastmult vfp edsp thumbee neon vfpv3
echo "Samsung Exynos 3110 (S5PC110)"
;;
??A8r2p5)
# Freescale/NXP i.MX515: 1 x Cortex-A8 / r2p5 / https://bench.cr.yp.to/computers.html
echo "Freescale/NXP i.MX515"
;;
??A8r3p2)
# TI OMAP3530/DM3730/AM335x or Allwinner A10, 1 x Cortex-A8 / r3p2 / half thumb fastmult vfp edsp neon vfpv3 tls vfpd32
case "${Allwinner_SID:7:8}" in
1623*)
echo "Allwinner A10"
;;
1625*)
echo "Allwinner A10s/A13/R8"
;;
*)
lsmod | grep -i -q sun4i
case $? in
0)
# Allwinner A10, 1 x Cortex-A8 / r3p2 / half thumb fastmult vfp edsp neon vfpv3 tls vfpd32
echo "Allwinner A10"
;;
*)
case "${DTCompatible,,}" in
*sun4i*)
# Allwinner A10, 1 x Cortex-A8 / r3p2 / half thumb fastmult vfp edsp neon vfpv3 tls vfpd32
echo "Allwinner A10"
;;
*sun5i*)
# Allwinner A10s/A13/R8, 1 x Cortex-A8 / r3p2 / half thumb fastmult vfp edsp neon vfpv3 tls vfpd32
echo "Allwinner A10s/A13/R8"
;;
*)
# TI DM3730/AM335x, 1 x Cortex-A8 / r3p2 / half thumb fastmult vfp edsp neon vfpv3 tls vfpd32
echo "TI DM3730/AM335x"
;;
esac
;;
esac
;;
esac
;;
00A7r0p5)
# Allwinner R853/S3/V3/V3s/V533/V831/V833/V851S/V851SE/V853, 1 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
# or maybe Microchip SAMA7G54, 1 x Cortex-A7 / r0p5
# or maybe Rockchip RV1108 | 1 x Cortex-A7 / r0p5
case "${DTCompatible,,}" in
*rockchip*)
# Rockchip RV1108 | 1 x Cortex-A7 / r0p5
echo "Rockchip RV1108"
;;
*sun8iw8*)
# Allwinner S3/V3/V3s, 1 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner S3/V3/V3s"
;;
*sun8iw19*)
# Allwinner V533/V831/V833, 1 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner V533/V831/V833"
;;
*sun8iw21*)
# Allwinner R853/V851S/V851SE/V853, 1 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner R853/V851S/V851SE/V853"
;;
*allwinner*)
# Allwinner R853/S3/V3/V3s/V533/V831/V833/V851S/V851SE/V853, 1 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner R853/S3/V3/V3s/V533/V831/V833/V851S/V851SE/V853"
;;
*)
# Microchip SAMA7G54, 1 x Cortex-A7 / r0p5
echo "Microchip SAMA7G54"
;;
esac
;;
??A9r3p0??A9r3p0??A9r3p0??A9r3p0)
# RK3188 or Exynos 4412 or Nexell S5P4418, 4 x Cortex-A9 / r3p0 / half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpd32
case "${DTCompatible,,}" in
*s5p4418*)
echo "Nexell S5P4418"
;;
*samsung*)
echo "Exynos 4412"
;;
*rk3188*)
echo "Rockchip RK3188"
;;
esac
;;
??A9r3p0??A9r3p0)
# AML8726-MX, 2 x Cortex-A9 / r3p0 / half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpd32
# or RK3066, 2 x Cortex-A9 / r3p0 / swp half thumb fastmult vfp edsp neon vfpv3 / https://lore.kernel.org/all/CAAFQd5CN_xvkdD+Bf9A+Mc+_jVxtdOKosrYH_8bNNHkGQw7eGA@mail.gmail.com/T/
# or ST Micro STiH415, 2 x Cortex-A9 / r3p0 / swp half thumb fastmult vfp edsp neon vfpv3 tls
case "${DTCompatible,,}" in
*amlogic*)
echo "Amlogic AML8726-MX"
;;
*rk3066*)
echo "Rockchip RK3066"
;;
*)
echo "ST Micro STiH416"
;;
esac
;;
*A9r3p0)
# Mediatek MT5880, 1 x Cortex-A9 / r3p0 / swp half thumb fastmult vfp edsp vfpv3 vfpv3d16
# or ST Micro STiH415: 1 x Cortex-A9 / r3p0 / swp half thumb fastmult vfp edsp neon vfpv3 tls
# or Xilinx Zynq 7000S: 1 x Cortex-A9 / r3p0 / half thumb fastmult vfp edsp neon vfpv3 tls vfpd32
case "${DTCompatible,,}" in
*mt5880*)
echo "Mediatek MT5880"
;;
*xilinx*)
echo "Xilinx Zynq 7000S"
;;
*)
echo "ST Micro STiH415"
;;
esac
;;
00A7r0p400A7r0p4)
# Allwinner A20, 2 x Cortex-A7 / r0p4 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner A20"
;;
00A7r0p500A7r0p500A7r0p500A7r0p5)
# Allwinner sun8i: could be Allwinner H3/H2+, R40/V40/T3/A40i or A33/R16 or A50/MR133/R311 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
# or Spreadtrum SC7731/SC8830 or Rockchip RV1126/RK3126/RK3126B/RK3126C/RK3128
case "${DTCompatible,,}" in
*rv1126*)
# Rockchip RV1126 | 4 x Cortex-A7 / r0p5
echo "Rockchip RV1126"
;;
*rk3126b*)
# Rockchip RK3126B | 4 x Cortex-A7 / r0p5
echo "Rockchip RK3126B"
;;
*rk3126c*)
# Rockchip RK3126C | 4 x Cortex-A7 / r0p5
echo "Rockchip RK3126C"
;;
*rk3126*)
# Rockchip RK3126 | 4 x Cortex-A7 / r0p5
echo "Rockchip RK3126"
;;
*rk3128*)
# Rockchip RK3128 | 4 x Cortex-A7 / r0p5
echo "Rockchip RK3128"
;;
*rockchip*)
# Rockchip RV1126 or RK3126/RK3126B/RK3126C or RK3128 | 4 x Cortex-A7 / r0p5
echo "Rockchip RV1126 or RK3126/RK3126B/RK3126C or RK3128"
;;
*hi3796*)
# HiSilicon Hi3796M-V100, 4 x Cortex-A7 / r0p5 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt
echo "HiSilicon Hi3796M-V100"
;;
*hi3798*)
# HiSilicon Hi3798M-V100, 4 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae
echo "HiSilicon Hi3798M-V100"
;;
*hisilicon*)
# HiSilicon Hi3796M-V100 or Hi3798M-V100, 4 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae
echo "HiSilicon Hi3796M-V100 or Hi3798M-V100"
;;
*sc7731*)
# Spreadtrum SC7731: 4 x Cortex-A7 / r0p5 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32
echo "Spreadtrum SC7731"
;;
*sc8830*)
# Spreadtrum SC8830: 4 x Cortex-A7 / r0p5 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32
echo "Spreadtrum SC8830"
;;
*sun8i|*)
case "${Allwinner_SID:7:8}" in
02c00?81)
echo "Allwinner H3"
;;
02c00?42)
echo "Allwinner H2+"
;;
02c000*)
echo "Allwinner H3/H2+"
;;
0461872a)
echo "Allwinner A33/R16"
;;
12c00017|16554153)
# checking sbc-bench submissions all BPI-M2 Berry/Ultra (R40/V40) show 16554153
# as first part of the serial number (which should be the relevant SID part with
# mainline kernel). Could be a bug in Allwinner's BSP kernel but the versions
# were as follows: 5.1, 5.4, 5.10, 5.15, 5.16, 5.19, 6.0, 6.1, 6.2 and 6.4
echo "Allwinner R40/V40"
;;
*)
case "${DTCompatible,,}" in
*sun8i-r40*|*sun8i-v40*|*sun8i-a40i*|*sun8i-t3*)
# Allwinner R40/V40/T3/A40i, 4 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner R40/V40/T3/A40i"
;;
*sun8i-h3*)
# Allwinner H3, 4 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner H3"
;;
*sun8i-h2*)
# Allwinner H2+, 4 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner H2+"
;;
*sun8i-a33*|*sun8i-r16*)
# Allwinner A33/R16, 4 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner A33/R16"
;;
*sun8iw15p1*|*sun8i-a50*)
# Allwinner A50/MR133/R311, 4 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner A50/MR133/R311"
;;
*)
echo "Unknown"
esac
;;
esac
;;
esac
;;
00A7r0p5000000)
# Allwinner sun8i running with 3.x BSP kernel: could be Allwinner H3/H2+, R40/V40 or A33/R16 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
case "${DTCompatible,,}" in
*sun8i*)
# kernel 3.10 with device-tree support
echo "Allwinner R40/V40"
;;
*)
# kernel 3.4 w/o device-tree support
echo "Allwinner H3/H2+ or A33/R16"
;;
esac
;;
*A7r0p5*A7r0p5*A7r0p5*A7r0p5*A15r4p0*A15r4p0*A15r4p0*A15r4p0)
# Allwinner A80: 4 x Cortex-A7 / r0p5 + 4 x Cortex-A15 / r4p0 / swp half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt
# GB4 reports stepping of big core: https://browser.geekbench.com/v4/cpu/16436341.gb4, /proc/cpuinfo of little: https://nitter.net/miniNodes/status/533125394686562304
echo "Allwinner A80"
;;
??A7r0p5??A7r0p5??A7r0p5??A7r0p5??A7r0p5??A7r0p5??A7r0p5??A7r0p5)
# Allwinner A83T, 8 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Allwinner A83T"
;;
20A5r0p120A5r0p120A5r0p120A5r0p1|2A5222|20A5r0p1202020)
# Actions ATM8029, 4 x Cortex-A5 / r0p1 / ?
# Amlogic S805/M805, 4 x Cortex-A5 / r0p1 / half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 vfpd32 (3.10: swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4)
# or Qualcomm MSM8625Q: 4 x Cortex-A5 / r0p1 / scp half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4
case "${DTCompatible,,}" in
*amlogic*)
echo "Amlogic S805"
;;
*8625*)
echo "Qualcomm MSM8625Q"
;;
*)
echo "Actions ATM8029"
;;
esac
;;
20A9r4p120A9r4p120A9r4p120A9r4p1|2A9222)
# Amlogic S802/S812: 4 x Cortex-A9 / r4p1 / half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpd32
# or HiSilicon Hi6620: 4 x Cortex-A9 / r4p1 / swp half thumb fastmult vfp edsp thumbee neon vfpv3
grep -q -i amlogic <<<"${DTCompatible,,}" && echo "Amlogic S802/S812" || echo "HiSilicon Hi6620"
;;
*A57r0p0*A57r0p0*A53r0p0*A53r0p0*A53r0p0*A53r0p0)
# ARM Juno: 2 x Cortex-A57 / r0p0 + 4 x Cortex-A53 / r0p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "ARM Juno r0"
;;
*A53r0p0*A53r0p0*A53r0p0*A53r0p0)
# Snapdragon 410 / MSM8916/APQ8016: 4 x Cortex-A53 / r0p0 / fp asimd evtstrm crc32 cpuid
echo "Snapdragon 410"
;;
*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A72r0p0*A72r0p0*A72r0p0*A72r0p0)
# Snapdragon 652/653 / MSM8976/MSM8976PRO: 4 x Cortex-A53 / r0p4 + 4 x Cortex-A72 / r0p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or HiSilicon 950/955: 4 x Cortex-A53 / r0p4 + 4 x Cortex-A72 / r0p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32
case "${DTCompatible,,}" in
*hisilicon*|*950*|*955)
echo "HiSilicon Kirin 950/955"
;;
*snapdragon*|*652*|*653*)
echo "Snapdragon 652/653"
;;
esac
;;
*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A72r0p0*A72r0p0)
# Snapdragon 650 / MSM8956: 4 x Cortex-A53 / r0p4 + 2 x Cortex-A72 / r0p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Snapdragon 650"
;;
*A53r0p3*A53r0p3*A53r0p3*A53r0p3*A57r1p2*A57r1p2)
# Snapdragon 808 / MSM8992: 4 x Cortex-A53 / r0p3 + 2 x Cortex-A57 / r1p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Snapdragon 808"
;;
*A53r0p2*A53r0p2*A53r0p2*A53r0p2*A57r1p1*A57r1p1*A57r1p1*A57r1p1)
# Snapdragon 810 / MSM8994/MSM8994V: 4 x Cortex-A53 / r0p2 + 4 x Cortex-A57 / r1p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Snapdragon 810"
;;
00QualcommV2r10p400QualcommV2r10p400QualcommV2r10p400QualcommV2r10p404QualcommV1Kryor10p104QualcommV1Kryor10p104QualcommV1Kryor10p104QualcommV1Kryor10p1)
# Snapdragon 835 / MSM8998: 4 x Qualcomm Kryo V2 / r10p4 + 4 x Qualcomm Falkor V1/Kryo / r10p1 / fp asimd aes pmull sha1 sha2 crc32
echo "Snapdragon 835"
;;
*Kryor1p2*Kryor1p2*Kryor1p2*Kryor1p2)
# Qualcomm MSM8996: 2 x Kryo r1p2 + 2 x Kryo r1p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Qualcomm MSM8996"
;;
*Kryor2p1*Kryor2p1*Kryor2p1*Kryor2p1)
# Qualcomm MSM8996pro: 2 x Kryo r2p1 + 2 x Kryo r2p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Qualcomm MSM8996pro"
;;
00Qualcomm4XXSilver00Qualcomm4XXSilver00Qualcomm4XXSilver00Qualcomm4XXSilver00Qualcomm4XXSilver00Qualcomm4XXSilver06Qualcomm4XXGold06Qualcomm4XXGold)
# Qualcomm Snapdragon 7c (SC7180): 6 x Kryo 468 Silver / r13p14 + 2 x Kryo 468 Gold / r15p15 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp asimdrdm lrcpc dcpop asimddp
echo "Qualcomm Snapdragon 7c"
;;
*Qualcomm4XXSilver*Qualcomm4XXSilver*Qualcomm4XXSilver*Qualcomm4XXSilver*Qualcomm4XXGold*Qualcomm4XXGold*Qualcomm4XXGold*Qualcomm4XXGold)
# Qualcomm SM8150 / Snapdragon 855: 4 x Qualcomm Kryo 4XX Silver / r13p14 + 4 x Qualcomm Kryo 4XX Gold / r13p14 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp asimdrdm lrcpc dcpop asimddp
echo "Qualcomm SM8150 (Snapdragon 855)"
;;
*Qualcomm4XXSilver*Qualcomm4XXSilver*Qualcomm4XXSilver*Qualcomm4XXSilver*Qualcomm4XXGold*Qualcomm4XXGold*Qualcomm4XXGold*Qualcomm4XXGold*)
# Qualcomm Snapdragon 7c+ Gen 3 (SC7280) or QCM6490: 4 x Kryo 468 Silver + 3 x Kryo 468 Gold + 1 x Kryo 468 Gold Plus
case "${DTCompatible,,}" in
*qcm6490*)
echo "Qualcomm QCM6490"
;;
*sc7280*)
echo "Qualcomm Snapdragon 7c+ Gen 3 (SC7280)"
;;
esac
;;
*QualcommOryon*)
# Qualcomm Snapdragon X Elite (X1E80100): 8 x Oryon + 4 x Oryon or variants
# https://browser.geekbench.com/v6/cpu/3327362.gb6 is in conflict with https://browser.geekbench.com/v6/cpu/3326512.gb6
# wrt stepping: "ARM implementer 81 architecture 8 variant 1 part 1 revision 1" vs. "ARMv8 (64-bit) Family 8 Model 1 Revision 201"
# The former is r1p1, the latter r2p1. But maybe it's different steppings since it's also said the clusters would consist of two
# different core types: https://lore.kernel.org/linux-arm-msm/b165d2cd-e8da-4f6d-9ecf-14df2b803614@linaro.org/
case ${CPUCores} in
12)
echo "Qualcomm Snapdragon X Elite (X1E80100)"
;;
10)
echo "Qualcomm SC8370/SC8370XP"
;;
8)
echo "Qualcomm SC8350/SC8350X"
;;
esac
;;
*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4)
# Socionext SC2A11: 24 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid
echo "Socionext SC2A11"
;;
*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A73r0p2*A73r0p2*A73r0p2*A73r0p2)
# Mediatek MT6771V: 4 x Cortex-A53 / r0p4 + 4 x Cortex-A73 / r0p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Mediatek MT8183: 4 x Cortex-A53 / r0p4 + 4 x Cortex-A73 / r0p2 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt lpae evtstrm aes pmull sha1 sha2 crc32
# or HiSilicon Kirin 710: 4 x Cortex-A53 / r0p4 + 4 x Cortex-A73 / r0p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or HiSilicon Kirin 970: 4 x Cortex-A53 / r0p4 + 4 x Cortex-A73 / r0p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Allwinner R923: 4 x Cortex-A53 / r0p4 + 4 x Cortex-A73 / r0p2
case "${DTCompatible,,}" in
*710*)
echo "HiSilicon Kirin 710"
;;
*970*)
echo "HiSilicon Kirin 970"
;;
*hisilicon*)
echo "HiSilicon Kirin 710 or 970"
;;
*mt6771*)
echo "Mediatek MT6771V"
;;
*mt8183*)
echo "Mediatek MT8183"
;;
*allwinner*|*sun*|*r923*)
echo "Allwinner R923"
;;
esac
;;
00A53r0p400A53r0p400A53r0p400A53r0p4|??A53r0p4??????)
# The boring quad Cortex-A53 done by every SoC vendor: 4 x Cortex-A53 / r0p4
# Allwinner A100/A133/A53/A64/H5/H6/H313/H616/MR813/R818/T507/T509/B810, BCM2837/BCM2709, RK3318/RK3328/RK3528/RK3562, i.MX8 M, S905, S905X/S805X, S805Y, S905X/S905D/S905W/S905L/S905M2, S905X2/S905Y2/T962X2, Mediatek MT6762M/MT6765, RealTek RTD129x/RTD139x
case "${DeviceName}" in
"Raspberry Pi Compute Module 3 Plus"*)
# 4 x Cortex-A53 / r0p4 / fp asimd evtstrm crc32
echo "BCM2837B0"
;;
"Raspberry Pi 2"*|"Raspberry Pi Compute Module 3"*)
# 4 x Cortex-A53 / r0p4 / fp asimd evtstrm crc32
echo "BCM2837 (BCM2709)"
;;
"Raspberry Pi 3"*)
# 4 x Cortex-A53 / r0p4 / fp asimd evtstrm crc32
echo "BCM2837 (BCM2710)"
;;
"Raspberry Pi Zero 2"*)
# 4 x Cortex-A53 / r0p4 / fp asimd evtstrm crc32
echo "RP3A0-AU (BCM2710A1)"
;;
*)
# No Raspberry, check for AES capabilities first
grep 'Features' <<< "${ProcCPU}" | grep -q aes
if [ $? -ne 0 ]; then
# no ARMv8 Crypto Extensions licensed like RPi ARMv8 cores... then it's
# S905: 4 x Cortex-A53 / r0p4 / fp asimd evtstrm crc32
echo "Amlogic S905"
else
case "${DTCompatible,,}" in
*allwinner*)
# 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
case "${Allwinner_SID:7:8}" in
92c00?ba)
echo "Allwinner A64"
;;
92c000bb)
echo "Allwinner H64"
;;
828000*)
echo "Allwinner H5"
;;
82c000*)
echo "Allwinner H6"
;;
32c05c*)
echo "Allwinner H313"
;;
32c050*)
echo "Allwinner H616"
;;
33802*)
echo "Allwinner H618"
;;
33806*)
echo "Allwinner H700"
;;
*)
case "${DTCompatible,,}" in
*h618*|*orangepi-zero3*|*orangepi-zero2w*)
echo "Allwinner H618"
;;
*orangepi-zero2*)
echo "Allwinner H616"
;;
*h313*)
echo "Allwinner H313"
;;
*h616*)
echo "Allwinner H616/H313/H618"
;;
*pine-h64*)
echo "Allwinner H6"
;;
*h64*)
echo "Allwinner H64"
;;
*h6*)
echo "Allwinner H6"
;;
*h5*)
echo "Allwinner H5"
;;
*a64*)
echo "Allwinner A64"
;;
*t507*)
echo "Allwinner T507"
;;
*t509*)
echo "Allwinner T509"
;;
*b810*)
echo "Allwinner B810"
;;
*a100*)
echo "Allwinner A100"
;;
*a133*)
echo "Allwinner A133"
;;
*a53*)
echo "Allwinner A53"
;;
*mr813*)
echo "Allwinner MR813"
;;
*r818*)
echo "Allwinner R818"
;;
*h700*)
echo "Allwinner H700"
;;
esac
;;
esac
;;
*amlogic*)
case "${DTCompatible,,}" in
*axg*)
# AXG: A113X, A113D, 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Amlogic A113X/A113D"
;;
*g12a*)
# G12A: 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid
echo "Amlogic S905X2/S905Y2/S905D2/S905L3A"
;;
*tl1*)
# TL1: 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid
echo "Amlogic T962X2"
;;
*gxl*)
# GXL: 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Amlogic S805X, S805Y, S905X/S905D/S905W/S905L/S905L2/S905M2"
;;
*)
# GXL or G12A: 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
IdentifyAXGGXLG12A
;;
esac
;;
*rk3318*)
# RK3318, 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Rockchip RK3318"
;;
*rk3328*)
# RK3328, 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Rockchip RK3328"
;;
*rk3528*)
# RK3528, 4 x Cortex-A53 / r0p4 / https://github.com/LubanCat/u-boot/blob/b36e944afbe275808a3d88575991417bae5e569f/arch/arm/dts/rk3528.dtsi#L76-L114
echo "Rockchip RK3528"
;;
*rk3562*)
# RK3562, 4 x Cortex-A53 / r0p4 / https://github.com/JeffyCN/rockchip_mirrors/blob/30c488cd350f5f7b53c7f46f803a64929f619230/configs/rockchip/chips/rk3562.config / https://cdn.cnx-software.com/wp-content/uploads/2023/03/Rockchip-RK3528-RK3562.jpg
echo "Rockchip RK3562"
;;
*imx8*)
# i.MX8M, 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "NXP i.MX8M"
;;
*rtd1395*)
# RealTek RTD1395, 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "RealTek RTD1395"
;;
*realtek*)
# RealTek RTD129x/RTD139x, 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "RealTek RTD129x/RTD139x"
;;
*mt6762m*)
# Mediatek MT6762M, 4 x Cortex-A53 / r0p4 / fp asimd aes pmull sha1 sha2 crc32
echo "Mediatek MT6762M"
;;
*mt6765*)
# Mediatek MT6765, 4 x Cortex-A53 / r0p4 / fp asimd aes pmull sha1 sha2 crc32
echo "Mediatek MT6765"
;;
*mt6739wa*)
# Mediatek MT6739WA, 4 x Cortex-A53 / r0p4 / fp asimd aes pmull sha1 sha2 crc32
echo "Mediatek MT6739WA"
;;
*mt7986a*|*bpi-r3*)
# Mediatek MT7986A, 4 x Cortex-A53 / r0p4 / fp asimd aes pmull sha1 sha2 crc32
echo "Mediatek MT7986A"
;;
*mt8735*)
# Mediatek MT8735, 4 x Cortex-A53 / r0p4 / fp asimd aes pmull sha1 sha2 crc32
echo "Mediatek MT8735"
;;
*xlnx*|*zynqmp*|*zcu102*)
# Xilinx XCZU9EG, 4 x Cortex-A53 / r0p4 / fp asimd aes pmull sha1 sha2 crc32
echo "Xilinx XCZU9EG"
;;
*hi3798*)
# HiSilicon Hi3798C-V200, 4 x Cortex-A53 / r0p4 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm (booting 32-bit)
echo "HiSilicon Hi3798C-V200"
;;
*am623*)
# Texas Instruments K3 AM623, 4 x Cortex-A53 / r0p4
echo "Texas Instruments K3 AM6234"
;;
*am625*)
# Texas Instruments K3 AM625, 4 x Cortex-A53 / r0p4
echo "Texas Instruments K3 AM6254"
;;
*am62a7*)
# Texas Instruments K3 AM62A, 4 x Cortex-A53 / r0p4
echo "Texas Instruments K3 AM62A7"
;;
*am654*)
# Texas Instruments K3 AM654, 4 x Cortex-A53 / r0p4
echo "Texas Instruments K3 AM654"
;;
*ipq5332*)
# Qualcomm IPQ5332, 4 x Cortex-A53 / r0p4
echo "Qualcomm IPQ5332"
;;
*7570*)
# Exynos 7570, 4 x Cortex-A53 / r0p4 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt lpae evtstrm aes pmull sha1 sha2 crc32
echo "Exynos 7570"
;;
esac
fi
;;
esac
;;
??BroadcomB53r0p0??BroadcomB53r0p0??BroadcomB53r0p0??BroadcomB53r0p0)
# technically another quad core A53 but in this case the cores are Broadcom's Brahma-B53.
# Broadcom used these cores in a bunch of SoCs, usually with ARMv8 Crypto Extensions but
# sometimes they're not active or licensed (applies to early VideoCore SoCs between 2017
# and 2018). Stepping was always r0p0: http://tinyurl.com/yt85tt78
case "${DTCompatible,,}" in
*brcm,bcm4908*)
# Broadcom BCM4908: 4 x Brahma B53 / r0p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid
echo "Broadcom BCM4908"
;;
esac
;;
00A53r0p400A53r0p4)
# Allwinner R329, 2 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Armada 3720, 2 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or MediaTek MT7622B, 2 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Texas Instruments K3 AM62x, 2 x Cortex-A53 / r0p4
# or Texas Instruments K3 AM642, 2 x Cortex-A53 / r0p4
# or Texas Instruments K3 AM652, 2 x Cortex-A53 / r0p4
case "${DTCompatible,,}" in
*armada37*)
echo "Marvell Armada 3720"
;;
*am623*)
echo "Texas Instruments K3 AM6232"
;;
*am625*)
echo "Texas Instruments K3 AM6252"
;;
*am642*)
echo "Texas Instruments K3 AM642"
;;
*am652*)
echo "Texas Instruments K3 AM652"
;;
*r329*)
echo "Allwinner R329"
;;
*mt7622b*)
echo "MediaTek MT7622B"
;;
esac
;;
00A53r0p4)
# Armada 3710, 1 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Texas Instruments K3 AM62x, 1 x Cortex-A53 / r0p4
case "${DTCompatible,,}" in
*armada37*)
echo "Marvell Armada 3710"
;;
*am623*)
echo "Texas Instruments K3 AM6231"
;;
*am625*)
echo "Texas Instruments K3 AM6251"
;;
esac
;;
??A53r0p4??A53r0p4??A53r0p4??A53r0p4??A53r0p4??A53r0p4??A53r0p4??A53r0p4)
# Amlogic S912, 4 x Cortex-A53 / r0p4 + 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or NXP QorIQ LS1088: 8 x Cortex-A53 / r0p4 / https://bench.cr.yp.to/computers.html
# or Samsung Exynos 7870: 8 x Cortex-A53 / r0p4 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt lpae evtstrm aes pmull sha1 sha2 crc32
# or HiSilicon Kirin 650: 8 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Qualcomm SDM439 / Snapdragon 439: 8 x Cortex-A53 / r0p4 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt lpae evtstrm aes pmull sha1 sha2 crc32
# or Qualcomm SDM450 / Snapdragon 450: 8 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Qualcomm MSM8937 / Snapdragon 430: 8 x Cortex-A53 / r0p4 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm aes pmull sha1 sha2 crc32 (booting 32-bit)
# or Qualcomm MSM8952 / Snapdragon 617: 8 x Cortex-A53 / r0p4 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 evtstrm (booting 32-bit)
# or Qualcomm MSM8953: 8 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Xiaomi Surge S1: 8 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Sophgo BM1684: 8 x Cortex-A53 / r0p4
# or Qualcomm APQ8053: 8 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
case "${DTCompatible,,}" in
*amlogic*)
echo "Amlogic S912"
;;
*7870*)
echo "Samsung Exynos 7870"
;;
*hisilicon*|*hi6250*)
echo "HiSilicon Kirin 650"
;;
*msm8937*|*430*)
echo "Qualcomm Snapdragon 430"
;;
*sdm439*)
echo "Qualcomm Snapdragon 439"
;;
*sdm450*)
echo "Qualcomm Snapdragon 450"
;;
*msm8952*|*617*)
echo "Qualcomm Snapdragon 617"
;;
*msm8953*)
echo "Qualcomm MSM8953"
;;
*xiaomi*)
echo "Xiaomi Surge S1"
;;
*bm1684x*)
echo "Sophgo BM1684X"
;;
*bm1684*)
echo "Sophgo BM1684"
;;
*apq8053*)
echo "Qualcomm APQ8053"
;;
*ls1088*)
echo "NXP QorIQ LS1088"
;;
esac
;;
00A53r0p400A53r0p412A73r0p212A73r0p212A73r0p212A73r0p2)
# Amlogic S922X/A311D, 2 x Cortex-A53 / r0p4 + 4 x Cortex-A73 / r0p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Amlogic S922X/A311D"
;;
*A73r0p2*A73r0p2*A73r0p2*A73r0p2*A73r0p2*A73r0p2*A73r0p2*A73r0p2)
# https://github.com/vmlemon/understand/wiki/Lenovo-ChromeBook-Duet suggests all 8 cores are
# Cortex-A73 / r0p2 (cpu0 -> 'Booting Linux on physical CPU 0x0000000000 [0x410fd092]' and
# all subsequently brought up cores 'Booted secondary processor 0x000000000x [0x410fd092]')
# but this is in contrast to specs on the Internet
# MediaTek Helio P60T, 8 x Cortex-A73 / r0p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "MediaTek Helio P60T"
;;
00A73r0p200A73r0p200A73r0p200A73r0p214A53r0p414A53r0p414A53r0p414A53r0p4)
# Amlogic A311D2: 4 x Cortex-A73 / r0p2 + 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Amlogic A311D2"
;;
*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A73r0p1*A73r0p1*A73r0p1*A73r0p1)
# HiSilicon Kirin 960: 4 x Cortex-A53 / r0p4 + 4 x Cortex-A73 / r0p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32
grep -q hisilicon <<<"${DTCompatible,,}" && echo "HiSilicon Kirin 960"
;;
*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A55r1p0)
# HiSilicon Ascend 310, 8 x Cortex-A55 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp asimdrdm lrcpc dcpop asimddp
echo "HiSilicon Ascend 310"
;;
0?A55r2p00?A55r2p00?A55r2p00?A55r2p00?A55r2p00?A55r2p00?A55r2p00?A55r2p0)
# Allwinner A523/A527/MR527/R828/T523/T527, 8 x Cortex-A55 / r2p0 / at least 'aes pmull sha1 sha2' (https://browser.geekbench.com/v5/cpu/21564626)
# or Amlogic P1, 8 x Cortex-A55 / r2p0
case "${DTCompatible,,}" in
*a523*)
echo "Allwinner A523"
;;
*a527*)
echo "Allwinner A527"
;;
*t523*)
echo "Allwinner T523"
;;
*mr527*)
echo "Allwinner MR527"
;;
*t527*)
echo "Allwinner T527"
;;
*r828*)
echo "Allwinner R828"
;;
*allwinner*|*sun55i*)
echo "Allwinner A523/A527/MR527/R828/T523/T527"
;;
esac
;;
*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A76r1p0*A76r1p0*A76r1p0*A76r1p0)
# HiSilicon Kirin 980, 4 x Cortex-A55 / r1p0 + 4 x HiSilicon-A76 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp
# The big cores are marketed/documented as Cortex-A76 by HiSilicon but instead of the usual ARM core ID 0x41/0xd0b they have 0x48/0xd40
echo "HiSilicon Kirin 980"
;;
*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A76r3p0*A76r3p0*A76r3p0*A76r3p0|*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A76r3p1*A76r3p1*A76r3p1*A76r3p1)
# HiSilicon Kirin 990, 4 x Cortex-A55 / r1p0 + 4 x HiSilicon-A76 / r3p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp asimdrdm lrcpc dcpop asimddp
# The big cores are marketed/documented as Cortex-A76 by HiSilicon but instead of the usual ARM core ID 0x41/0xd0b they have 0x48/0xd40
# There also seems to be a newer Kirin 990 version with HiSilicon-A76 / r3p1 cores
# https://browser.geekbench.com/v5/cpu/compare/21007796?baseline=18843090
echo "HiSilicon Kirin 990"
;;
*A55*TaiShanv120*)
# HiSilicon Kirin 990A, 4 x Cortex-A55 + 4 x TaiShan v120 Lite
echo "HiSilicon Kirin 990A"
;;
*A55r?p*A55r?p*A55r?p*A55r?p*A77r1p0*A77r1p0*A77r1p0*A77r1p0)
# HiSilicon Kirin 9000, 4 x Cortex-A55 + 4 x Cortex-A77 / r1p0 / https://browser.geekbench.com/v6/cpu/2493425
echo "HiSilicon Kirin 9000"
;;
*A510r1p1*A510r1p1*A510r1p1*A510r1p1*A710r2p2*A710r2p2*A710r2p2*TaiShanv120r2p2)
# HiSilicon Kirin 9000s: 4 x Cortex-A510 / r1p1 + 3 x HiSilicon-A710 / r2p2 + 1 x TaiShan v120 / r2p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 sm3 sm4 asimddp sha512 sve asimdfhm dit ilrcpc flagm ssbs sb pacg dcpodp flagm2 frint svei8mm i8mm bti
# https://youtu.be/SCRIFe0uaac?feature=shared&t=32
# The 'A710' like cores use HiSilicon's own 48/d42 ID and all the big cores are SMT capable
echo "HiSilicon Kirin 9000s"
;;
*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A76r3p0*A76r3p0)
# HiSilicon Kirin 810, 6 x Cortex-A55 / r1p0 + 2 x HiSilicon-A76 / r3p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp asimdrdm lrcpc dcpop asimddp
# The big cores are marketed/documented as Cortex-A76 by HiSilicon but instead of the usual ARM core ID 0x41/0xd0b they have 0x48/0xd40
echo "HiSilicon Kirin 810"
;;
*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A76r4p?*A76r4p?)
# Allwinner A733/A736/T736, 6 x Cortex-A55 / r2p0 + 2 x Cortex-A76 / r4p?
case "${DTCompatible,,}" in
*sun60iw1*|*a736*|*t736*)
echo "Allwinner A736/T736"
;;
*sun60iw2*|*a733*)
echo "Allwinner A733"
;;
esac
;;
*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A78*A78)
# Allwinner A737/T737, 6 x Cortex-A55 / r2p0 + 2 x Cortex-A78
grep -E -q 'allwinner|a737|t737|' <<<"${DTCompatible,,}" && echo "Allwinner A737/T737"
;;
0A9r4p10A9r4p1|0?A9r4p10?A9r4p1)
# Armada 375/38x, 2 x Cortex-A9 / r4p1 / swp half thumb fastmult vfp edsp neon vfpv3 tls
# or MStar Infinity2: 2 Cortex-A9 / r4p1 / half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpd32
# or Triductor TR6560: 2 x Cortex-A9 / r4p1
case "${DTCompatible,,}" in
*armada*)
echo "Marvell Armada 375/38x"
;;
*mstar*|*infinity*)
echo "MStar Infinity2"
;;
*)
echo "Triductor TR6560"
;;
esac
;;
*A9r4p1)
# HiSilicon Hi3520D-V300: 1 x Cortex-A9 / r4p1 / swp half fastmult edsp
echo "HiSilicon Hi3520D-V300"
;;
0?A72r0p10?A72r0p10?A72r0p10?A72r0p1)
# Armada 8040, 4 x Cortex-A72 / r0p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Marvell Armada 8040"
;;
0?A72r0p10?A72r0p1)
# Armada 8020, 2 x Cortex-A72 / r0p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Marvell Armada 8020"
;;
??A53r0p4??A53r0p4)
# Armada 3700, 2 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Marvell Armada 37x0"
;;
10ARM1176r0p7)
# BCM2835, 1 x ARM1176 / r0p7 / half thumb fastmult vfp edsp java tls
echo "BCM2835"
;;
??A73r?p???A73r?p???A73r?p???A73r?p?)
# Qualcomm IPQ9574, 4 x Cortex-A73
# or Synaptics VS680 (also called SenaryTech SN3680), 4 x Cortex-A73
# or MediaTek MT7988A (Filogic 880), 4 x Cortex-A73
case "${DTCompatible,,}" in
*qualcomm*|*9574*)
echo "Qualcomm IPQ9574"
;;
*synaptics*|*syna,*|*vs680*|*senarytech*|*sn3680*)
echo "Synaptics VS680"
;;
*880*|*mt7988*)
echo "MediaTek MT7988A (Filogic 880)"
;;
esac
;;
00A72r0p300A72r0p300A72r0p300A72r0p3)
# BCM2711, 4 x Cortex-A72 / r0p3 / fp asimd evtstrm crc32 (running 32-bit: half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm crc32)
# or Marvell Armada3900-A1, 4 x Cortex-A72 / r0p3 / https://community.cisco.com/t5/wireless/catalyst-9130ax-ap-booting-into-wnc-linux-instead-of-ios-xe/td-p/4460181
case "${DTCompatible,,}" in
*raspberrypi*|*bcm283*|*bcm2711*)
echo "BCM2711${BCM2711}"
;;
*marvell*|*3900*)
echo "Marvell Armada3900-A1"
;;
esac
;;
*A76r4p1*A76r4p1*A76r4p1*A76r4p1)
# BCM2712, 4 x Cortex-A76 / r4p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop asimddp
echo "BCM2712"
;;
??A72r0p3??A72r0p3)
# Xilinx Versal, 2 x Cortex-A72 / r0p3 / fp asimd aes pmull sha1 sha2 crc32 cpuid
echo "Xilinx Versal"
;;
10A7r0p310A7r0p310A7r0p310A7r0p30?A15r2p30?A15r2p30?A15r2p30?A15r2p3)
# Exynos 5422, 4 x Cortex-A7 / r0p3 + 4 x Cortex-A15 / r2p3 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae (with 5.x also evtstrm)
echo "Exynos 5422"
;;
10A7r0p410A7r0p410A7r0p410A7r0p404A15r3p304A15r3p304A15r3p304A15r3p3)
# Exynos 5430, 4 x Cortex-A7 / r0p4 + 4 x Cortex-A15 / r3p3 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae (with 5.x also evtstrm)
echo "Exynos 5430"
;;
*A7r0p4*A7r0p4*A7r0p4*A7r0p4*A7r0p4*A7r0p4*A7r0p4*A7r0p4|*A7r0p4*A7r0p4)
# Mediatek MT6592: 8 x Cortex-A7 / r0p4 / swp half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt
# (with vendor kernel often only 2 cores show up in /proc/cpuinfo)
echo "Mediatek MT6592"
;;
00A35r0p100A35r0p100A35r0p100A35r0p1)
# Mediatek MT8167B: 4 x Cortex-A35 / r0p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Mediatek MT8167B"
;;
*A35r0p1*A35r0p1*A35r0p1*A35r0p1*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A73r0p2*A73r0p2|*A35r0p1*A53r0p4*A73r0p2)
# Mediatek MT6799: 4 x Cortex-A35 / r0p1 + 4 x Cortex-A53 / r0p4 + 2 x Cortex-A73 / r0p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Mediatek MT6799"
;;
00A35r0p200A35r0p2)
# RK1808, 2 x Cortex-A35 / r0p2 / https://patchwork.kernel.org/project/linux-arm-kernel/patch/20210516230551.12469-6-afaerber@suse.de/#24199353
echo "Rockchip RK1808"
;;
00A35r0p200A35r0p200A35r0p200A35r0p2)
# RK3308/RK3326/PX30/PX30S, 4 x Cortex-A35 / r0p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or i.MX8QXP, 4 x Cortex-A35 / r0p2 / https://gist.github.com/stravs/f82c8a0af276b2d1e6b57235d048f027
case "${DTCompatible,,}" in
*rk3308*)
echo "Rockchip RK3308"
;;
*rk3326*)
echo "Rockchip RK3326"
;;
*px30s*)
echo "Rockchip PX30S"
;;
*px30*)
echo "Rockchip PX30/PX30S"
;;
*rockchip*)
echo "Rockchip RK3308/RK3326/PX30/PX30S"
;;
*)
echo "NXP i.MX8QXP"
;;
esac
;;
00A35r1p000A35r1p000A35r1p000A35r1p0)
# S805X2/S905Y4/S905W2, 4 x Cortex-A35 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Amlogic S805X2/S905Y4/S905W2"
;;
*A35r*A35r*A35r*A35r???)
# RK quad-core A35 with yet unknown details (stepping/flags)
case "${DTCompatible,,}" in
*rk3308b*)
echo "Rockchip RK3308B"
;;
*rk3308h*)
echo "Rockchip RK3308H"
;;
*rk3358j*)
echo "Rockchip RK3358J"
;;
esac
;;
*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A72r1p0*A72r1p0*A72r1p0*A72r1p0)
# RK3576, 4 x Cortex-A53 / r0p4 + 4 x Cortex-A72 / r1p0 https://archive.ph/7lkym
# (most recent steppings are pure assumption since announced in 2023)
# Why A53/A72 still in 2024? Since last ARM cores able to boot a 32-bit
# ARMv8l kernel (32-bit userlands consume way less memory compared to 64-bit)
# The RK3576J variant can run isolated operating systems on each CPU cluster:
# https://twitter.com/BG5USN/status/1767000716709609521
echo "Rockchip RK3576"
;;
0?A55r2p00?A55r2p00?A55r2p00?A55r2p0??A76r4p0??A76r4p0??A76r4p0??A76r4p0)
# RK3588, 4 x Cortex-A55 / r2p0 + 2 x Cortex-A76 / r4p0 / + 2 x Cortex-A76 / r4p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp asimdrdm lrcpc dcpop asimddp
# or RK3582/RK3583 which are chips not fully passing QA where one of the two A76 clusters is hidden by default even if fully functional and might have been brought back by a DT overlay
# or Unisoc UMS9620, 4 x Cortex-A55 / r2p0 + 3 x Cortex-A76 / r4p0 / + 1 x Cortex-A76 / r4p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp asimdrdm lrcpc dcpop asimddp
case "${DTCompatible,,}" in
*ums9620*)
echo "Unisoc UMS9620"
;;
*)
if [ "X${RK_NVMEM}" != "X" ]; then
if [ "${RK_NVMEM:16:2}${RK_NVMEM:19:2}" = "3588" ]; then
case "${RK_NVMEM:28:2}" in
21)
echo "Rockchip RK3588 / ${RK_NVMEM:16:42}"
;;
33)
echo "Rockchip RK3588s / ${RK_NVMEM:16:42}"
;;
*)
echo "Rockchip RK3588/RK3588s / ${RK_NVMEM:16:42}"
;;
esac
else
echo "Rockchip RK${RK_NVMEM:16:2}${RK_NVMEM:19:2} / ${RK_NVMEM:16:42}"
fi
elif [ -f /sys/devices/system/cpu/cpufreq/policy7/cpuinfo_max_freq ]; then
# According to this site RK3588M is limited to 2.1 GHz
# https://techacute.com/rockchip-launched-flagship-smart-vehicle-solution-rk3588m-with-360-panoramic-view-function/
read MaxRK3588Freq ARMv7 Processor [410fc075] revision 5 (ARMv7), cr=10c5387d)
# or Allwinner F133/H133/R528/T113: 2 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm (https://forums.100ask.net/t/topic/2867 -> ARMv7 Processor [410fc075] revision 5 (ARMv7), cr=10c5387d)
# or STMicroelectronics STM32MP153C: 2 x Cortex-A7 / r0p5 / half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
case "${DTCompatible,,}" in
*rockchip*)
echo "Rockchip RV1109"
;;
*renesas*)
echo "Renesas RZ/N1D"
;;
*sstar*)
echo "SigmaStar SSD201/SSD202D"
;;
*sun8iw18*|*r328*)
echo "Allwinner R328"
;;
*sun8iw20*|*f133*|*h133*|*r528*|*t113*)
echo "Allwinner F133/H133/R528/T113"
;;
*stm32mp153*)
echo "STMicroelectronics STM32MP153C"
;;
esac
;;
??A9r1p0??A9r1p0)
# Nvidia Tegra 2, 2 x Cortex-A9 / r1p0 / swp half thumb fastmult vfp edsp thumbee vfpv3 vfpv3d16 (no neon)
echo "Nvidia Tegra 2"
;;
??A9r2p9??A9r2p9??A9r2p9??A9r2p9)
# Nvidia Tegra 3, 4 x Cortex-A9 / r2p9 / swp half thumb fastmult vfp edsp neon vfpv3 tls
echo "Nvidia Tegra 3"
;;
*A7r0p5*A7r0p5*A7r0p5*A7r0p5*A15r3p3*A15r3p3*A15r3p3*A15r3p3)
# HiSilicon Kirin 920/925/928: 4 x Cortex-A7 / r0p5 + 4 x Cortex-A15 / r3p3 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt
echo "HiSilicon Kirin 920/925/928"
;;
*A15r3p3*A15r3p3*A15r3p3*A15r3p3)
# Nvidia Tegra K1 (124): 4 x Cortex-A15 / r3p3 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt
echo "Nvidia Tegra K1 (124)"
;;
00A57r1p100A57r1p100A57r1p100A57r1p1)
# Tegra X1/TX1, 4 x Cortex-A57 / r1p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Nvidia Tegra X1/TX1"
;;
*A57r1p3*A57r1p3*A57r1p3*A57r1p3*A57r1p3*A57r1p3*A57r1p3*A57r1p3)
# Baikal-M, 8 x Cortex-A57 / r1p3 / fp asimd evtstrm crc32 cpuid
echo "Baikal-M"
;;
*A57r1p3*)
# Jetson TX2, 1-4 x Cortex-A57 / r1p3 + 0-2 x Denver 2 / r0p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Renesas R-Car family: 2-4 x Cortex-A57 / r1p3 + 0-4 Cortex-A53 / r0p4 / https://jira.automotivelinux.org/browse/SPEC-2614?focusedCommentId=20987&page=com.atlassian.jira.plugin.system.issuetabpanels%3Acomment-tabpanel
case "${DTCompatible,,}" in
*r8a7795*)
echo "Renesas R8A7795/R-Car H3"
;;
*r8a77965*)
echo "Renesas R8A77965/R-Car M3N"
;;
*r8a7796*)
echo "Renesas R8A7796/R-Car M3"
;;
*nvidia*)
echo "Nvidia Jetson TX2"
;;
esac
;;
*NVidiar0p0*NVidiar0p0)
# Nvidia Tegra K1 (Tegra132): 2 x Denver / r0p0 / fp asimd aes pmull sha1 sha2 crc32
echo "Nvidia Tegra K1 (Tegra132)"
;;
*NVidiar0p0*)
# Nvidia Tegra Xavier | 4-8 x NVidia Carmel / r0p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp
echo "Nvidia Tegra Xavier"
;;
*A78AEr0p1*A78AEr0p1*A78AEr0p1*A78AEr0p1*A78AEr0p1*)
# Nvidia Jetson Orin NX / AGX Orin: 6-12 Cortex-A78AE / r0p1 / https://forums.developer.nvidia.com/t/orin/212053/8 https://developer.nvidia.com/embedded/jetson-orin
case ${CPUCores} in
6)
echo "Nvidia Jetson Orin NX"
;;
8)
echo "Nvidia Jetson Orin NX or AGX Orin"
;;
*)
echo "Nvidia Jetson AGX Orin"
;;
esac
;;
50A17r0p150A17r0p150A17r0p150A17r0p1)
# RK3288: 4 x Cortex-A17 / r0p1 / half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "Rockchip RK3288"
;;
*A7r0p5*A7r0p5*A7r0p5*A7r0p5*A17r0p0*A17r0p0*A17r0p0*A17r0p0)
# MediaTek MT6595: 4 x Cortex-A7 / r0p5 + 4 x Cortex-A17 / r0p0 / swp half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt
echo "MediaTek MT6595"
;;
*A17r0p0*A17r0p0)
# MediaTek MT5890: 2 x Cortex-A17 / r0p0 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt
# though has been advertised as quad core (2 x A7 + 2 x A17): https://www.avforums.com/attachments/safari-27-jul-2018-at-09-23-pdf.1043417/
echo "MediaTek MT5890"
;;
*A15r2p1*A15r2p1*A7r0p1*A7r0p1*A7r0p1)
# ARM Versatile V2P-CA15-CA7: 2 x Cortex-A15 / r2p1 + 3 x Cortex-A7 / r0p1 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
echo "ARM Versatile V2P-CA15-CA7"
;;
?0A7r0p2?0A7r0p2?0A7r0p2?0A7r0p2)
# MT6589: 4 x Cortex-A7 / r0p2 / https://gist.github.com/MaTBeu4uk/3a1bea6bf8c658829622f3ecbcf4b7eb which is in conflict to other sources who claim Cortex-A7 / r0p3
echo "Mediatek MT6589"
;;
*A7r0p3*A7r0p3*A15r3p2*A15r3p2)
# MT8135: 2 x Cortex-A7 / r0p3 + 2 x Cortex-A15 / r3p2 / swp half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt
echo "Mediatek MT8135"
;;
*A7r0p3*A7r0p3*A7r0p3*A7r0p3)
# Allwinner A31/A31s: 4 x Cortex-A7 / r0p3 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
# or MT7623: 4 x Cortex-A7 / r0p3 / half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm
# or MT6580: 4 x Cortex-A7 / r0p3 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae
# or MT6582: 4 x Cortex-A7 / r0p3 / swp half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt
# or MT6589: 4 x Cortex-A7 / r0p3 / swp half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt
# or MT8127: 4 x Cortex-A7 / r0p3 / swp half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt
# or Qualcomm MSM8226/MSM8926 (Snapdragon 400): 4 x Cortex-A7 / r0p3 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt
case "${DTCompatible,,}" in
*mt6580*)
echo "Mediatek MT6580"
;;
*mt6582*)
echo "Mediatek MT6582"
;;
*mt6589*)
echo "Mediatek MT6589"
;;
*mt8127*)
echo "Mediatek MT8127"
;;
*mt7623*)
echo "Mediatek MT7623"
;;
*msm8226*|*msm8926*|*400*)
echo "Qualcomm MSM8226/MSM8926 (Snapdragon 400)"
;;
*a31*|*sun6i*)
echo "Allwinner A31/A31s"
;;
esac
;;
*A7r0p3*A7r0p3)
# Mediatek MT6572: 2 x Cortex-A7 / r0p3 / swp half thumb fastmult vfp edsp thumbee neon vfpv3 tls vfpv4 idiva idivt
# or Qualcomm MSM8610 (Snapdragon 200): 2 x Cortex-A7 / r0p3 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt
case "${DTCompatible,,}" in
*mt6572*)
echo "Mediatek MT6572"
;;
*)
echo "Qualcomm MSM8610 (Snapdragon 200)"
;;
esac
;;
*A53r0p1*A53r0p1*A53r0p1*A53r0p1*A53r0p1*A53r0p1*A53r0p1*A53r0p1)
# Qualcomm MSM8939: 8 x Cortex-A53 / r0p1 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 evtstrm (booting 32-bit obviously)
echo "Qualcomm MSM8939"
;;
??A53r0p3??A53r0p3??A53r0p3??A53r0p3??A53r0p3??A53r0p3??A53r0p3??A53r0p3|??A53r0p3??A53r0p3??A53r0p3??A53r0p3)
# Nexell S5P6818, 8 x Cortex-A53 / r0p3 / fp asimd aes pmull sha1 sha2 crc32
# or HiSilicon Kirin 620/930, 8 x Cortex-A53 / r0p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or Samsung Exynos 7580, 4 or 8 x Cortex-A53 / r0p3 / fp asimd aes pmull sha1 sha2 crc32 wp half thumb fastmult vfp edsp neon vfpv3 tlsi vfpv4 idiva idivt
case "${DTCompatible,,}" in
*hi6220*|*hi6210*)
echo "HiSilicon Kirin 620"
;;
*hisilicon*)
echo "HiSilicon Kirin 620/930"
;;
*nexell*)
echo "Nexell S5P6818"
;;
*7580*)
echo "Samsung Exynos 7580"
;;
esac
;;
*A53r0p3*A53r0p3*A53r0p3*A53r0p3)
# Mediatek MT6735: 4 x Cortex-A53 / r0p3 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt vfpd32 lpae evtstrm sha2 (booting 32-bit)
# or Mediatek MT8163: 4 x Cortex-A53 / r0p3 / half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt lpae evtstrm aes pmull sha1 sha2 crc32
# or HiSilicon Hi3751: 4 x Cortex-A53 / r0p3 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt (booting 32-bit kernel)
case "${DTCompatible,,}" in
*mt6735*)
echo "Mediatek MT6735"
;;
*mt8163*)
echo "Mediatek MT8163"
;;
*hi3751*)
echo "HiSilicon Hi3751"
;;
esac
;;
*A53r0p3*A53r0p3)
# HiSilicon Hi3751: 2 x Cortex-A53 / r0p3 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt (booting 32-bit kernel)
echo "HiSilicon Hi3751"
;;
00Cavium88XXr1p1*)
# ThunderX CN8890, 48 x ThunderX 88XX / r1p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "$(( ${CPUCores} / 48 )) x ThunderX CN8890"
;;
??A9r2p10??A9r2p10??A9r2p10??A9r2p10)
# NXP i.MX6 Quad | 4 x Cortex-A9 / r2p10 / swp half thumb fastmult vfp edsp thumbee neon vfpv3
echo "NXP i.MX6 Quad"
;;
*A9r2p10*A9r2p10)
# NXP i.MX6 Dual | 2 x Cortex-A9 / r2p10 / swp half thumb fastmult vfp edsp thumbee neon vfpv3
# or TI OMAP4470: 2 x Cortex-A9 / r2p10 / swp half thumb fastmult vfp edsp thumbee neon vfpv3
grep -q "imx6" <<<"${DTCompatible,,}" && echo "NXP i.MX6 Dual" || echo "TI OMAP4470"
;;
??A9r2p1??A9r2p1)
# FreeScale/NXP QorIQ LS1024A | 2 x Cortex-A9 / r2p1 / swp half thumb fastmult vfp edsp thumbee neon vfpv3 tls
# or Samsung Exynos 4210 | 2 x Cortex-A9 / r2p1 / swp half thumb fastmult vfp edsp neon vfpv3 tls
echo "NXP QorIQ LS1024A or Samsung Exynos 4210"
;;
??A9r1p2??A9r1p2)
# TI OMAP 4460 | 2 x Cortex-A9 / r1p2 / https://e2e.ti.com/support/processors-group/processors/f/processors-forum/243190/booting-problem-of-omap4460-pandaboard
echo "TI OMAP 4460"
;;
??A9r1p3??A9r1p3)
# TI OMAP 4430 | 2 x Cortex-A9 / r1p3 / swp half thumb fastmult vfp edsp thumbee neon vfpv3
echo "TI OMAP 4430"
;;
??A15r0p4??A15r0p4)
# Samsung Exynos 5 Dual 5250: 2 x Cortex-A15 / r0p4 / https://bench.cr.yp.to/computers.html
echo "Samsung Exynos 5 Dual 5250"
;;
??A15r2p4??A15r2p4)
# AnnapurnaLabs Alpine | 2 x Cortex-A15 / r2p4 / swp half thumb fastmult vfp edsp neon vfpv3 tls vfpv4 idiva idivt
echo "AnnapurnaLabs Alpine"
;;
??Marvellr1p1)
# Marvell Armada 370/XP | 1 x Marvell PJ4 / r1p1 / half thumb fastmult vfp edsp vfpv3 vfpv3d16 tls idivt
echo "Marvell Armada 370/XP"
;;
??Marvellr0p5)
# Marvell Armada 510, 1 x Marvell PJ4 / r0p5 / swp half thumb fastmult vfp edsp iwmmxt thumbee
echo "Marvell Armada 510"
;;
??Marvell88FR131r2p1)
# Marvell Kirkwood 88F6281: 1 x Marvell Feroceon 88FR131 / r2p1 / swp half thumb fastmult edsp
echo "Marvell Kirkwood 88F6281 / Armada 300/310"
;;
??Marvellr2p2??Marvellr2p2??Marvellr2p2??Marvellr2p2)
# Marvell PJ4Bv7 | 4 x Marvell PJ4B-MP / r2p2 / swp half thumb fastmult vfp edsp vfpv3 tls
echo "Marvell PJ4Bv7"
;;
??ARM11r0p5??ARM11r0p5)
# PLX NAS7820: 2 x ARM11 MPCore / r0p5 / swp half thumb fastmult edsp java
echo "PLX NAS7820"
;;
*FTC660r1p1*FTC660r1p1*FTC660r1p1*FTC660r1p1)
# Phytium FT-1500A: 4 x Phytium FTC660 / r1p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32 / https://openbenchmarking.org/s/Phytium+FT1500A
echo "Phytium FT-1500A"
;;
*FTC662r1p2*FTC662r1p2*FTC662r1p2*FTC662r1p2*FTC662r1p2*FTC662r1p2*FTC662r1p2*FTC662r1p2*FTC662r1p2*)
# Phytium FT-2000+/64: 64 x Phytium FTC662 / r1p2 / fp asimd evtstrm crc32 / https://github.com/util-linux/util-linux/issues/1036
echo "Phytium FT-2000+/64"
;;
*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*)
# Phytium FT-2500: 64 x Phytium FTC663 / r1p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "$(( ${CPUCores} / 64 )) x Phytium FT-2500"
;;
*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3)
# Phytium D2000/8: 8 x Phytium FTC663 / r1p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Phytium D2000/8"
;;
*FTC663r1p3*FTC663r1p3*FTC663r1p3*FTC663r1p3)
# Phytium FT-2000/4: 4 x Phytium FTC663 / r1p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32 / https://www.phytium.com.cn/en/article/97
echo "Phytium FT-2000/4"
;;
*FTC310r0p4*FTC310r0p4*FTC664r1p3*FTC664r1p3)
# Phytium E2000Q: 2 x FTC310 / r0p4 + 2 x FTC664 / r1p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid sha3 sha512
echo "Phytium E2000Q"
;;
*FTC310r0p4*FTC310r0p4)
# Phytium E2000D: 2 x FTC310 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid sha3 sha512
echo "Phytium E2000D"
;;
*FTC310r0p4)
# Phytium E2000S: 1 x FTC310 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid sha3 sha512
echo "Phytium E2000S"
;;
*FTC862r0p0*FTC862r0p0*FTC862r0p0*FTC862r0p0*FTC862r0p0*FTC862r0p0*FTC862r0p0*FTC862r0p0)
# Phytium D3000/8: 8 x Phytium FTC862 / r0p0 / https://browser.geekbench.com/v6/cpu/3447903.gb6
echo "Phytium D3000"
;;
*A57r1p2*A57r1p2*A57r1p2*A57r1p2*A57r1p2*A57r1p2*A57r1p2*A57r1p2)
# AMD Opteron A1100: 8 x Cortex-A57 / r1p2 / https://bugzilla-attachments.redhat.com/attachment.cgi?id=1475897
echo "AMD Opteron A1100"
;;
*Cavium99xxr0p1*)
# Cavium ThunderX2 CN9980: 32 x Cavium ThunderX2 99xx / r0p1
echo "$(( ${CPUCores} / 32 )) x Cavium ThunderX2 CN9980"
;;
*XGener3p2*)
# APM Emag 8180: 32 x Ampere X-Gene / r3p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid
# Earlier X-Gene revisions than r3 lack CRC and crypto flags/features
echo "$(( ${CPUCores} / 32 )) x APM Emag 8180"
;;
*Xgener0p0*Xgener0p0*Xgener0p0*Xgener0p0*Xgener0p0*Xgener0p0*Xgener0p0*Xgener0p0*)
# APM 883208-X1: 8 x APM X-Gene / r0p0 / fp asimd evtstrm
echo "$(( ${CPUCores} / 8 )) x APM 883208-X1"
;;
*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*)
# HiSilicon Kunpeng 916 in Huawei Taishan 100 2280 server: 2 x 32 x Cortex-A72 / r0p2 / https://gist.github.com/expipiplus1/bd48761b119e867d3c9ddabc2f677374
echo "$(( ${CPUCores} / 32 )) x HiSilicon Kunpeng 916"
;;
*TaiShanv110r1p0*)
# HiSilicon Kunpeng 920-6426 in Huawei Taishan 200 2280 V2 server: 2 x 64 x TaiShan v110 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma dcpop asimddp asimdfhm ssbs
# https://www.spec.org/cpu2017/results/res2020q2/cpu2017-20200529-22564.html / https://en.wikichip.org/wiki/hisilicon/microarchitectures/taishan_v110
case $(awk -F":" '/ per socket/ {print $2}' <<<"${LSCPU}" | tr -c -d '[:digit:]') in
32)
echo "$(( ${CPUCores} / 32 )) x HiSilicon Kunpeng 920-3226"
;;
48)
echo "$(( ${CPUCores} / 48 )) x HiSilicon Kunpeng 920-4826"
;;
64)
echo "$(( ${CPUCores} / 64 )) x HiSilicon Kunpeng 920-6426"
;;
24)
echo "HiSilicon Kunpeng 920 3211K"
;;
8)
echo "HiSilicon Kunpeng 920 2249K"
;;
4)
echo "HiSilicon Kunpeng 920 quad core"
;;
esac
;;
*TaiShanv120*)
# HiSilicon HiSilicon Kunpeng 930
echo "HiSilicon Kunpeng 930"
;;
*A72r0p2*A72r0p2*A53r0p4*A53r0p4)
# Socionext UniPhier LD20: 2 x Cortex-A72 / r0p2 + 2 x Cortex-A53 / r0p4 / https://lore.kernel.org/all/CAM-ziR6N36F-2C7wHLEa4rUD1BpN+pAyMtnjCS9NWJWACZnwQA@mail.gmail.com/T/
echo "Socionext UniPhier LD20"
;;
*A53r0p1*A53r0p1*A53r0p1*A53r0p1*A57r1p0*A57r1p0*A57r1p0*A57r1p0)
# Samsung Exynos 5433: 4 x Cortex A53 / r0p1 + 4 x Cortex A57 / r1p0 / ?
echo "Samsung Exynos 5433"
;;
*A53r0p2*A53r0p2*A53r0p2*A53r0p2*A57r1p0*A57r1p0*A57r1p0*A57r1p0)
# Samsung Exynos 7420: 4 x Cortex A53 / r0p2 + 4 x Cortex A57 / r1p0 / fp asimd aes pmull sha1 sha2 crc32
echo "Samsung Exynos 7420"
;;
*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A53r0p4*A73r0p2*A73r0p2)
# Samsung Exynos 7885: 6 x Cortex A53 / r0p4 + 2 Cortex A73 / r0p2 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Samsung Exynos 7885"
;;
*A53r0p4*A53r0p4*A53r0p4*A53r0p4*Samsungr1p1*Samsungr1p1*Samsungr1p1*Samsungr1p1)
# Samsung Exynos 8890: 4 x Cortex A53 / r0p4 + 2 or 4 x Exynos-m1 / r1p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "Samsung Exynos 8890"
;;
*A53r0p4*A53r0p4*A53r0p4*A53r0p4*Samsungr4p0*Samsungr4p0*Samsungr4p0*Samsungr4p0)
# Samsung Exynos 8895: 4 x Cortex A53 / r0p4 + 4 x Exynos-m1 / r4p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# The cores are called M2 (Mongoose 2) but share same core ID with M1 and only stepping differs
echo "Samsung Exynos 8895"
;;
*A55r0p1*A55r0p1*A55r0p1*A55r0p1*Samsungr1p0*Samsungr1p0*Samsungr1p0*Samsungr1p0)
# Samsung Exynos 9810: 4 x Cortex A55 / r0p1 + 4 x Exynos-m3 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp
echo "Samsung Exynos 9810"
;;
*A55r1p0*A55r1p0*A55r1p0*A55r1p0*A75r2p1*A75r2p1*Samsungr1p0*Samsungr1p0)
# Samsung Exynos 9820: 4 x Cortex A55 / r1p0 + 2 x Cortex-A75 / r2p1 + 2 x Exynos-m4 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm dcpop asimddp
echo "Samsung Exynos 9820"
;;
*A76r3p0*A76r3p0*A76r3p0*A76r3p0*A76r3p0*A76r3p0*A76r3p0*A76r3p0)
# Samsung Exynos Auto V9: 8 x Cortex-A76 / r3p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop
echo "Samsung Exynos Auto V9"
;;
*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2*A72r0p2)
# NXP LS2088A: 8 x Cortex-A72 / r0p2 / https://community.nxp.com/t5/QorIQ/LS2088-ETH1-connection/td-p/1024323
echo "NXP LS2088A"
;;
*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3*A72r0p3)
# NXP LX2160A: 16 x Cortex-A72 / r0p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32
# or AWS Graviton, 16 x Cortex-A72 / r0p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32 / L1d: 32K, L1i: 48K, L2: 2048K
grep -q -E "nxp|lx2160" <<<"${DTCompatible,,}" && echo "NXP LX2160A" || echo "AWS Graviton"
;;
36?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p3)
# NXP LX2080A: 8 x Cortex-A72 / r0p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "NXP LX2080A"
;;
36?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p336?A72r0p3)
# NXP LX2120A: 12 x Cortex-A72 / r0p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "NXP LX2120A"
;;
*A72r0p3*A72r0p3)
# NXP LS1028A: 2 x Cortex-A72 / r0p3 / fp asimd evtstrm aes pmull sha1 sha2 crc32
echo "NXP LS1028A"
;;
*A75r3p1*)
# Unisoc T610/T618/T700/T740: 4-6 x Cortex A55 + 2/4 x Cortex-A75 / r3p1
case "${DTCompatible,,}" in
*t610*)
echo "Unisoc T610"
;;
*t618*)
echo "Unisoc T618"
;;
*t700*)
echo "Unisoc T700"
;;
*t740*)
echo "Unisoc T740"
;;
*unisoc*)
echo "Unisoc T610/T618/T700/T740"
;;
esac
;;
*NeoverseN1r3p1*)
# Ampere Altra / Altra Max: 32/48/64/72/80/96/128 x Neoverse-N1 / r3p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop asimddp ssbs
# or AWS Graviton2: 1/2/4/8/16/32/48/64 vCPU Neoverse-N1 / r3p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop asimddp ssbs / L1d 128K, L1i 128K, L2 2M, L3 32M
# https://lore.kernel.org/all/alpine.DEB.2.22.394.2204131354190.3066615@ubuntu-linux-20-04-desktop/
# https://www.spec.org/cpu2017/results/res2021q3/cpu2017-20210702-27694.pdf
# https://www.youtube.com/watch?v=4jImmuMqnwc&t=1111s
# https://www.anandtech.com/show/15578/cloud-clash-amazon-graviton2-arm-against-intel-and-amd
# https://github.com/coreos/fedora-coreos-tracker/issues/920#issuecomment-904981854
# https://github.com/xianyi/OpenBLAS/issues/2696#issuecomment-652627716
# https://www.anandtech.com/show/16979/the-ampere-altra-max-review-pushing-it-to-128-cores-per-socket
# https://blog.cloudflare.com/arms-race-ampere-altra-takes-on-aws-graviton2/
#
# Distinguishing between Graviton2 and Ampere Altra (QuickSilver) isn't easy since they
# share same core types, stepping, CPU flags and even cache sizes though this site here
# https://adam.younglogic.com/2022/05/building-linux-tip-of-tree-on-an-ampere-based-system/
# reports smaller cache sizes for Ampere Altra. Measured clockspeeds should differ (2.5 GHz
# for AWS vs. 3/3+ GHz for Altra while reviews mentioned little less). Altra Max (Mystique)
# could be identified by its smaller L3 cache.
if [ -r "${ResultLog}" ]; then
grep -q 'No cpufreq support available. Measured on cpu' "${ResultLog}" && \
MeasuredClockspeed=$(awk -F": " '/No cpufreq support available. Measured on cpu/ {print $2}' <"${ResultLog}" | cut -f1 -d' ' | head -n 1) || \
MeasuredClockspeed=$(grep -A2 "^Checking cpufreq OPP" "${ResultLog}" | awk -F" " '/Measured/ {print $5}' | sort -r | head -n1)
fi
ProcessorInfo="$(dmidecode -t processor 2>/dev/null | grep -E -v -i "^#|^Handle|Serial|O.E.M.|1234567|SMBIOS|: Not |Unknown|OUT OF SPEC|00 00 00 00 00 00 00 00|: None")"
case ${ProcessorInfo} in
*Ampere*|*Altra*)
# Try to get Part Number via DMI
PartNumber="$(awk -F": " '/Part Number: / {print $2}' <<<"${ProcessorInfo}" | tr '\n' '/' | sed -e 's/NotSet/Unpopulated/' -e 's/\/$//')"
if [ -n "${PartNumber}" ]; then
# output part number:
echo "Ampere Altra ${PartNumber}"
else
# empty string, so check count of CPU cores per socket and in total and report that
case $(awk -F":" '/ per socket/ {print $2}' <<<"${LSCPU}" | tr -c -d '[:digit:]') in
32)
echo "$(( ${CPUCores} / 32 )) x Ampere Altra AADP-32"
;;
48)
echo "$(( ${CPUCores} / 48 )) x Ampere Altra AADP-48"
;;
64)
echo "$(( ${CPUCores} / 64 )) x Ampere Altra AADP-64"
;;
72)
echo "$(( ${CPUCores} / 72 )) x Ampere Altra AADP-72"
;;
80)
echo "$(( ${CPUCores} / 80 )) x Ampere Altra AADP-80"
;;
96)
echo "$(( ${CPUCores} / 96 )) x Ampere Altra AADP-96"
;;
128)
echo "$(( ${CPUCores} / 128 )) x Ampere Altra Max"
;;
*)
echo "Ampere Altra / Altra Max"
;;
esac
fi
;;
*)
# No DMI information hinting at Ampere/Altra so we check clockspeeds
if [ ${MeasuredClockspeed:-0} -gt 2550 ]; then
# Lame assumption that cpufreq above 2.5GHz identifies Ampere Altra
echo "Ampere Altra"
else
echo "AWS Graviton2"
fi
;;
esac
;;
*NeoverseV1r1p1*)
# AWS Graviton3: 1/2/4/8/16/32/48/64 vCPU Neoverse-V1 / r1p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 sm3 sm4 asimddp sha512 sve asimdfhm dit uscat ilrcpc flagm ssbs paca pacg dcpodp svei8mm svebf16 i8mm bf16 dgh rng
echo "AWS Graviton3"
;;
*NeoverseN2r0p0*)
# Marvell Octeon 10: 24 x Neoverse-N2 / r0p0 / fp asimd aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 sm3 sm4 asimddp sha512 sve asimdfhm dit uscat ilrcpc flagm ssbs sb paca pacg dcpodp sve2 sveaes svepmull svebitperm svesha3 svesm4 flagm2 frint rng / L1d 1.5M, L1i 1.5M, L2 24M, L3 48M
# or Alibaba g8y/c8y/r8y VMs hosted on YiTian 710 CPUs: 1/2/4/8/16/32/64/128 x Neoverse-N2 / r0p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 sm3 sm4 asimddp sha512 sve asimdfhm dit uscat ilrcpc flagm ssbs sb dcpodp sve2 sveaes svepmull svebitperm svesha3 svesm4 flagm2 frint svei8mm svebf16 i8mm bf16 dgh bti
if [ ${CPUCores} -eq 24 ]; then
echo "Marvell Octeon 10"
else
echo "YiTian 710"
fi
;;
*NeoverseV2r0p0*)
# Nvidia Grace: 72 or 144 Neoverse-V2 / r0p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 sm3 sm4 asimddp sha512 sve asimdfhm dit uscat ilrcpc flagm ssbs sb dcpodp sve2 sveaes svepmull svebitperm svesha3 svesm4 flagm2 frint svei8mm svebf16 i8mm bf16 dgh
case ${CPUCores} in
72)
echo "Nvidia Grace Hopper"
;;
144)
echo "Nvidia Grace"
;;
esac
;;
*AppleM1r0p0*AppleM1r0p0*AppleM1r0p0*AppleM1r0p0*AppleM1*AppleM1*AppleM1*AppleM1*|*AppleM1r1p1*AppleM1r1p1*AppleM1r1p1*AppleM1r1p1*AppleM1r1p1*AppleM1r1p1*AppleM1r1p1*AppleM1r1p1)
# Apple M1: 4 x Apple Icestorm / r1p1 + 4 x Apple Firestorm / r1p1 / https://gist.github.com/z4yx/13520bd2beef49019b1b7436e3b95ddd
# or 4 x Apple Icestorm / r0p0 + 4 x Apple Firestorm / ? / https://bench.cr.yp.to/computers.html
echo "Apple M1"
;;
*AppleM1Pror2p0*AppleM1Pror2p0*AppleM1Pror2p0*AppleM1Pror2p0*AppleM1Pror2p0*AppleM1Pror2p0*AppleM1Pror2p0*AppleM1Pror2p0*AppleM1Pror2p0*AppleM1Pror2p0)
# Apple M1 Pro: 2 x Apple Icestorm / r2p0 + 4 x Apple Firestorm / r2p0 + 4 x Apple Firestorm / r2p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 asimddp sha512 asimdfhm dit uscat ilrcpc flagm ssbs sb paca pacg dcpodp flagm2 frint
echo "Apple M1 Pro"
;;
*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max)
# Apple M1 Ultra: 2 M1 Max combined on an Interposer
echo "Apple M1 Ultra"
;;
*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max*AppleM1Max)
# Apple M1 Max: 2 x Apple Icestorm + 8 x Apple Firestorm
echo "Apple M1 Max"
;;
*AppleM2r1p0*AppleM2r1p0*AppleM2r1p0*AppleM2r1p0*AppleM2r1p0*AppleM2r1p0*AppleM2r1p0*AppleM2r1p0)
# Apple M2: 4 x Apple Blizzard / r1p0 + 4 x Apple Avalanche / r1p0 / https://github.com/hrw/arm-socs-table/blob/main/cpuinfo-data/apple-m2
echo "Apple M2"
;;
*AppleM2Pro*)
# Apple M2 Pro: 4 x Apple Blizzard + 6/8 x Apple Avalanche / https://github.com/AsahiLinux/m1n1/commit/7904ed43dc0c2760e728f611efa0b26895ebcd10
echo "Apple M2 Pro"
;;
*AppleM2Max*)
# Apple M2 Max: 4 x Apple Blizzard + 8 x Apple Avalanche / https://github.com/AsahiLinux/m1n1/commit/8d0474f57b1fb45588d412dcbe7e229dbe6d43cb
echo "Apple M2 Max"
;;
*AppleM3Pro*)
# Apple M3 Pro: 6 x Apple Sawtooth + 6 x Apple Everest
echo "Apple M3 Pro"
;;
*AppleM3Max*)
# Apple M3 Max: 4 x Apple Sawtooth + 12 x Apple Everest / https://github.com/AsahiLinux/m1n1/pull/357
echo "Apple M3 Max"
;;
*VirtualizedSiliconr0p0*)
# When running bare metal M1 and M2 SoCs differ by flags/features:
# M1: 'fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 asimddp sha512 asimdfhm dit uscat ilrcpc flagm ssbs sb paca pacg dcpodp flagm2 frint'
# M2: 'fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 asimddp sha512 asimdfhm dit uscat ilrcpc flagm ssbs sb paca pacg dcpodp flagm2 frint i8mm bf16 bti ecv'
# M3: Based on comparing 'sysctl -A | grep "hw.optional.arm.FEAT_"' output in macOS CPU features/flag seem to be identical to M2
# Inside Hypervisor.Framework guests on M1/M2 hosts all ID values are set to 0 (0x61/0x0 r0p0 on M3) and on M2/M3 SoCs VMs only see M1 CPU flags/features.
grep -q -E 'fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 asimddp sha512 asimdfhm dit uscat ilrcpc flagm ssbs sb paca pacg dcpodp flagm2 frint|fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 asimddp sha512 asimdfhm dit uscat ilrcpc flagm sb paca pacg dcpodp flagm2 frint' <<< "${ProcCPU}" && echo "Apple Silicon"
;;
*thead,c906|10)
# Allwinner D1: single T-Head C906 core
echo "Allwinner D1"
;;
*rv64i2p0m2p0a2p0f2p0d2p0c2p0xv50p0*rv64i2p0m2p0a2p0f2p0d2p0c2p0xv50p0)
# Kendryte K510: Dual-core 64-bit RISC-V https://canaan.io/product/kendryte-k510
grep -q k510 <<<"${DTCompatible,,}" && echo "Kendryte K510"
;;
*thead,c908*thead,c908|*rv64imafdcvxthead*)
# Kendryte K230: Dual-core 64-bit RISC-V https://canaan.io/product/kendryte-k230
echo "Kendryte K230"
;;
*thead,c910*thead,c910|1?1?|10rv64imafdcsu10rv64imafdcsu)
# T-Head C910: Dual-core XuanTieISA (compatible with RISC-V 64GC) https://www.t-head.cn/product/c910?lang=en
grep -q c910 <<<"${DTCompatible,,}" && echo "T-Head C910"
;;
??rv64imafdcvsu??rv64imafdcvsu??rv64imafdcvsu??rv64imafdcvsu)
# T-Head TH1520: quad-core T-Head C910 https://occ.t-head.cn/wujian600?id=4080405462988689408
echo "T-Head TH1520"
;;
*sifive,u54-mc*sifive,u54-mc*sifive,u54-mc*sifive,u54-mc)
# SiFive "Freedom" U540: 4 x U54-MC https://www.sifive.com/cores/u54-mc
echo "SiFive U540"
;;
10sifive,u74mc10sifive,u74mc10sifive,u74mc10sifive,u74mc|*sifive,u74mc*sifive,u74mc*sifive,u74mc*sifive,u74mc)
# StarFive JH7110: 4 x U74-MC https://raw.githubusercontent.com/ThomasKaiser/sbc-bench/master/results/cpuinfo/StarFive-JH7110-6.5.0.cpuinfo
echo "StarFive JH7110"
;;
*sifive,u74mc*sifive,u74mc)
# StarFive JH7100: 2 x U74-MC https://doc-en.rvspace.org/Doc_Center/datasheet_7100.html
echo "StarFive JH7100"
;;
*00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv00rv64imafdcv)
# Sophgo Mango / Sophon SG2042, 64 x T-Head C910 https://servernews.ru/1081875
if [ ${CPUCores} -gt 64 ]; then
echo "$(( ${CPUCores} / 64 )) x Sophon SG2042"
else
echo "Sophon SG2042"
fi
;;
*rv64imafdc)
# Renesas RZ/Five R9A07G043: single Andes AX45MP core
if [ ${CPUCores} -eq 1 ]; then
echo "Renesas RZ/Five R9A07G043"
fi
;;
0?Qualcomm3XXSilver0?Qualcomm3XXSilver0?Qualcomm3XXSilver0?Qualcomm3XXSilver0?Qualcomm3XXGold0?Qualcomm3XXGold0?Qualcomm3XXGold0?Qualcomm3XXGold)
# Qualcomm Snapdragon 845 / SDM845: 4 x Qualcomm Kryo 3XX Silver / r7p12 + 4 x Qualcomm Kryo 3XX Gold / r6p13 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop
echo "Qualcomm Snapdragon 845"
;;
00Qualcomm4XXSilver00Qualcomm4XXSilver00Qualcomm4XXSilver00Qualcomm4XXSilver14A77r1p014A77r1p014A77r1p027A77r1p0)
# Qualcomm Snapdragon 865 or QRB5165: 4 x Qualcomm Kryo 4XX Silver / r13p14 + 3 x Cortex-A77 / r1p0 + 1 x Cortex-A77 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp asimdrdm lrcpc dcpop asimddp
echo "Qualcomm Snapdragon 865 / QRB5165"
;;
*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A78r1p0*A78r1p0*A78r1p0*X1r1p0)
# Qualcomm SM8350 (Snapdragon 888): 4 x Cortex-A55 / r2p0 + 3 x Cortex-A78 / r1p0 + 1 x Cortex-X1 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop asimddp
echo "Qualcomm SM8350 (Snapdragon 888)"
;;
*A78Cr0p0*A78Cr0p0*A78Cr0p0*A78Cr0p0*X1Cr0p0*X1Cr0p0*X1Cr0p0*X1Cr0p0|360X1Cr0p0360X1Cr0p0360X1Cr0p0360X1Cr0p0360X1Cr0p0360X1Cr0p0360X1Cr0p0360X1Cr0p0)
# Qualcomm Snapdragon 8cx Gen 3 : 4 x Cortex-A78C / r0p0 + 4 x Cortex-X1C / r0p0 / fp asimd aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop asimddp ilrcpc flagm
# When running Linux on this thing in WSL2 (Windows Subsystem for Linux 2) all 8 cores are presented as Cortex-X1C and from within Linux it's impossible
# to assign single-threaded tasks to an A78C since they end up on an X1C anyway: https://github.com/ThomasKaiser/sbc-bench/issues/58#issuecomment-1374900303
echo "Qualcomm Snapdragon 8cx Gen 3"
;;
*A510r0p2*A510r0p2*A510r0p2*A510r0p2*A710r2p0*A710r2p0*A710r2p0*X2r2p0)
# Qualcomm Snapdragon 8 Gen1: 4 x Cortex-A510 / r0p2 + 3 Cortex-A710 / r2p0 + 1 x Cortex-X2 / r2p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 sm3 sm4 asimddp sha512 sve asimdfhm dit uscat ilrcpc flagm ssbs sb paca pacg dcpodp sve2 sveaes svepmull svebitperm svesha3 svesm4 flagm2 frint svei8mm svebf16 i8mm bf16 bti
echo "Qualcomm Snapdragon 8 Gen1"
;;
*A510r0p3*A510r0p3*A510r0p3*A510r0p3*A710r2p0*A710r2p0*A710r2p0*X2r2p0)
# Qualcomm Snapdragon 8+ Gen1: 4 x Cortex-A510 / r0p3 + 3 Cortex-A710 / r2p0 + 1 x Cortex-X2 / r2p0
echo "Qualcomm Snapdragon 8+ Gen1"
;;
*A510r1p1*A510r1p1*A510r1p1*A715r1p0*A715r1p0*A710r2p0*A710r2p0*X3r1p0)
# Qualcomm Snapdragon 8 Gen 2 (SM8550): 3 x Cortex-A510 / r1p1 + 2 x Cortex-A715 / r1p0 + 2 x Cortex-A710 / r2p0 + 1 x Cortex-X3 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 sm3 sm4 asimddp sha512 asimdfhm dit uscat ilrcpc flagm ssbs sb paca pacg dcpodp flagm2 frint i8mm bf16 bti
echo "Qualcomm Snapdragon 8 Gen 2"
;;
*A520r0p1*A520r0p1*A720r0p1*A720r0p1*A720r0p1*A720r0p1*A720r0p1*X4r0p1)
# Qualcomm Snapdragon 8 Gen 3: 2 x Cortex-A520 / r0p1 + 5 x Cortex-A720 / r0p1 + 1 x Cortex-X4 / r0p1 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 sm3 sm4 asimddp sha512 asimdfhm dit uscat ilrcpc flagm ssbs sb paca pacg dcpodp flagm2 frint i8mm bf16 dgh bti ecv afp
echo "Qualcomm Snapdragon 8 Gen 3"
;;
*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A76r4p0*A76r4p0*X1r1p0*X1r1p0)
# Google Tensor G1: 4 x Cortex-A55 / r2p0 + 2 x Cortex-A76 / r4p0 + 2 x Cortex-X1 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop asimddp
echo "Google Tensor G1"
;;
*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A78r1p1*A78r1p1*X1r1p0*X1r1p0)
# Google Tensor G2: 4 x Cortex-A55 / r2p0 + 2 x Cortex-A78 / r1p1 + 2 x Cortex-X1 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop asimddp
echo "Google Tensor G2"
;;
*A510r1p1*A510r1p1*A510r1p1*A510r1p1*A715r1p0*A715r1p0*A715r1p0*A715r1p0)
# Google Tensor G3: 4 x Cortex-A510 / r1p1 + 4 x Cortex-A715 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm jscvt fcma lrcpc dcpop sha3 sm3 sm4 asimddp sha512 sve asimdfhm dit uscat ilrcpc flagm ssbs sb paca pacg dcpodp sve2 sveaes svepmull svebitperm svesha3 svesm4 flagm2 frint svei8mm svebf16 i8mm bti mte mte3
echo "Google Tensor G3"
;;
0?Loongson3A10000?Loongson3A10000?Loongson3A10000?Loongson3A1000)
# Loongson 3A1000: 4 x Loongson-3 V0.5 FPU V0.1 https://github.com/ThomasKaiser/sbc-bench/blob/master/results/cpuinfo/Loongson-3A1000.cpuinfo
echo "Loongson 3A1000"
;;
0?Loongson3A30000?Loongson3A30000?Loongson3A30000?Loongson3A3000)
# Loongson 3A3000: 4 x Loongson-3 V0.9 FPU V0.1 https://github.com/ThomasKaiser/sbc-bench/blob/master/results/cpuinfo/Loongson-3A3000-5.4.211-aosc-lemote.cpuinfo
echo "Loongson 3A3000"
;;
0?Loongson3A5000H0?Loongson3A5000H0?Loongson3A5000H0?Loongson3A5000H)
# Loongson-3A5000-H: 4 x LoongArch / loongarch32, loongarch64 / cpucfg lam ual fpu lsx lasx complex crypto lvz lbt_x86 lbt_arm lbt_mips https://github.com/ThomasKaiser/sbc-bench/blob/master/results/cpuinfo/Loongson-3A5000-H-4.19.0-17-loongson-3.cpuinfo
echo "Loongson-3A5000-H"
;;
0?Loongson3A5000HV0?Loongson3A5000HV0?Loongson3A5000HV0?Loongson3A5000HV)
# Loongson-3A5000-HV: 4 x LoongArch / loongarch32, loongarch64 / cpucfg lam ual fpu lsx lasx complex crypto lvz lbt_x86 lbt_arm lbt_mips https://github.com/ThomasKaiser/sbc-bench/blob/master/results/cpuinfo/Loongson-3A5000-HV-4.19.0-loongson-3.cpuinfo
echo "Loongson-3A5000-HV"
;;
0?Loongson3A5000M0?Loongson3A5000M0?Loongson3A5000M0?Loongson3A5000M)
# Loongson-3A5000M: 4 x LoongArch / loongarch32, loongarch64 / cpucfg lam ual fpu lsx lasx complex crypto lvz lbt_x86 lbt_arm lbt_mips https://github.com/ThomasKaiser/sbc-bench/blob/master/results/cpuinfo/Loongson-3A5000M-4.19.0.cpuinfo
echo "Loongson-3A5000M"
;;
*Loongson3A6000*Loongson3A6000*Loongson3A6000*Loongson3A6000)
# Loongson-3A6000: 4 x LoongArch / loongarch32, loongarch64 / cpucfg lam ual fpu lsx lasx crc32 complex crypto lvz lbt_x86 lbt_arm lbt_mips https://github.com/ThomasKaiser/sbc-bench/blob/master/results/cpuinfo/Loongson-3A6000-4.19.0-loongson-3.cpuinfo
# With SMT support: with SCHED_SMT enabled CPU appears as 4c/8t, without as 8c/8t? https://lkml.org/lkml/2023/6/14/397
echo "Loongson-3A6000"
;;
*Loongson3?6000*Loongson3?6000*Loongson3?6000*Loongson3?6000)
# Loongson-3A6000 variants with more cores
[ "X${ModelName}" != "X" ] && echo "${ModelName}"
;;
*A55*A55*A55*A55*A76r4p1|*A76r4p1*A55*A55*A55*A55r?p?)
# Amlogic S928X, 4 x Cortex-A55 + 1 x Cortex-A76 / r4p1: https://browser.geekbench.com/v5/cpu/compare/19788026?baseline=20656779
echo "Amlogic S928X"
;;
*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A78r1p0*A78r1p0)
# MediaTek MT8188JV/A: 6 x Cortex-A55 / r2p0 + 2 x Cortex-A78 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop asimddp
echo "MediaTek MT8188JV/A"
;;
*A55r2p0*A55r2p0*A55r2p0*A55r2p0*A78r1p0*A78r1p0*A78r1p0*A78r1p0)
# MediaTek Genio 1200 (MT8395): 4 x Cortex-A55 / r2p0 + 4 x Cortex-A78 / r1p0 / fp asimd evtstrm aes pmull sha1 sha2 crc32 atomics fphp asimdhp cpuid asimdrdm lrcpc dcpop asimddp
echo "MediaTek Genio 1200 (MT8395)"
;;
0?IngenicV4.15FPUV0.00?IngenicV4.15FPUV0.0)
# Ingenic JZ4780: dual-core MIPS32
echo "Ingenic JZ4780"
;;
*Azure100r?p?*)
# Microsoft Azure Cobalt 100, based on Neoverse-N2 r0p0
# https://lore.kernel.org/linux-arm-kernel/b99a7196-011e-4f08-83ec-e63a690ab919@linux.microsoft.com/T/
echo "Azure Cobalt 100"
;;
esac
} # GuessSoCbySignature
GetCPUSignature() {
case ${CPUArchitecture} in
arm*|aarch*|riscv*|mips*|loongarch*)
sed -e '1,/^ CPU/ d' -e 's/Cortex-//' -e 's/HiSilicon-//' -e 's/Phytium //' <<<"${CPUTopology}" | while read ; do
echo -e "$(awk -F" " '{print $2$3$6$8$9$10}' <<<"${REPLY}" | sed -e 's/-//g' -e 's/\///g')\c"
done
;;
esac
} # GetCPUSignature
IdentifyAXGGXLG12A() {
# Amlogic AXG, GXL and G12A SoC families share same cluster details (quad A53 / r0p4).
# They differ in speed though: GXL usually fakes 1.5 GHz while being limited to 1.4 GHz
# (LibreComputer's La Frite and Jethub devices being the exceptions reporting the true
# 1416 MHz) but G12A (S905X2, S905D2, S905Y2) clocks higher and doesn't fake clockspeeds
MaxSpeed="$(sed -e '1,/^ CPU/ d' <<<"${CPUTopology}" | tail -n1 | awk -F" " '{print $5}')"
case ${MaxSpeed} in
15??|14??)
# GXL or AXG: 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid (running 32-bit: fp asimd evtstrm aes pmull sha1 sha2 crc32 wp half thumb fastmult vfp edsp neon vfpv3 tlsi vfpv4 idiva idivt)
echo "Amlogic A113X/A113D, S805X, S805Y, S905X/S905D/S905L/S905L2/S905M2"
;;
12??)
# S905W being limited to 1.2 GHz
echo "Amlogic S905W"
;;
*)
# G12A/TL1: 4 x Cortex-A53 / r0p4 / fp asimd evtstrm aes pmull sha1 sha2 crc32 cpuid
echo "Amlogic S905X2/S905Y2/S905D2/S905L3A/T962X2"
;;
esac
} # IdentifyAXGGXLG12A
IdentifyAllwinnerARMv8() {
# Allwinner sun50iw* except sun50iw11 are all quad A53 / r0p4. Today sun50iw1p
# (A64/H64), sun50iw2 (H5), sun50iw6 (H6) and sun50iw9 (H616/H313) seem to exist
# in the wild.
#
# Allwinner SoCs feature a Security/Chip ID (SID): https://linux-sunxi.org/SID_Register_Guide
#
# Allwinner H5, 5.10.60-sunxi64
# /sys/devices/platform/soc/1c14000.eeprom/sunxi-sid0/nvmem
# 00000000 01 00 80 82 04 47 00 64 04 c3 36 50 0e 09 37 64
# 00000010 42 02 00 00 00 00 00 00 00 00 00 00 00 00 00 00
# 00000020 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
# 00000030 00 00 00 00 cd 07 ed 07 00 00 00 00 00 00 00 00
# 00000040 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
#
# Allwinner H6, 5.4.20-sunxi64
# /sys/devices/platform/soc/3006000.efuse/sunxi-sid0/nvmem
# 00000000 01 00 c0 82 08 47 00 0c 3e 04 41 01 4b 22 74 54
# 00000010 00 00 00 00 f7 10 21 09 29 09 01 00 40 00 00 00
# 00000020 00 00 00 00 79 00 00 00 47 8f 00 00 01 00 e0 02
# 00000030 2e 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
# 00000040 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00 00
#
# H616/H313 is usually combined with AXP806 PMIC, lacks USB3 but should be
# equipped with 2 GMAC according to http://ix.io/2cGy and http://ix.io/2MBN
# According to https://irclog.whitequark.org/linux-sunxi/2021-01-19#28890526;
# AXP1530 and AXP305 (compatible to AXP805) are also mentioned but won't show
# up in /proc/interrupts
#
# Since no access to A64 and H616/H313 right now, try to identify the different
# quad core SoCs based on presence of PMIC, USB3 and maybe clockspeeds
# check device-tree compatible strings
grep -q h616 <<<"${DTCompatible,,}" && echo "Allwinner H616/H313"
grep -q t507 <<<"${DTCompatible,,}" && echo "Allwinner T507"
grep -q h313 <<<"${DTCompatible,,}" && echo "Allwinner H313"
grep -q pine-h64 <<<"${DTCompatible,,}" && echo "Allwinner H6"
grep -q h64 <<<"${DTCompatible,,}" && echo "Allwinner H64"
grep -q h6 <<<"${DTCompatible,,}" && echo "Allwinner H6"
grep -q h5 <<<"${DTCompatible,,}" && echo "Allwinner H5"
grep -q a64 <<<"${DTCompatible,,}" && echo "Allwinner A64"
# Check for USB3 first, mainline kernel:
grep -q "xhci" /proc/interrupts && echo "Allwinner H6"
# No idea about H6 BSP kernel but we simply play safe
lsusb -t | grep -q xhci && echo "Allwinner H6"
# Now check for PMIC. Both H616 and H6 use AXP806 but the latter has USB3.
# Checking with mainline seemed to work for axp806: http://ix.io/2GH3
# but with later kernels it's gone: http://ix.io/3woR. Reasons why:
# https://github.com/jernejsk/linux-1/commit/50b9a4612a8cc6e2131b83f498d7c5d4cb6ea74f
grep -q axp806 /proc/interrupts && echo "Allwinner H616/H313"
# Maybe there's something in kernel ring buffer identifying the SoC
grep -E -q "sun50i-h616|sun50iw9" <<<"${DMESG}" && echo "Allwinner H616/H313"
grep -q sun50i-a64 <<<"${DMESG}" && echo "Allwinner A64"
grep -q sun50i-h5 <<<"${DMESG}" && echo "Allwinner H5"
grep -q sun50i-h6- <<<"${DMESG}" && echo "Allwinner H6"
# A64 is accompanied by AXP803 PMIC:
grep -q axp803 /proc/interrupts && echo "Allwinner A64"
# With A64 BSP kernel we can try to rely on a sysfs node
[ -d /sys/devices/platform/axp81x_board/axp81x-supplyer.47 ] \
&& echo "Allwinner A64"
# H5 is usually combined with an I2C attached Silergy SY8106A voltage regulator
lsmod | grep -i -q sy8106a && echo "Allwinner H5"
# Maybe there's something in kernel ring buffer identifying the SoC
grep -E -q "sun50i-h5|sun50iw2" <<<"${DMESG}" && echo "Allwinner H5"
# if we end up here then print some generic BS
echo "Allwinner unidentified SoC"
} # IdentifyAllwinnerARMv8
ShowZswapStats() {
# https://www.kernel.org/doc/Documentation/vm/zswap.txt
[ -r /sys/module/zswap/parameters/enabled ] && ZswapEnabled="$(sed 's/Y/1/' /dev/null
read compressor /dev/null
read zpool /dev/null
if [ -n "${max_pool_percent}" ] && [ -n "${compressor}" ] && [ -n "${zpool}" ]; then
echo -e "Zswap active using ${compressor}/${zpool}, max pool occupation: ${max_pool_percent}%\c"
elif [ -n "${compressor}" ] && [ -n "${zpool}" ]; then
echo -e "Zswap active using ${compressor}/${zpool}\c"
else
echo -e "Zswap active\c"
fi
if [ -d /sys/kernel/debug/zswap ]; then
echo ", details:"
read stored_pages /dev/null | sed "s,\x1B\[[0-9;]*[a-zA-Z],,g")"
case ${CPUFetchOutput} in
*SoC:*)
FirstLine="$(grep "SoC:" <<<"${CPUFetchOutput}")"
LogoArea=${FirstLine%%SoC:*}
;;
*Name:*)
FirstLine="$(grep "Name:" <<<"${CPUFetchOutput}")"
LogoArea=${FirstLine%%Name:*}
;;
*"Part Number:"*)
FirstLine="$(grep "Part Number:" <<<"${CPUFetchOutput}")"
LogoArea=${FirstLine%%Part*}
;;
esac
cut -c$((${#LogoArea} + 1))- <<<"${CPUFetchOutput}" | sed -e '/^$/d' | grep -v "Peak Performance:"
else
echo "Unknown"
fi
} # GrabCPUFetchInfo
ProvideReviewInfo() {
# This function tries to collect as much performance relevant information
# possible based on sbc-bench being now 5 years used on lots of devices.
#
# Once it's ready collecting data (which includes some measurements of e.g.
# CPU clockspeeds and memory bandwidth/latency) it switches all performance
# relevant governors to performance, then remains in the background to
# report throttling while the reviewer conducts tests with other benchmarks
#
# TODO:
#
# * warning if uneven count of DIMMs
# * ThreadX version, UEFI/BIOS version
# * coherent_pool size
echo "Starting to examine hardware/software for review purposes..."
# ensure other sbc-bench instances are terminated
for PID in $( (pgrep -f "${PathToMe}" ; jobs -p) | sort | uniq -u) ; do
if [ ${PID} -ne $$ ]; then
kill ${PID} 2>/dev/null
fi
done
# prerequisits: create temp dir, ensure CPU utilization and/or average load is low
# enough to continue, collect information, set governors to performance
[ -z "${DMESG}" ] && DMESG="$(dmesg | grep -E "Linux|pvtm|rockchip-dmc|rockchip-cpuinfo|Amlogic Meson|sun50i|pcie|mmc|leakage")"
CreateTempDir
[ -f /sys/devices/system/cpu/cpufreq/policy0/scaling_governor ] && \
read OriginalCPUFreqGovernor /dev/null
[ "${OriginalCPUFreqGovernor}" = "ondemand" ] && \
io_is_busy=( $(find /sys/devices/system/cpu/cpufreq -name io_is_busy | while read ; do cat "${REPLY}"; done) )
GovernorState="$(HandleGovernors)"
[ "X${RunBenchmarks}" = "XTRUE" ] && CheckLoadAndDmesg || echo ""
# Allow for a NOTUNING=yes operation mode to compare default with performance settings
if [ "X${NOTUNING}" != "Xyes" ] && [ -f /sys/devices/system/cpu/cpufreq/policy0/scaling_governor ]; then
HandleGovernors powersave
if [ -f /sys/kernel/debug/clk/clk_summary ]; then
snore 1
cat /sys/kernel/debug/clk/clk_summary >"${TempDir}/clk_summary.powersave"
fi
HandleGovernors performance
OriginalCPUInfo="$(PrintCPUInfo)"
TunedGovernorState="$(HandleGovernors | awk -F" " '{print $1" "$2" "$3" "$4" "$5}')"
BasicSetup performance >/dev/null 2>&1
[ -f /sys/kernel/debug/clk/clk_summary ] && cat /sys/kernel/debug/clk/clk_summary >"${TempDir}/clk_summary.tuned"
else
BasicSetup nochange >/dev/null 2>&1
OriginalCPUInfo="$(PrintCPUInfo)"
fi
GetTempSensor
OperatingSystem="$(GetOSRelease)"
InstallPrerequisits
[ "X${RunBenchmarks}" = "XTRUE" ] && InstallCpuminer
InitialMonitoring
CheckNetio
unset SPACING
if [ "X${RunBenchmarks}" = "XTRUE" ]; then
CheckClockspeedsAndSensors
# repeat SoC guessing after measuring CPU clockspeeds (some guesses depend on clockspeed)
[ "${CPUArchitecture}" = "aarch64" ] && GuessedSoC="$(GuessARMSoC)"
ClockspeedsBefore="$(cat "${TempDir}/cpufreq" | sed -e 's/^/ /')"
[ "X${NOTUNING}" != "Xyes" ] && [ -f /sys/devices/system/cpu/cpufreq/policy0/scaling_governor ] && CheckTimeInState before
RunTinyMemBench
RunRamlat
RunOpenSSLBenchmark 256
Run7ZipBenchmark
if [ -x "${InstallLocation}/Stockfish-sf_15/src/stockfish" ]; then
ExecuteStockfish=yes
RunStockfishBenchmark
elif [ -x "${InstallLocation}"/cpuminer-multi/cpuminer ]; then
ExecuteCpuminer=yes
RunCpuminerBenchmark
else
RunStressNG
fi
[ -z ${InitialTemp} ] || TempNow=$(ReadSoCTemp)
[ "X${NOTUNING}" != "Xyes" ] && [ -f /sys/devices/system/cpu/cpufreq/policy0/scaling_governor ] && CheckTimeInState after
CheckClockspeedsAndSensors
ClockspeedsAfter="$(cat "${TempDir}/cpufreq" | sed -e 's/^/ /')"
SummarizeResults
else
echo -e "\x08\x08 Done.\nNow quickly examining OS, settings and hardware...\c"
echo -e "\n##########################################################################\n" >>"${ResultLog}"
echo -e "$(iostat | grep -E -v "^loop|boot0|boot1|mtdblock")\n\n$(free -h)\n\n$(swapon -s)\n" | sed '/^$/N;/^\n$/D' >>"${ResultLog}"
ShowZswapStats 2>/dev/null >>"${ResultLog}"
echo >>"${ResultLog}"
cat "${TempDir}/cpu-topology.log" >>"${ResultLog}"
echo "${LSCPU}" >>"${ResultLog}"
LogEnvironment >>"${ResultLog}"
fi
if [ -f "${TempDir}/clk_summary.tuned" ]; then
# add clk_summary diff to results output if something has changed
ClockDiff="$(diff "${TempDir}"/clk_summary.*)"
if [ $? -ne 0 ]; then
echo -e "\n##########################################################################\n\n/sys/kernel/debug/clk/clk_summary diff between all governors set to powersave and performance:\n" >>"${ResultLog}"
head -n3 "${TempDir}/clk_summary.tuned" | sed -e 's/^/ /' >>"${ResultLog}"
echo -e "${ClockDiff}" >>"${ResultLog}"
fi
fi
# Prepare device listing in Markdown friendly format
echo -e "# ${DeviceName:-$HostName}" >"${TempDir}/review"
echo -e "\nTested with sbc-bench v${Version} on $(date -R).\n\n### General information:\n" >>"${TempDir}/review"
# include cpufetch output if available
CPUFetchInfo="$(GrabCPUFetchInfo)"
if [[ ${CPUFetchInfo} != *Unknown* ]]; then
echo "${CPUFetchInfo}" | sed -e 's/^/ /' >>"${TempDir}/review"
echo " " >>"${TempDir}/review"
fi
# add info about CPU cores, if more than 2 CPU clusters add info about them and core types
if [ ${#ClusterConfig[@]} -gt 1 ] && [ ${#ClusterConfigByCoreType[@]} -eq 1 ]; then
echo -e "The CPU features ${#ClusterConfig[@]} clusters of same core type:\n" >>"${TempDir}/review"
elif [ ${#ClusterConfig[@]} -gt 1 ] && [ ${#ClusterConfig[@]} -eq ${#ClusterConfigByCoreType[@]} ]; then
echo -e "The CPU features ${#ClusterConfig[@]} clusters of different core types:\n" >>"${TempDir}/review"
elif [ ${#ClusterConfig[@]} -gt 1 ]; then
echo -e "The CPU features ${#ClusterConfig[@]} clusters consisting of ${#ClusterConfigByCoreType[@]} different core types:\n" >>"${TempDir}/review"
fi
sed -e 's/^/ /' <<<"${OriginalCPUInfo}" >>"${TempDir}/review"
AvailableMem=$(free | awk -F" " '/^Mem: / {print $2}' | tail -n1)
echo -e "\n$(( ${AvailableMem} / 1024 )) KB available RAM" >>"${TempDir}/review"
# report probably performance relevant governors (not on x86_64) and policies
PolicyStateNow="$(HandlePolicies)"
if [ -f /sys/devices/system/cpu/cpufreq/policy0/scaling_governor ] && [ "${CPUArchitecture}" != "x86_64" ]; then
echo -e "\n### Governors/policies (performance vs. idle consumption):\n\nOriginal governor settings:\n" >>"${TempDir}/review"
sed -e 's/^/ /' <<<"${GovernorState}" >>"${TempDir}/review"
if [ "X${TunedGovernorState}" != "X" ]; then
# when running with NOTUNING=yes no before/after check will be performed
echo -e "\nTuned governor settings:\n" >>"${TempDir}/review"
sed -e 's/^/ /' <<<"${TunedGovernorState}" >>"${TempDir}/review"
fi
else
[ "X${PolicyStateNow}" != "X" ] && echo -e "\n### Policies (performance vs. idle consumption):" >>"${TempDir}/review"
fi
if [ "X${PolicyStateNow}" != "X" ]; then
echo -e "\nStatus of performance related policies found below /sys:\n" >>"${TempDir}/review"
sed -e 's/^/ /' <<<"${PolicyStateNow}" >>"${TempDir}/review"
fi
if [ "X${RunBenchmarks}" = "XTRUE" ]; then
# measured clockspeeds
if [ -z ${InitialTemp} ]; then
# no thermal readouts possible
echo -e "\n### Clockspeeds (idle vs. heated up):\n\nBefore:\n\n${ClockspeedsBefore}\n\nAfter:\n\n${ClockspeedsAfter}" >>"${TempDir}/review"
else
echo -e "\n### Clockspeeds (idle vs. heated up):\n\nBefore at ${InitialTemp}°C:\n\n${ClockspeedsBefore}\n\nAfter at ${TempNow}°C${ThrottlingWarning}:\n\n${ClockspeedsAfter}" >>"${TempDir}/review"
fi
# Performance baseline:
MemoryScores="$(awk -F" " '/^ libc / {print $2$4" "$5" "$6}' <"${ResultLog}" | grep -E 'memcpy|memchr|memset' | awk -F'MB/s' '{print $1"MB/s"}')"
CountOfMemoryScores=$(wc -l <<<"${MemoryScores}")
if [ $(( ${#ClusterConfig[@]} * 3 )) -eq ${CountOfMemoryScores} ]; then
# only report if all measurements finished successfully, add warning for
# NOTUNING operation mode.
[ "X${NOTUNING}" = "Xyes" ] && PerfWarning=" (NOTUNING=yes was set)"
echo -e "\n### Performance baseline${PerfWarning}\n" >>"${TempDir}/review"
if [ ${#ClusterConfig[@]} -eq 1 ]; then
# only 1 CPU cluster, no differentiation between clusters/core types
echo -e " * $(grep "^memcpy:" <<<"${MemoryScores}"), $(grep "^memchr:" <<<"${MemoryScores}"), $(grep "^memset:" <<<"${MemoryScores}")" >>"${TempDir}/review"
grep "^ 16384k:" "${ResultLog}" | sed 's/ 16384k:/ * 16M latency:/' >>"${TempDir}/review"
grep "^ 131072k:" "${ResultLog}" | sed 's/ 131072k:/ * 128M latency:/' >>"${TempDir}/review"
else
# list individual CPUs and suffix memory scores with core types if possible
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
CPUInfo="$(GetCPUInfo ${ClusterConfig[$i]})"
echo -e " * cpu${ClusterConfig[$i]}${CPUInfo}: $(grep "^memcpy:" <<<"${MemoryScores}" | sed -n $(( ${i} + 1 ))p), $(grep "^memchr:" <<<"${MemoryScores}" | sed -n $(( ${i} + 1 ))p), $(grep "^memset:" <<<"${MemoryScores}" | sed -n $(( ${i} + 1 ))p)" >>"${TempDir}/review"
done
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
CPUInfo="$(GetCPUInfo ${ClusterConfig[$i]})"
echo -e " * cpu${ClusterConfig[$i]}${CPUInfo} 16M latency: $(grep "^ 16384k:" "${ResultLog}" | sed -n $(( ${i} + 1 ))p | sed 's/ 16384k: //')" >>"${TempDir}/review"
done
for i in $(seq 0 $(( ${#ClusterConfig[@]} -1 )) ) ; do
CPUInfo="$(GetCPUInfo ${ClusterConfig[$i]})"
echo -e " * cpu${ClusterConfig[$i]}${CPUInfo} 128M latency: $(grep "^ 131072k:" "${ResultLog}" | sed -n $(( ${i} + 1 ))p | sed 's/ 131072k: //')" >>"${TempDir}/review"
done
fi
ZIPResults="$(awk -F" " '/^Total:/ {print $2}' "${ResultLog}" | sed -e 's/,/, /g' -e 's/, $//')"
[ "X${ZIPResults}" != "X" ] && echo -e " * 7-zip MIPS (${RunHowManyTimes} consecutive runs): ${ZIPResults} (${ZipScore} avg), single-threaded: ${ZipScoreSingleThreaded}" >>"${TempDir}/review"
OpenSSLResults="$(grep '^aes-256-cbc' "${OpenSSLLog}")"
[ "X${OpenSSLResults}" != "X" ] && echo -e "${OpenSSLResults}" | sed -e 's/^/ * `/' -e 's/$/`/' >>"${TempDir}/review"
fi
fi
# PCIe and storage devices, important stuff like downgraded PCIe link width/speed,
# SMART errors and suspectible values, counterfeit SD card and speed negotiation
# issues, (almost) worn out SSDs, unhealthy drive temps (most SSDs start to throttle
# above a certain thermal treshold), negotiated USB and SATA speeds relating to e.g.
# underpowering (https://github.com/raspberrypi/linux/issues/4130#issuecomment-787826273)
# and so on...
PCIeStatus="$(CheckPCIe | sed 's/Vendor\ Device\ 0001/Raspberry Pi Ltd. RP1/')"
StorageStatus="$(CheckStorage update-smart-drivedb | sed 's/000Mbps/Gbps/')"
if [ "X${PCIeStatus}" != "X" ] && [ "X${StorageStatus}" != "X" ]; then
echo -e "\n### PCIe and storage devices:\n\n${PCIeStatus}\n${StorageStatus}" >>"${TempDir}/review"
elif [ "X${StorageStatus}" = "X" ]; then
echo -e "\n### PCIe devices:\n\n${PCIeStatus}" >>"${TempDir}/review"
elif [ "X${PCIeStatus}" = "X" ]; then
echo -e "\n### Storage devices:\n\n${StorageStatus}" >>"${TempDir}/review"
fi
# In preparation of before/after diff remove sane drive temperatures to keep only "unhealthy drive temp"
StorageStatus="$(echo "${StorageStatus}" | awk -F", drive temp: " '{print $1"X"}' | sed -e 's/X$//' -e '/^$/d' | grep -v smartctl)"
# check whether NTFS filesystems are attached (do not need to be mounted yet)
[ -z "${LSBLK}" ] && LSBLK="$(LC_ALL="C" lsblk -l -o SIZE,NAME,FSTYPE,LABEL,MOUNTPOINT 2>&1)"
NTFSdevices="$(awk -F" " '/ ntfs / {print $2}' <<< "${LSBLK}" | tr '\n' ',' | sed 's/,$//')"
if [ "X${NTFSdevices}" != "X" ]; then
echo -e "\n### Challenging filesystems:\n\nThe following partitions are NTFS: ${NTFSdevices} -> https://tinyurl.com/mv7wvzct" >>"${TempDir}/review"
fi
# check swap devices/files/partitions
SwapDevices="$(ListSwapDevices)"
if [ "X${SwapDevices}" != "X" ]; then
echo -e "\n### Swap configuration:\n\n${SwapDevices}" >>"${TempDir}/review"
fi
# software versions
echo -e "\n### Software versions:\n" >>"${TempDir}/review"
case "${OperatingSystem}" in
Armbian*|"Orange Pi"*)
# Armbian went full megalomania in the meantime. They try to trick their users
# into thinking to run an 'Armbian 23.02.0-trunk.0072 Jammy' while in reality it's
# 'Ubuntu 22.04 Jammy' debootstraped with a certain version of Armbian's build
# scripts. The Xunlong copycats do something similarly stupid and report for
# example 'Orange Pi 1.0.6 Jammy' as distro. Let's fix this nonsense.
RealDistro="$(awk -F":\t" '/^Description/ {print $2}' <"${ResultLog}")"
OSCodename="$(awk -F":\t" '/^Codename/ {print $2}' <"${ResultLog}")"
grep -q "${OSCodename}" <<<"${RealDistro}" && echo " * ${RealDistro} ${ARCH}" >>"${TempDir}/review" \
|| echo " * ${RealDistro} (${OSCodename}) ${ARCH}" >>"${TempDir}/review"
;;
*)
echo " * ${OperatingSystem}" >>"${TempDir}/review"
;;
esac
BuildInfo="$(grep "^Build system: " "${ResultLog}" | sed 's/Build system: / * Build scripts: /')"
[ -z "${BuildInfo}" ] || echo "${BuildInfo}" >>"${TempDir}/review"
grep -i "^ Compiler:" "${ResultLog}" | sed -e 's/^/ */' >>"${TempDir}/review"
openssl version | awk -F" " '{print " * "$1" "$2", built on "$3" "$4" "$5" "$6" "$7" "$8" "$9" "$10" "$11" "$12" "$13" "$14" "$15}' >>"${TempDir}/review"
[ -z "${ThreadXVersion}" ] || echo -e " * ThreadX: $(tail -n1 <<<"${ThreadXVersion}" | cut -d' ' -f2) / $(head -n1 <<<"${ThreadXVersion}")" >>"${TempDir}/review"
# Kernel relevant settings / versions
echo -e "\n### Kernel info:\n" >>"${TempDir}/review"
[ -r /proc/cmdline ] && echo -e " * \`/proc/cmdline: $(>"${TempDir}/review"
grep "^Vulnerability" <<<"${LSCPU}" | grep -v 'Not affected' | sed -e 's/^/ * /' >>"${TempDir}/review"
CONFIGHZ="$(awk -F" " '/CONFIG_HZ=/ {print $1}' <"${ResultLog}")"
[ -z "${CONFIGHZ}" ] && echo " * Kernel ${KernelVersion}" >>"${TempDir}/review" || echo " * Kernel ${KernelVersion} / ${CONFIGHZ}" >>"${TempDir}/review"
[ -z "${KernelInfo}" ] || echo -e "\n${KernelInfo}" >>"${TempDir}/review"
# if in NetIO mode then measure idle consumption walking through available governors and PCIe ASPM
if [ "X${OutputCurrents[*]}" != "X" ]; then
CountOfGovernors=$(wc -l <<<"${GovernorState}")
[ "X${RunBenchmarks}" = "XTRUE" ] || echo -e "\x08\x08 Done."
echo -e "Now measuring idle consumption ($(( 3 + ${CountOfGovernors} * 3 )) more minutes)...\c"
NetioConsumptionFile="${TempDir}/netio.current"
echo -n $(( $(awk '{printf ("%0.0f",$1/10); }' <<<"${OutputCurrent[$(( ${NetioSocket} - 1 ))]}" ) * 10 )) >"${NetioConsumptionFile}"
export NetioConsumptionFile
HandleGovernors powersave >/dev/null 2>&1
HandlePolicies powersave >/dev/null 2>&1
/bin/bash "${PathToMe}" -N ${NetioDevice} ${NetioSocket} ${NetioConsumptionFile} "1.8" "55" >/dev/null 2>&1 &
NetioMonitoringPID=$!
sleep 180
read IdleConsumption <${NetioConsumptionFile}
echo -e "\n### Idle consumption (measured with Netio ${NetioModel}, FW v${Firmware}):\n" >>"${TempDir}/review"
echo -e " * everything set to powersave: ${IdleConsumption} mW" >>"${TempDir}/review"
if [ ${CountOfGovernors} -gt 1 ]; then
find /sys -name "*governor" 2>/dev/null | grep -E -v '/sys/module|cpuidle|watchdog' | sort -n | while read ; do
if [ -w "${REPLY}" ]; then
echo performance >"${REPLY}"
sleep 180
read IdleConsumption <${NetioConsumptionFile}
echo -e " * ${REPLY%/*} set to performance: ${IdleConsumption} mW" >>"${TempDir}/review"
else
echo -e " * Not able to set ${REPLY%/*} to performance" >>"${TempDir}/review"
fi
done
fi
if [ -w /sys/module/pcie_aspm/parameters/policy ] && [ -d /sys/bus/pci_express ]; then
echo performance >/sys/module/pcie_aspm/parameters/policy
sleep 180
read IdleConsumption <${NetioConsumptionFile}
echo -e " * /sys/module/pcie_aspm/parameters/policy set to performance: ${IdleConsumption} mW" >>"${TempDir}/review"
fi
kill ${NetioMonitoringPID} 2>/dev/null
echo -e "\x08\x08 Done."
fi
# add review info to full info
echo -e "\n##########################################################################\n" >>"${ResultLog}"
sed "s,\x1B\[[0-9;]*[a-zA-Z],,g" <"${TempDir}/review" >>"${ResultLog}"
[ "X${RunBenchmarks}" = "XTRUE" ] && UploadResults 2>/dev/null || UploadResults >/dev/null 2>&1
case "${UploadURL}" in
http*)
echo -e "\n\n\n\n# ${DeviceName:-$HostName}\n\nTested with sbc-bench v${Version} on $(date -R). Full info: [${UploadURL}](${UploadURL})" | sed 's/http:/https:/'
tail -n +4 "${TempDir}/review"
;;
*)
echo -e "\n\n\n"
cat "${TempDir}/review"
;;
esac
if [ "X${NOTUNING}" != "Xyes" ] && [ "X${RunBenchmarks}" = "XTRUE" ]; then
# throttling check and routine waiting for the board to cool down since otherwise the
# next monitoring step will report throttling even if none happens from now on.
[ "X${ThrottlingWarning}" != "X" ] && snore 5
# temporary switch to performance when in Netio mode since otherwise the prior idle
# measurements will result in the following check never finishing
[ "X${OutputCurrents[*]}" != "X" ] && HandleGovernors performance >/dev/null 2>&1
if [ -r /sys/devices/system/cpu/cpu0/cpufreq/cpuinfo_cur_freq ]; then
CpuFreqToQuery=cpuinfo_cur_freq
elif [ -r /sys/devices/system/cpu/cpu0/cpufreq/scaling_cur_freq ]; then
CpuFreqToQuery=scaling_cur_freq
fi
if [ -r /sys/devices/system/cpu/cpu0/cpufreq/cpuinfo_max_freq ]; then
cpuinfo_max_freq=$(cat /sys/devices/system/cpu/cpu?/cpufreq/cpuinfo_max_freq)
cpuinfo_cur_freq=$(cat /sys/devices/system/cpu/cpu?/cpufreq/${CpuFreqToQuery})
if [ "X${cpuinfo_max_freq}" != "X${cpuinfo_cur_freq}" ]; then
echo -e "\nWaiting for the device to cool down \c"
while [ "X${cpuinfo_max_freq}" != "X${cpuinfo_cur_freq}" ]; do
TempNow=$(ReadSoCTemp)
echo -e "\x08\x08\x08\x08\x08\x08\x08. ${TempNow}°C\c"
snore 2
cpuinfo_max_freq=$(cat /sys/devices/system/cpu/cpu?/cpufreq/cpuinfo_max_freq)
cpuinfo_cur_freq=$(cat /sys/devices/system/cpu/cpu?/cpufreq/${CpuFreqToQuery})
done
# wait 20 more seconds for temperatures to stabilize
for i in {1..10} ; do
TempNow=$(ReadSoCTemp)
echo -e "\x08\x08\x08\x08\x08\x08\x08. ${TempNow}°C\c"
snore 2
done
echo ""
fi
fi
[ "X${OutputCurrents[*]}" != "X" ] && HandlePolicies performance >/dev/null 2>&1
fi
# drop caches
echo 3 >/proc/sys/vm/drop_caches
# device now ready for benchmarking
cat <<- EOF
All known settings adjusted for performance. Device now ready for benchmarking.
Once finished stop with [ctrl]-[c] to get info about throttling, frequency cap
and too high background activity all potentially invalidating benchmark scores.
All changes with storage and PCIe devices as well as suspicious dmesg contents
will be reported too.
EOF
# Now switch to monitoring mode, report consumption if Netio powermeter is available
if [ "X${OutputCurrents[*]}" != "X" ]; then
# We are in Netio monitoring mode as such provide consumption info as well
/bin/bash "${PathToMe}" -N ${NetioDevice} ${NetioSocket} ${NetioConsumptionFile} "4.8" "30" >/dev/null 2>&1 &
NetioMonitoringPID=$!
fi
echo "sbc-bench review mode started" >/dev/kmsg
trap 'FinalReporting ; exit 0' 0 1 2 3 15
unset ThrottlingWarning ThrottlingCheck SwapWarning
rm "${TempDir}"/*time_in_state* "${TempDir}/throttling_info.txt" 2>/dev/null
SwapBefore="$(awk -F" " '{print $4}' "${MonitorLog}" &
MonitoringPID=$!
echo ""
snore 1
tail -f "${MonitorLog}"
} # ProvideReviewInfo
FinalReporting() {
trap 'rm -rf "${TempDir}" ; exit 0' 0
echo -e "\n\nCleaning up...\c"
kill ${NetioMonitoringPID} ${MonitoringPID} 2>/dev/null
SwapNow="$(awk -F" " '{print $4}' "${TempDir}/dmesg"
# check PCIe and storage devices again to spot disconnects or link degradation and
# stuff like this. Strip off sane drive temps so we only compare unhealthy ones
PCIeStatusNow="$(CheckPCIe)"
StorageStatusNow="$(CheckStorage | sed 's/000Mbps/Gbps/' | awk -F", drive temp: " '{print $1"X"}' | sed -e 's/X$//' -e '/^$/d' | grep -v smartctl)"
if [ "X${RunBenchmarks}" = "XTRUE" ]; then
ClockspeedsNow="$(cat "${TempDir}/cpufreq" | sed -e 's/^/ /')"
if [ -z ${InitialTemp} ]; then
# no thermal readouts possible
echo -e "\x08\x08 Done.\n\nClockspeeds now:\n\n${ClockspeedsNow}\n"
else
echo -e "\x08\x08 Done.\n\nClockspeeds now at $(ReadSoCTemp)°C:\n\n${ClockspeedsNow}\n"
fi
fi
# check for throttling
ThrottlingCheck="$(CheckForThrottling | sed -e 's/ Check the log for details.//' -e '/^[[:space:]]*$/d')"
if [ -f "${TempDir}/throttling_info.txt" ]; then
ThrottlingWarning="${LRED}${BOLD} (throttled)${NC}"
ThrottlingDetails=$(<"${TempDir}/throttling_info.txt")
fi
# Print warnings if count or details of attached PCIe or storage devices have changed.
# Possible reasons: cable/connector problems, overheating, other transmission errors and so on...
StorageDiff="$(diff <(echo "${StorageStatus}") <(echo "${StorageStatusNow}") )"
PCIeDiff="$(diff <(echo "${PCIeStatus}") <(echo "${PCIeStatusNow}") )"
if [ "X${StorageDiff}" != "X" ] && [ "X${PCIeDiff}" != "X" ]; then
echo -e "\n${LRED}${BOLD}ATTENTION:${NC} status of PCIe and storage devices has changed:${NC}\n"
echo -e "${PCIeDiff}\n${StorageDiff}\n"
elif [ "X${StorageDiff}" != "X" ]; then
echo -e "\n${LRED}${BOLD}ATTENTION:${NC} status of storage devices has changed:${NC}\n"
echo -e "${StorageDiff}\n"
elif [ "X${PCIeDiff}" != "X" ]; then
echo -e "\n${LRED}${BOLD}ATTENTION:${NC} status of PCIe devices has changed:${NC}\n"
echo -e "${PCIeDiff}\n"
fi
# print warnings if kernel ring buffer contains messages since start of monitoring:
if [ ${DMESGLines:-0} -gt 20 ]; then
echo -e "${LRED}${BOLD}ATTENTION:${NC} ${LRED}lots of noise in kernel ring buffer since start of monitoring:${NC}\n"
echo -e "${DMESGSinceStart}\n"
elif [ ${DMESGLines:-0} -gt 1 ]; then
echo -e "${LRED}${BOLD}ATTENTION:${NC} some noise in kernel ring buffer since start of monitoring:\n"
echo -e "${DMESGSinceStart}\n"
fi
# output execution validation, fake ClusterConfig to get definitive throttling warning
ClusterConfig=(0)
IsValid="$(ValidateResults review | sed -e 's/^/ * /')"
[ "X${IsValid}" != "X" ] && echo -e "${BOLD}Results validation:${NC}\n\n${IsValid}\n"
echo -e "${ThrottlingDetails}"
CheckAgeOfScript
# revert at least cpufreq and PCIe ASPM settings
BasicSetup ${OriginalCPUFreqGovernor} >/dev/null 2>&1
[ -w /sys/module/pcie_aspm/parameters/policy ] && echo "${OriginalASPMSetting}" >/sys/module/pcie_aspm/parameters/policy >/dev/null 2>&1
} # FinalReporting
CheckKernelVersion() {
# checks device's kernel version and compares with https://endoflife.date/linux
# Major challenge: identify those smelly vendor BSP kernels that show a version
# number similar to an official LTS kernel but are in reality forward ported since
# ages and can't be trusted AT ALL.
# check whether endoflife data has been downloaded, if not return
[ -r "${TempDir}/linuxkernel.md" ] || return
# check whether kernel version contains "-rc" and if true simply return to not
# bother devs developing/testing release candidate kernels
case $1 in
*-rc*)
return
;;
esac
# check kernel version number string for distro kernel schemes and return if true
# Debian/Ubuntu kernel versions look like 6.2.0-32-generic, 5.10.0-23-amd64 or
# 5.15.0-1035-raspi for example
grep -v -E 'amlogic|librem5|rockchip' <<<"$1" | grep -q -E '[3-9]\.[0-9]{1,3}\.[0-9]{1,2}-[0-9]{1,4}-raspi|[3-9]\.[0-9]{1,3}\.[0-9]{1,2}-[0-9]{1,3}-[a-z]{1,3}' && return
# RPi Bookworm images implement a new naming scheme not directly exposing real kernel
# version, e.g. an RPi 4 runs 6.1.0-rpi4-rpi-v8, RPi 5 runs 6.1.0-rpi4-rpi-2712 or
# 6.1.0-rpi6-rpi-v8
grep -q -E 'rpi.-rpi' <<<"$1" && return
# Fedora/Rockylinux kernels also follow an own release scheme and not mainline's
grep -q -E '\.fc3|\.fc4|\.el9' <<<"$1" && return
# skip this whole check on x86 and in aarch64 VMs where usually distro kernels are
# used that follow an own release schedule
case "${CPUArchitecture}" in
x86_64)
return
;;
aarch64)
case ${VirtWhat} in
kvm|oracle|parallels|vmware|wsl|xen|qemu)
return
;;
esac
;;
esac
# Avoid annoying users of latest bleeding edge kernels by ignoring anything with
# higher version number than 1st entry on endoflife.date
LastReleaseCycle="$(grep -A1 "^releases:$" "${TempDir}/linuxkernel.md" | awk -F'"' '/releaseCycle:/ {print $2}')"
CheckRelease=$(echo -e "${LastReleaseCycle}\n${ShortKernelVersion}" | sort -n | head -n1)
[ "${CheckRelease}" = "${LastReleaseCycle}" ] && return
KernelVersionDigitsOnly=$(cut -f1 -d- <<<"$1")
# parse LTS kernel info, in Nov 2023 this looks like this for example with 5.10:
# releaseCycle: "5.10"
# lts: true
# releaseDate: 2020-12-13
# eol: 2026-12-31 # Projected EOL from https://www.kernel.org/category/releases.html
# latest: "5.10.201"
# latestReleaseDate: 2023-11-20
KernelStatus="$(grep -A5 "releaseCycle: \"${ShortKernelVersion}\"" "${TempDir}/linuxkernel.md" | tail -n5)"
LatestKernelVersion="$(awk -F'"' '/latest:/ {print $2}' <<<"${KernelStatus}")"
LatestKernelDate="$(awk -F": " '/latestReleaseDate:/ {print $2}' <<<"${KernelStatus}")"
IsLTS="$(awk -F": " '/lts:/ {print $2}' <<<"${KernelStatus}")"
[ "X${IsLTS}" = "Xtrue" ] && KernelSuffix=" LTS"
EOLDate="$(awk -F": " '/eol:/ {print $2}' <<<"${KernelStatus}" | awk -F" # " '{print $1}')"
Today="$(date "+%Y-%m-%d")"
# check EOL date vs. today
CheckEOL=$(echo -e "${Today}\n${EOLDate}" | sort -n | head -n1)
if [ -z "${KernelStatus}" ]; then
# some old kernel version neither being an LTS kernel nor any actively developed variant
echo -e "${LRED}${BOLD}Kernel version ${KernelVersionDigitsOnly} is not covered by any active release cycle any more.${NC}\n"
echo -e "${LRED}${BOLD}See https://endoflife.date/linux for details. It is highly likely countless${NC}"
echo -e "${LRED}${BOLD}exploitable vulnerabilities do exist for this kernel as well as tons of bugs.${NC}"
elif [ "X${KernelVersionDigitsOnly}" != "X${LatestKernelVersion}" ]; then
# kernel version at least matches a supported kernel but is not most recent one
BSPDisclaimer="\n${BOLD}But this version string doesn't matter since this is not an official${KernelSuffix} Linux${NC}\n${BOLD}from kernel.org.${NC} \c"
UsedKernelRevision=$(cut -f3 -d. <<<"${KernelVersionDigitsOnly}" | tr -c -d '[:digit:]')
LatestKernelRevision=$(cut -f3 -d. <<<"${LatestKernelVersion}" | tr -c -d '[:digit:]')
RevisionDifference=$(( ${LatestKernelRevision:-0} - ${UsedKernelRevision:-0} ))
if [ "X${CheckEOL}" = "X${EOLDate}" ] && [ "X${EOLDate}" != "Xfalse" ]; then
# EOL date is in the past
echo -e "${LRED}${BOLD}${ShortKernelVersion}${KernelSuffix} has reached end-of-life on ${EOLDate} with version ${LatestKernelVersion}.${NC}"
echo -e "${LRED}${BOLD}This ${KernelVersionDigitsOnly} and all other ${ShortKernelVersion}${KernelSuffix} revisions are unsupported since then.${NC}"
elif [ ${RevisionDifference} -gt 5 ]; then
# report version mismatch only if kernel revision difference is greater than 5
echo -e "${BOLD}Kernel ${KernelVersionDigitsOnly} is not latest ${LatestKernelVersion}${KernelSuffix} that was released on ${LatestKernelDate}.${NC}\n"
else
BSPDisclaimer="\n${BOLD}The ${KernelVersionDigitsOnly} kernel version string doesn't matter since this is not an official${NC}\n${BOLD}${KernelSuffix} Linux from kernel.org.${NC} \c"
fi
if [ "X${IsLTS}" = "Xtrue" ]; then
# warn about vulnerabilities only on LTS kernels since users of actively
# developed kernel branches should know what they're doing.
if [ ${RevisionDifference} -ge 50 ]; then
echo -e "${LRED}${BOLD}See https://endoflife.date/linux for details. It is somewhat likely that${NC}"
echo -e "${LRED}${BOLD}a lot of exploitable vulnerabilities exist for this kernel as well as many${NC}"
echo -e "${LRED}${BOLD}unfixed bugs.${NC}"
elif [ ${RevisionDifference} -ge 20 ]; then
echo -e "${LRED}${BOLD}See https://endoflife.date/linux for details. It is somewhat likely that some${NC}"
echo -e "${LRED}${BOLD}exploitable vulnerabilities exist for this kernel as well as many unfixed bugs.${NC}"
elif [ ${RevisionDifference} -gt 5 ]; then
echo -e "${LRED}${BOLD}See https://endoflife.date/linux for details. Perhaps some kernel bugs have${NC}"
echo -e "${LRED}${BOLD}been fixed in the meantime and maybe vulnerabilities as well.${NC}"
else
# Avoid annoying warnings if kernel revision difference is lower than 5.
# Happened eg. with 6.1.9 shortly after 6.1 became most recent LTS kernel as
# 'Kernel 6.1.9 is not latest 6.1.10 LTS that was released on 2023-02-06'
:
fi
fi
else
# kernel version seems to match most recent upstream kernel.
BSPDisclaimer="\n${BOLD}But this version string doesn't matter since this is not an official${KernelSuffix} Linux${NC}\n${BOLD}from kernel.org.${NC} \c"
if [ "X${CheckEOL}" = "X${EOLDate}" ] && [ "X${EOLDate}" != "Xfalse" ]; then
# EOL date is in the past
echo -e "${LRED}${BOLD}${ShortKernelVersion}${KernelSuffix} has reached end-of-life on ${EOLDate}. ${KernelVersionDigitsOnly} is unsupported since then.${NC}"
else
echo -e "${LGREEN}According to https://endoflife.date/linux this kernel version is up to date.${NC}"
if [ "X${IsLTS}" = "Xtrue" ]; then
echo "The predicted end-of-life date for the ${ShortKernelVersion} LTS kernel is ${EOLDate}"
fi
fi
fi
case ${KernelVersionDigitsOnly} in
# EOL notifications and BSP kernel warnings
"3.10.33"|"4.16.1"|"4.18.7"|"5.0.2"|"5.1.0"|"5.3.0"|"5.3.11"|"5.5.0"|"5.6.0"|"5.7."*|"5.8."*|"5.9."*|"5.10.0"|"5.14.0")
# Popular kernels for all sorts of Amlogic SoCs from https://github.com/150balbes
# Unfortunately lots of devices still run with these ancient kernels lacking any fixes
:
;;
3.4.*)
# some SDKs/BSPs based on this version: Allwinner A10, A20, A83T, H2+/H3
case ${GuessedSoC} in
*Allwinner*)
PrintBSPWarning Allwinner
;;
esac
echo -e "\n${LRED}${BOLD}The 3.4 series has reached end-of-life on 2016-10-26 with version 3.4.113.${NC}"
;;
3.10.*)
# some SDKs/BSPs based on this version: Allwinner A64, H5, R40/V40, Amlogic S805 (Meson8b), Exynos 5422
case ${GuessedSoC} in
*Allwinner*)
PrintBSPWarning Allwinner
;;
*Amlogic*)
PrintBSPWarning Amlogic
;;
*5422*)
PrintBSPWarning Samsung
;;
esac
echo -e "\n${LRED}${BOLD}The 3.10 series has reached end-of-life on 2017-11-05 with version 3.10.108.${NC}"
;;
3.14.*)
case ${GuessedSoC} in
*Amlogic*)
PrintBSPWarning Amlogic
;;
esac
echo -e "\n${LRED}${BOLD}The 3.14 series has reached end-of-life on 2016-09-11 with version 3.14.79.${NC}"
;;
3.16.*)
# some SDKs/BSPs based on this version: Amlogic S905 (ODROID C2)
case ${GuessedSoC} in
*Amlogic*)
PrintBSPWarning Amlogic
;;
esac
echo -e "\n${LRED}${BOLD}The 3.16 series has reached end-of-life on 2020-06-11 with version 3.16.85.${NC}"
;;
3.18.*)
# some SDKs/BSPs based on this version: Ingenic JZ4780, Qualcomm APQ8053
case ${GuessedSoC} in
*Ingenic*)
PrintBSPWarning Ingenic
;;
*Qualcomm*)
PrintBSPWarning Qualcomm
;;
esac
echo -e "\n${LRED}${BOLD}The 3.18 series has reached end-of-life on 2017-02-08 with version 3.18.48.${NC}"
;;
4.4.*)
# some SDKs/BSPs based on this version: Rockchip RK32xx/RK33xx, Nexell S5P4418/S5P6818
case ${GuessedSoC} in
*RK3*|*Rockchip*)
PrintBSPWarning Rockchip
;;
*Nexell*)
PrintBSPWarning Nexell
;;
esac
echo -e "\n${LRED}${BOLD}The 4.4 series has reached end-of-life on 2022-02-03 with version 4.4.302.${NC}"
;;
4.9.*)
# some SDKs/BSPs based on this version: Allwinner A50/MR133/R311/H6/H616/H313/H618, Amlogic S905X3 (SM1) / S922X/A311D (G12B), Exynos 5422, Nvidia AGX Xavier / Nvidia Jetson Nano / Nvidia Tegra X1 / Nvidia Tegra Xavier, RealTek RTD129x/RTD139x
case ${GuessedSoC} in
*5422*)
PrintBSPWarning Samsung
;;
*Allwinner*)
PrintBSPWarning Allwinner
;;
*Amlogic*)
PrintBSPWarning Amlogic
;;
"RealTek RTD"*)
PrintBSPWarning RealTek
;;
Nvidia*)
PrintBSPWarning Nvidia
;;
esac
# prepare 4.9 not being listed any more on https://endoflife.date/linux
grep -q "releaseCycle: \"4.9\"" "${TempDir}/linuxkernel.md" || \
echo -e "\n${LRED}${BOLD}The 4.9 series has reached end-of-life on 2023-01-07 with version 4.9.337.${NC}"
;;
4.14.*)
# some SDKs/BSPs based on this version: Exynos 5422/9820, NXP i.MX8x, Nexell S5P4418/S5P6818
case ${GuessedSoC} in
*Nexell*)
PrintBSPWarning Nexell
;;
*5422*|"Samsung Exynos 9820")
PrintBSPWarning Samsung
;;
"NXP i.MX8"*)
PrintBSPWarning NXP
;;
esac
;;
4.19.*)
# some SDKs/BSPs based on this version: Rockchip RK356x/RK3399
case ${GuessedSoC} in
*RK3566*|*RK3568*)
PrintBSPWarning Rockchip
;;
Phytium*)
PrintBSPWarning Phytium
;;
esac
;;
"5.4.125"|"5.4.180")
# New Amlogic SDK initially released with 5.4.125 and after some version string cosmetics
# stuck at 5.4.180
case ${GuessedSoC} in
Allwinner*)
# 5.4.125 is also used in Allwinner Android builds
PrintBSPWarning Allwinner
;;
*Amlogic*)
PrintBSPWarning Amlogic
;;
esac
;;
5.4.*)
# some SDKs/BSPs based on this version: Allwinner A133/A64/D1/R528/T113/H5/H6/H616/H618, Amlogic A311D2 (T7), S805X2/S905Y4/S905W2 (S4), S928X (S5), Exynos 5422
case ${GuessedSoC} in
Allwinner*)
# highly unlikely that there's any Allwinner A64/H5/H6 out in the wild still running a _mainline_ 5.4 version
PrintBSPWarning Allwinner
;;
*A311D2*|*S805X2*|*S905Y4*|*S905W2*|*S928X*)
PrintBSPWarning Amlogic
;;
*5422*)
PrintBSPWarning Samsung
;;
Phytium*)
PrintBSPWarning Phytium
;;
*Unisoc*)
PrintBSPWarning Unisoc
;;
*Synaptics*)
PrintBSPWarning Synaptics
;;
esac
;;
5.10.4)
case ${GuessedSoC} in
*K230*)
# Kendryte K230
PrintBSPWarning Kendryte
;;
esac
;;
5.10.66|5.10.72|5.10.110)
case ${GuessedSoC} in
*Rockchip*)
# RK 5.10 BSP in different flavours
PrintBSPWarning RockchipGKI
;;
esac
;;
5.10.*)
# some SDKs/BSPs based on this version: Nvidia Jetson AGX Orin, Rockchip RK3399/RK3528/RK356x/RK3588/
case ${GuessedSoC} in
"Nvidia Jetson AGX Orin")
PrintBSPWarning Nvidia
;;
Phytium*)
PrintBSPWarning Phytium
;;
*RK3528*|*RK3588*)
PrintBSPWarning RockchipGKI
;;
*RK3399*)
# With RK3399 we need to differentiate between mainline and BSP kernel, for
# example CONFIG_HZ (not reliable once someone gets the idea to switch BSP
# settings from 300 to 250) or microvolts entries below /sys/devices/platform/
dmesg | grep -q pvtm-volt-sel && PrintBSPWarning RockchipGKI
;;
*RK3566*|*RK3568*)
# With RK3566/RK3568 same problem: how to differentiate between latest
# RK BSP based on 5.10.66/5.10.110 and former mainlining efforts? Check
# dmesg output for PVTM for example
dmesg | grep -q 'cpu cpu0: pvtm' && PrintBSPWarning RockchipGKI
;;
"Qualcomm Snapdragon 8 Gen1"|"Qualcomm Snapdragon 8+ Gen1")
PrintBSPWarning Qualcomm
;;
*S928X*)
PrintBSPWarning Amlogic
;;
*T-Head*)
PrintBSPWarning T-Head
;;
esac
;;
"5.15.78"|"5.15.119")
# New Amlogic SDK released with 5.15.78, supports at least T7, S4, SM1 and G12B.
# Kernel version 5.15.119 some images were using is the result of version string
# cosmetics over at ophub/flippy/unifreq
# Allwinner's Android 13 BSP also uses both 5.15.78 and 5.15.119
case ${GuessedSoC} in
Allwinner*)
# though there's a small chance users of flippy/unifreq kernels on older Allwinner SoCs are affected print BSP warning
PrintBSPWarning Allwinner
;;
*Amlogic*)
PrintBSPWarning Amlogic
;;
esac
;;
"5.15.41"|"5.15.94"|"5.15.123"|"5.15.151")
# At least used with Android 13 and OpenWRT builds for A133/T527: https://browser.geekbench.com/v5/cpu/21947495.gb5 / https://browser.geekbench.com/v6/cpu/2610471.gb6 /
# https://bbs.aw-ol.com/topic/5060/syterkit-启动-t527-失败 / https://github.com/chainsx/linux-t527/blob/main/Makefile
case ${GuessedSoC} in
Allwinner*)
# though there's a small chance users of flippy/unifreq kernels on older Allwinner SoCs are affected
PrintBSPWarning Allwinner
;;
esac
;;
5.15.*)
case ${GuessedSoC} in
StarFive*)
PrintBSPWarning StarFive
;;
*MT7986A*|*"Genio 1200"*)
PrintBSPWarning MediaTek
;;
*S928X*)
# Android 14 BSP relies on 5.15
PrintBSPWarning Amlogic
;;
esac
;;
*)
case ${GuessedSoC} in
*S928X*)
PrintBSPWarning Amlogic
;;
esac
;;
esac
} # CheckKernelVersion
PrintBSPWarning() {
echo -e "${BSPDisclaimer}"
case $1 in
Allwinner)
echo -e "${BOLD}This device runs an $1 vendor/BSP kernel.${NC}\n"
echo -e "${BOLD}This kernel has been forward ported since ages based on unknown sources. While${NC}"
echo -e "${BOLD}the version string suggests being a ${ShortKernelVersion} LTS release the code base differs way${NC}"
echo -e "${BOLD}too much. Better expect tons of unfixed bugs and vulnerabilities hiding in this${NC}"
echo -e "${BOLD}vendor kernel.${NC}"
;;
Amlogic)
echo -e "${BOLD}This device runs an $1 vendor/BSP kernel.${NC}\n"
echo -e "${BOLD}This kernel has been forward ported since ages based on unknown sources. While${NC}"
echo -e "${BOLD}the version string suggests being a ${ShortKernelVersion} LTS release the code base differs way${NC}"
echo -e "${BOLD}too much. Better expect tons of unfixed bugs and vulnerabilities hiding in this${NC}"
echo -e "${BOLD}vendor kernel. See https://tinyurl.com/y8k3af73 and https://tinyurl.com/ywtfec7n${NC}"
echo -e "${BOLD}for details.${NC}"
;;
Ingenic|Kendryte|MediaTek|Nexell|Nvidia|NXP|Phytium|Qualcomm|RealTek|Samsung|StarFive|Synaptics|T-Head|Unisoc)
echo -e "${BOLD}This device runs a $1 vendor/BSP kernel.${NC}"
;;
Rockchip)
echo -e "${BOLD}This device runs a forward ported $1 vendor/BSP kernel.${NC}"
;;
RockchipGKI)
echo -e "${BOLD}This device runs a Rockchip vendor/BSP kernel.${NC}\n"
echo -e "${BOLD}This kernel is based on a mixture of Android GKI and other sources. Also some${NC}"
echo -e "${BOLD}community attempts to do version string cosmetics might have happened, see${NC}"
echo -e "${BOLD}https://tinyurl.com/2p8fuubd for example. To examine how far away this ${KernelVersionDigitsOnly}${NC}"
echo -e "${BOLD}is from an official LTS of same version someone would have to reapply Rockchip's${NC}"
echo -e "${BOLD}thousands of patches to a clean ${KernelVersionDigitsOnly} LTS.${NC}"
;;
*)
echo -e "${BOLD}This device runs an unknown vendor/BSP/Android kernel.${NC}"
;;
esac
} # PrintBSPWarning
PrintKernelInfo() {
# Kernel info: version number and vendor/BSP check
CreateTempDir
trap 'rm -rf "${TempDir}" ; exit 0' 0
curl -s -q --connect-timeout 10 https://raw.githubusercontent.com/endoflife-date/endoflife.date/master/products/linuxkernel.md \
>"${TempDir}/linuxkernel.md"
BasicSetup nochange >/dev/null 2>&1
KernelVersion="$(uname -r)"
ShortKernelVersion="$(awk -F"." '{print $1"."$2}' <<<"${KernelVersion}")"
[ -z "${DTCompatible}" ] && [ -r /proc/device-tree/compatible ] && DTCompatible="$(tr "\000" "\n" /dev/null)"
[ -z "${LSCPU}" ] && LSCPU="$(lscpu)"
[ -z "${CPUArchitecture}" ] && CPUArchitecture="$(awk -F" " '/^Architecture/ {print $2}' <<<"${LSCPU}")"
[ -z "${VoltageSensor}" ] && VoltageSensor="$(GetVoltageSensor)"
[ -z "${CPUTopology}" ] && CPUTopology="$(PrintCPUTopology)"
[ -z "${CPUSignature}" ] && CPUSignature="$(GetCPUSignature)"
[ -z "${X86CPUName}" ] && X86CPUName="$(sed 's/ \{1,\}/ /g' <<<"${LSCPU}" | awk -F": " '/^Model name/ {print $2}' | sed -e 's/1.th Gen //' -e 's/.th Gen //' -e 's/Core(TM) //' -e 's/ Processor//' -e 's/Intel(R) Xeon(R) CPU //' -e 's/Intel(R) //' -e 's/(R)//' -e 's/CPU //' -e 's/ 0 @/ @/' -e 's/AMD //' -e 's/Authentic //' -e 's/ with .*//')"
[ "${CPUArchitecture}" = "x86_64" ] || GuessedSoC="$(GuessARMSoC)"
KernelInfo="$(CheckKernelVersion "${KernelVersion}")"
if [ -z "${KernelInfo}" ]; then
if [ "${CPUArchitecture}" = "x86_64" ]; then
echo -e "This tool does not yet implement distro kernel checks"
else
uname -a
fi
else
echo -e "$(uname -a)\n\n${KernelInfo}"
fi
echo ""
} # PrintKernelInfo
GetASPMSettings() {
case "${1}" in
*"ASPM L1 Enabled"*)
ASPMSettings="$(awk -F':\t' '/LnkCtl:/ {print $2}' <<<"${PCIeDetails}")"
case "${1}" in
*L1SubCap*)
ASPMSettings="${ASPMSettings}$(grep -A1 L1SubCap <<<"${PCIeDetails}" | grep -v "L1SubCtl1" | sed -e 's/L1SubCap://' -e 's/\t//g' | tr '\n' ' ' | sed 's/ \{1,\}/ /g')"
ASPMSettings="${ASPMSettings}$(grep -A1 L1SubCtl1 <<<"${PCIeDetails}" | grep -v "L1SubCtl2" | sed -e 's/L1SubCtl1://' -e 's/\t//g' | tr '\n' ' ' | sed 's/ \{1,\}/ /g')"
ASPMSettings="${ASPMSettings}$(grep L1SubCtl2 <<<"${PCIeDetails}" | sed -e 's/L1SubCtl2://' -e 's/\t//g' | tr '\n' ' ' | sed 's/ \{1,\}/ /g')"
;;
esac
;;
*)
ASPMSettings="ASPM Disabled"
;;
esac
echo "${ASPMSettings}"
} # GetASPMSettings
CheckPCIe() {
# Examine devices on the PCI buses. Report link width/speed and whether those are
# downgraded or not. With NVMe devices try to query SMART data to report drive health,
# with other PCIe devices report driver (for example to spot the 'famous' RealTek NIC
# performance issues that go away once the appropriate driver is loaded)
#
# TODO: print RTL8111 revision based on lspci output since everything prior to G sucks:
# http://tinyurl.com/3jcashvt
#
# rev 01 -> RTL8111C
# rev 03 -> RTL8111D
# rev 06 -> RTL8111E
# rev 07 -> RTL8111F
# rev 0a -> ?
# rev 0c -> RTL8111G
# rev 15 -> RTL8111H
#
# If $1 is "nvme" then try to update smartmontools device database if needed and report
# also NVMe devices found on the PCIe buses
# use colours and bold when outputting to a terminal
[ -z "${BOLD}" ] && CheckTerminal
[ -b /dev/nvme0 ] && [ "$1" = "nvme" ] && { update-smart-drivedb >/dev/null 2>&1 ; [ -z "${TempDir}" ] && CreateTempDir ; }
# grab info about block devices
[ -z "${LSBLK}" ] && LSBLK="$(LC_ALL="C" lsblk -l -o SIZE,NAME,FSTYPE,LABEL,MOUNTPOINT 2>&1)"
lspci -Q -mm 2>/dev/null | grep controller | while read ; do
unset DeviceWarning DevizeSize AdditionalInfo AdditionalSMARTInfo RawDiskTemp DriveTemp PercentageUsed
BusAddress="$(awk -F" " '{print $1}' <<<"${REPLY}")"
ControllerType="$(awk -F'"' '{print $2}' <<<"${REPLY}")"
case "${ControllerType}" in
"Encryption"*|"VGA compatible"*|"Serial bus"*|"Communication"*|"Signal processing"*|"Memory"*)
# ignore since internal mainboard components
:
;;
*)
# check device
DeviceName="$(sed 's/Advanced Micro Devices,/AMD/' <<<"${REPLY}" | awk -F'"' '{print $4}' | cut -f1 -d' ') $(awk -F'"' '{print $6}' <<<"${REPLY}" | sed -e 's/ SSD//' -e 's/ Controller//')"
PCIeDetails="$(lspci -vv -s "${BusAddress}" 2>/dev/null)"
LnkSta="$(awk -F"\t" '/LnkSta:/ {print $4}' <<<"${PCIeDetails}" | awk -F", " '{print $1", "$2}' | head -n1)"
if [ "X${LnkSta}" != "X" ]; then
# only report devices for which a link state can be determined
if [ "X${ControllerType}" = "XNon-Volatile memory controller" ]; then
# only report NVMe devices when $1 is nvme
ASPMSettings="$(GetASPMSettings "${PCIeDetails}")"
if [ "$1" = "nvme" ]; then
# omit driver information since it's nvme anyway
unset AdditionalInfo
# try to get nvme device node to query drive model by SMART
PathGuess="$(ls /dev/disk/by-path/*${BusAddress}-nvme-1)"
if [ -h "${PathGuess}" ]; then
# try to query via SMART
NVMeDevice="$(readlink "${PathGuess}")"
CheckSMARTData "/dev/${NVMeDevice##*/}" nvme
DevizeSize="$(GetDiskSize "/dev/${NVMeDevice##*/}" "${DeviceName}")"
if [ "X${DeviceWarning}" = "XTRUE" ]; then
echo -e "smartctl -x /dev/${NVMeDevice##*/} ; \c" >>"${TempDir}/check-smart"
echo -e " * ${LRED}${DevizeSize}${DeviceName}: ${LnkSta}${AdditionalSMARTInfo}${AdditionalInfo}${DriveTemp}, ${ASPMSettings}${NC}"
else
echo -e " * ${DevizeSize}${DeviceName}: ${LnkSta}${AdditionalSMARTInfo}${AdditionalInfo}${DriveTemp}, ${ASPMSettings}"
fi
fi
fi
else
AdditionalInfo=", driver in use: $(awk -F": " '/Kernel driver in use:/ {print $2}' <<<"${PCIeDetails}" | head -n1)"
echo -e " * ${DeviceName}: ${LnkSta}${AdditionalInfo}, ${ASPMSettings}"
fi
fi
;;
esac
done
} # CheckPCIe
CheckStorage() {
# examine storage devices of these patterns: /dev/sd?, /dev/mmcblk? and /dev/mtd?
# With the more sophisticated ones (USB and SATA) try to report as much connection details
# as possible (e.g. USB/SATA speed, whether speed downgrades have happened, usb-storage
# vs. uas and so on)
#
# TODO:
# * maybe overtake CheckSMARTModes code from armbianmonitor to query picky/old USB
# bridges in all possible ways.
# use colours and bold when outputting to a terminal
[ -z "${BOLD}" ] && CheckTerminal
[ -z "${TempDir}" ] && CreateTempDir
# try to update SMART drive database if SMART capable devices exist and $1 is set to
# update-smart-drivedb
[ -b /dev/nvme0 ] || [ -b /dev/sda ] && [ "$1" = "update-smart-drivedb" ] && update-smart-drivedb >/dev/null 2>&1
# try to restrict SMART queries to 15 sec duration due to buggy USB-to-SATA bridges
SmartCtl="$(command -v smartctl 2>/dev/null)"
command -v timeout >/dev/null 2>&1 && SmartCtl="timeout 15 ${SmartCtl}"
# grab info about block devices
udevadm settle
[ -z "${LSBLK}" ] && LSBLK="$(LC_ALL="C" lsblk -l -o SIZE,NAME,FSTYPE,LABEL,MOUNTPOINT 2>&1)"
for StorageDevice in $(ls /dev/sd? /dev/nvme? /dev/vd? 2>/dev/null | sort) ; do
unset DeviceName DeviceInfo DeviceWarning DevizeSize AdditionalInfo AdditionalSMARTInfo ProductName VendorName SpeedInfo SupportedSpeeds RawDiskTemp DriveTemp LnkSta PercentageUsed ASPMSettings
UdevInfo="$(udevadm info -a -n ${StorageDevice} 2>/dev/null)"
Driver="$(awk -F'"' '/DRIVERS==/ {print $2}' <<<"${UdevInfo}" | grep -E 'uas|usb-storage|ahci|nvme|virtio-')"
case "${Driver}" in
ahci|ahci-*|*-ahci|sata_*|sata-*|*-sata|*pata|pata*)
# (S)ATA attached, we need to also take care about other driver names like
# ahci-mvebu, ahci-sunxi, sata_promise, tegra-ahci, xgene-ahci and so on
CheckSMARTData "${StorageDevice}" ahci
;;
nvme)
# NVMe, we need to determine bus address to check PCIe link width/speed
BusAddress="$(awk -F'"' '/ATTR{address}/ {print $2}' <<<"${UdevInfo}" | head -n1)"
PCIeDetails="$(lspci -vv -s "${BusAddress}" 2>/dev/null)"
LnkSta="$(awk -F"\t" '/LnkSta:/ {print $4}' <<<"${PCIeDetails}" | awk -F", " '{print $1", "$2}' | head -n1)"
ASPMSettings="$(GetASPMSettings "${PCIeDetails}")"
[[ -n "${ASPMSettings}" ]] && ASPMSettings=", ${ASPMSettings}"
CheckSMARTData "${StorageDevice}" "${Driver}"
;;
usb-storage|uas)
# USB attached
CheckSMARTData "${StorageDevice}" "${Driver}"
# try to lookup device ID in usbutils' database
idProduct="$(awk -F'"' '/ATTRS{idProduct}/ {print $2}' <<<"${UdevInfo}" | head -n1)"
idVendor="$(awk -F'"' '/ATTRS{idVendor}/ {print $2}' <<<"${UdevInfo}" | head -n1)"
USBBus="$(awk -F'"' '/ATTRS{busnum}/ {print $2}' <<<"${UdevInfo}" | head -n1)"
USBDevice="$(awk -F'"' '/ATTRS{devnum}/ {print $2}' <<<"${UdevInfo}" | head -n1)"
LsusbInfo="$(lsusb -v -s ${USBBus}:${USBDevice} 2>/dev/null)"
# Check device capabilities and speeds that could be negotiated to spot downgrading
# With SuperSpeed it looks like this:
# Device can operate at Full Speed (12Mbps)
# Device can operate at High Speed (480Mbps)
# Device can operate at SuperSpeed (5Gbps)
# With SuperSpeed Plus like this:
# Speed Attribute ID: 0 10Gb/s Symmetric RX SuperSpeedPlus
# Speed Attribute ID: 0 10Gb/s Symmetric TX SuperSpeedPlus
SupportedSpeeds="$(awk -F"[()]" '/Device can operate at/ {print $2}' <<<"${LsusbInfo}" | tr '\n' ',' | sed -e 's/,/, /g' -e 's/, $//')"
SupportedSuperSpeeds="$(awk -F": " '/Speed Attribute ID/ {print $2}' <<<"${LsusbInfo}" | cut -c3- | sort | uniq | grep -E "^10G|^20G|^40G" | tr '\n' ',' | sed -e 's/,/, /g' -e 's/, $//')"
if [ "X${SupportedSpeeds}" != "X" ] && [ "X${SupportedSuperSpeeds}" != "X" ]; then
SpeedInfo=" (capable of ${SupportedSpeeds}, ${SupportedSuperSpeeds})"
elif [ "X${SupportedSpeeds}" != "X" ]; then
SpeedInfo=" (capable of ${SupportedSpeeds})"
fi
ProductName="$(awk -F"${idProduct} " "/0x${idProduct} / {print \$2}" <<<"${LsusbInfo}")"
VendorName="$(awk -F"${idVendor} " "/0x${idVendor} / {print \$2}" <<<"${LsusbInfo}" | cut -f1 -d',')"
if [ "X${ProductName}" != "X" ] && [ "X${VendorName}" != "X" ]; then
LsusbGuess="${VendorName} ${ProductName}"
else
LsusbGuess="$(lsusb -s ${USBBus}:${USBDevice} 2>/dev/null | awk -F"${idVendor}:${idProduct} " "/${idVendor}:${idProduct} / {print \$2}")"
fi
NegotiatedSpeed="$(awk -F'"' '/ATTRS{speed}/ {print $2}' <<<"${UdevInfo}" | head -n1)"
if [ "X${DeviceName}" = "X${DeviceToCheck}" ]; then
# no SMART support or SMART query failed, we need to find a fallback name
if [ "X${LsusbGuess}" != "X" ]; then
# Seems like a legit string, so use usbutils database but doublecheck
# against our exception list first to avoid lengthy or wrong names
BetterNameAvailable="$(GetUSBSataBridgeName "${idVendor}" "${idProduct}" "${LsusbGuess}")"
if [ "X${BetterNameAvailable}" = "X" ]; then
DeviceName="\"${LsusbGuess}\" as ${StorageDevice}"
else
DeviceName="\"${BetterNameAvailable}\" as ${StorageDevice}"
fi
else
# try to construct device name from ATTRS{vendor}+ATTRS{model} udev info
DeviceVendor="$(awk -F'"' '/ATTRS{vendor}/ {print $2}' <<<"${UdevInfo}" | awk '{$1=$1};1')"
if [ "X${DeviceVendor}" != "X" ]; then
DeviceName="\"${DeviceVendor} $(awk -F'"' '/ATTRS{model}/ {print $2}' <<<"${UdevInfo}" | awk '{$1=$1};1')\" as ${StorageDevice}"
else
DeviceName="[unknown device] as ${StorageDevice}"
fi
fi
DeviceInfo="USB"
else
# SMART data has been found, now try to determine bridge chip in between
# disk and USB host controller
case "${idVendor}:${idProduct}" in
:)
# no IDs found, generic report
DeviceInfo="behind USB"
;;
152d*|174c*|2109*|0bda*|1058:0a10)
# USB-to-SATA bridge vendors: JMicron, ASMedia, VIA Labs, Realtek
BetterNameAvailable="$(GetUSBSataBridgeName "${idVendor}" "${idProduct}" "${LsusbGuess}")"
if [ "X${BetterNameAvailable}" = "X" ]; then
DeviceInfo="behind \"${LsusbGuess}\" (${idVendor}:${idProduct})"
else
DeviceInfo="behind ${BetterNameAvailable} (${idVendor}:${idProduct})"
fi
;;
0bc2*|1058*|04e8*|0781*|0930*|0fce*|054c*|0411*|17ef*|07ab*|0718*|2009*|18a5*)
# vendor IDs of disk manufacturers that use USB SATA bridges with
# branded firmwares like Seagate, WD, Samsung, SanDisk, Toshiba,
# Sony, Buffalo, Lenovo, Freecom, Imation, iStorage, Verbatim
DeviceInfo="in \"${LsusbGuess}\" (${idVendor}:${idProduct})"
;;
*)
DeviceInfo="behind \"${LsusbGuess}\" (${idVendor}:${idProduct})"
;;
esac
fi
AdditionalInfo=", Driver=${Driver}, ${NegotiatedSpeed}Mbps${SpeedInfo}${AdditionalInfo}"
;;
virtio-*)
# virtual disk
DeviceName="Virtual disk"
AdditionalInfo="${StorageDevice}, Driver=${Driver}"
;;
esac
DevizeSize="$(GetDiskSize "${StorageDevice}" "${DeviceName}")"
if [ "X${DeviceWarning}" = "XTRUE" ]; then
echo -e "smartctl -x ${StorageDevice} ; \c" >>"${TempDir}/check-smart"
echo -e " * ${LRED}${DevizeSize}${DeviceName%%*( )}: ${DeviceInfo}${LnkSta}${AdditionalSMARTInfo}${AdditionalInfo}${DriveTemp}${ASPMSettings}${NC}"
else
echo -e " * ${DevizeSize}${DeviceName%%*( )}: ${DeviceInfo}${LnkSta}${AdditionalSMARTInfo}${AdditionalInfo}${DriveTemp}${ASPMSettings}"
fi
[ -n "${LetsBenchmark}" ] && snore 0.1 && echo -e " \c" >&2 && GetBenchmarkPartition "${StorageDevice}" 600000 >&2
done
# MMC devices
for StorageDevice in /dev/mmcblk? ; do
[[ -e "${StorageDevice}" ]] || break
unset DeviceName DeviceInfo DeviceWarning DevizeSize DeviceType DmesgInfo AdditionalInfo CountOfProblems TuningProblems Manufacturer
if [ -x /sys/block/${StorageDevice##*/}/device ]; then
cd /sys/block/${StorageDevice##*/}/device || return 1
# read in variables from sysfs in q&d style and prefix them all with "mmc_".
# We rely here on the kernel version being recent enough to decode CIS and CSD
# correctly. Should be double checked against https://tinyurl.com/29c8393f or
# https://gurumeditation.org/1342/sd-memory-card-register-decoder/
#
# Looks like this for example: https://gist.github.com/ThomasKaiser/97770ef60a94e19df3c270506209e70f
declare mmc_serial mmc_manfid mmc_oemid mmc_date mmc_type mmc_hwrev mmc_fwrev
eval $(grep . * 2>/dev/null | grep -v uevent | sed -e 's/:/=/' -e 's/^/mmc_/' -e 's/\ //g')
# Rely on human readable real storage sizes and not marketing 'sizes':
# e.g. show 29.7GB for a '32GB' card:
mmc_size=$(awk -F" " "/ ${StorageDevice##*/} / {print \$1}" <<<"${LSBLK}")
[ "X${mmc_size}" != "X" ] && FlashSize="${mmc_size}B "
# check serial number since low serial numbers are suspicious, might be overriden
# one step later since some OEM cards (AData, Phison) seem to use low serial numbers.
# https://github.com/ThomasKaiser/sbc-bench/blob/master/results/SD-cards-with-low-serial-numbers.md
case "${mmc_serial}" in
0x0000*)
# probable fake card
Manufacturer="Probable counterfeit "
;;
esac
# Only add manufacturer info if really unique. Partially misleading since counterfeit
# cards were and still are an issue: https://www.bunniestudios.com/blog/?page_id=1022
# Also newer manfids (based on JEDEC vendor IDs) are broken by design: https://archive.ph/x2kpx
case "${mmc_manfid}/${mmc_oemid}" in
0x0000df/0x0118)
# Despite the weird 0x0000df manufacturer ID this seems to be a legit soldered
# 128GB eMMC used in e.g. GoWin R86S and MeLE Quieter3C
:
;;
0x000000*|0x0000ff/0x0000|0x00006f/0x0013|0x000025/0x1708|0x0000df*|0x0000fe/0x3456)
# counterfeit card
Manufacturer="Definite counterfeit "
DeviceWarning=TRUE
;;
0x000001*)
Manufacturer="${Manufacturer}Panasonic "
;;
0x000002/0x544d)
# 0x544d -> "TM"
Manufacturer="${Manufacturer}Toshiba "
;;
0x000003/0x5344|0x000003/0x5744)
# 0x5344 -> "SD", 0x5744 -> "WD" (Western Digital owning the SanDisk brand since 2016)
Manufacturer="${Manufacturer}SanDisk "
;;
0x000008*)
Manufacturer="${Manufacturer}Silicon Power "
;;
0x000012/0x3456)
# 0x3456 -> "4V", used by at least the following brands: EssentielB, Extrememory,
# fake Kingston: https://www.bunniestudios.com/blog/?page_id=1022
# show up with very low serial numbers as "ASTC", "SD" or "F0F0", fake
Manufacturer="Definite counterfeit "
DeviceWarning=TRUE
;;
0x000012/0x5678)
# 0x5678 -> "Vx", show up with very low serial numbers as "ASTC", "MS", fake
Manufacturer="Definite counterfeit "
DeviceWarning=TRUE
;;
0x000012*)
# fake Samsung PRO Endurance: https://tinyurl.com/ytd8hmka
# this manufacturer ID is definitely a counterfeit indicator
Manufacturer="Definite counterfeit "
DeviceWarning=TRUE
;;
0x000018*)
Manufacturer="${Manufacturer}Infineon "
;;
0x000015/0x0100|0x00001b/0x534d|0x0000ce*)
# 0x534d -> "SM"
if [ "X${mmc_name}" = "X00000" ]; then
# erase mmc_name if 00000 since Samsung SD cards all use this non-descriptive
# string that's also used by scammers (Samsung eMMC though uses descriptive names)
Manufacturer="${Manufacturer}Samsung"
mmc_name=""
else
Manufacturer="${Manufacturer}Samsung "
fi
;;
0x00001d/0x4144)
# 0x4144 -> "AD"
Manufacturer="AData "
;;
0x00001d*)
Manufacturer="${Manufacturer}Corsair "
;;
0x000027/0x5048)
# 0x5048 -> "PH", used by at least the following brands: AgfaPhoto, Delkin, Intenso, Integral, Lexar, Patriot, PNY, Polaroid, Sony, Verbatim
Manufacturer="Phison "
;;
0x000028/0x4245)
# 0x4245 -> "BE", used by at least the following brands: Lexar, PNY, ProGrade
Manufacturer="${Manufacturer}Lexar "
;;
0x000041/0x3432|0x000070/0x0100)
# 0x3432 -> "42"
Manufacturer="${Manufacturer}Kingston "
;;
*/0x3432)
# 0x3432 -> "42" but differing manfid from Kingston's
Manufacturer="Definite counterfeit "
DeviceWarning=TRUE
;;
0x000045*)
Manufacturer="${Manufacturer}SanDisk/Toshiba "
;;
0x000073/0x4247)
# 0x4247 -> "BG", used by at least the following brands: Fugi, Hama, V-Gen
:
;;
0x000074/0x4a45)
# 0x4a45 -> "JE"
case ${mmc_date} in
*200*|*2010|*2011|*2012)
# low serial number is fine dating back then
Manufacturer="Transcend "
;;
*)
Manufacturer="${Manufacturer}Transcend "
;;
esac
;;
0x000074/0x4a60)
# 0x4a60 -> "J`", combination used with some cards showing low serial numbers,
# bogus names like 00000/ASTC or name/capacity mismatch: SD16G with 7.44 GiB
Manufacturer="${Manufacturer}Transcend "
;;
0x000082/0x4a54)
# 0x4a54 -> "JT"
Manufacturer="${Manufacturer}Sony "
;;
0x000084/0x5446)
# 0x5446 -> "TF", http://strontium.biz/products/memory-cards/mobile-memory-cards/#seven
:
;;
0x000088/0x0103|0x0000d6/0x0103|0x0000d6/0x2903)
Manufacturer="${Manufacturer}Foresee "
;;
0x00009b/0x0100)
# https://en.wikipedia.org/wiki/Yangtze_Memory_Technologies
Manufacturer="${Manufacturer}YMTC "
;;
0x00009f/0x5449)
# 0x5449 -> "TI", found with maybe counterfeit Kingston SDC10G2 (name:SD16G): https://wiki.kobol.io/helios4/sdcard/#kingston-mobile-card-microsdhc-16gb
# or as "Kingston Canvas Select Plus, SDCS2/32GB" "SD32G", date 10/2020, hw/fw rev: 0x6/0x1
Manufacturer="${Manufacturer}Texas Instruments "
;;
0x0000ad*|0x000090/0x014a)
Manufacturer="${Manufacturer}SK Hynix "
;;
0x0000ea/0x010e)
Manufacturer="${Manufacturer}SiliconGo "
;;
0x0000fe*)
Manufacturer="${Manufacturer}Micron-Numonyx "
;;
esac
# check certain fraud criteria again to switch from 'Probable counterfeit' (low
# serial number) to 'Definite counterfeit'
if [ "${mmc_serial}" = "0x00000000" ] || [ "X${mmc_name}" = "X00000" ] || [ "X${mmc_name}" = "XSMI" ] || [ "X${mmc_name}" = "XASTC" ] || [ "X${mmc_name}" = "XAS" ]; then
Manufacturer="Definite counterfeit "
DeviceWarning=TRUE
fi
# check dmesg output to gather further info like negotiation problems and errors.
MMCNode="$(grep "] ${StorageDevice##*/}: " <<<"${DMESG}" | grep "iB" | awk -F":" "/ ${mmc_name} / {print \$2}" | head -n1)"
if [ "X${MMCNode}" != "X" ]; then
DmesgInfo="$(awk -F' new ' "/]${MMCNode}: new/ {print \$2}" <<<"${DMESG}" | awk -F' at ' '{print $1}' | tail -n1)"
CountOfProblems=$(grep "]${MMCNode}: " <<<"${DMESG}" | grep -c error)
TuningProblems=$(grep -c "]${MMCNode}: tuning execution failed" <<<"${DMESG}")
if [ ${CountOfProblems} -gt 0 ] && [ ${TuningProblems} -gt 0 ]; then
AdditionalInfo=" (speed negotiation problems and errors, check dmesg)"
DeviceWarning=TRUE
elif [ ${CountOfProblems} -gt 0 ] && [ ${TuningProblems} -eq 0 ]; then
AdditionalInfo=" (various errors occured, check dmesg)"
DeviceWarning=TRUE
elif [ ${CountOfProblems} -eq 0 ] && [ ${TuningProblems} -gt 0 ]; then
AdditionalInfo=" (speed negotiation problems, check dmesg)"
DeviceWarning=TRUE
fi
fi
case "${mmc_type}" in
SD)
DeviceType="$(sed -e 's/ultra /U/' -e 's/high speed/HS/' -e 's/SDHC /SD /' <<<"${DmesgInfo:-SDHC card}")"
;;
MMC)
# try to query additional info via mmc-utils (for now only MMC version)
ExtendedInfo="$(mmc extcsd read ${StorageDevice} 2>/dev/null)"
grep -q "Extended CSD rev" <<<"${ExtendedInfo}" && MMCVersion="$(awk -F"[()]" '/Extended CSD rev/ {print $2}' <<<"${ExtendedInfo}")"
DeviceType="$(sed "s/MMC/e${MMCVersion:-MMC}/" <<<"${DmesgInfo:-MMC}")"
;;
esac
if [ "X${DeviceWarning}" = "XTRUE" ]; then
echo -e " * ${LRED}${FlashSize}\"${Manufacturer}${mmc_name}\" ${DeviceType}${AdditionalInfo} as ${StorageDevice}: date ${mmc_date}, manfid/oemid: ${mmc_manfid}/${mmc_oemid}, hw/fw rev: ${mmc_hwrev}/${mmc_fwrev}${NC}"
else
echo -e " * ${FlashSize}\"${Manufacturer}${mmc_name}\" ${DeviceType}${AdditionalInfo} as ${StorageDevice}: date ${mmc_date}, manfid/oemid: ${mmc_manfid}/${mmc_oemid}, hw/fw rev: ${mmc_hwrev}/${mmc_fwrev}"
fi
fi
[ -n "${LetsBenchmark}" ] && snore 0.1 && echo -e " \c" >&2 && GetBenchmarkPartition "${StorageDevice}" 120000 >&2
done
# MTD devices: partitions appear as single mtd devices so different logic is needed
# to deal with devices
MTDDevices="$(CheckMTD)"
echo -n "${MTDDevices}" | cut -f1 -d'|' | sort | uniq | sed '/^$/d' | while read ; do
unset RawSize DeviceName Driver FlashManufacturer FlashPartName
DeviceInfo="$(grep "^${REPLY}" <<<"${MTDDevices}")"
PartitionCount=$(wc -l <<<"${DeviceInfo}")
case ${PartitionCount} in
1)
# device seems not to be partitioned, report raw size
RawSize=$(cut -f6 -d'|' <<<"${DeviceInfo}")
[ "X${RawSize}" != "X" ] && FlashSize="$(( ${RawSize} / 1024 ))MB "
PartitionInfo=""
;;
*)
# partitions, we report the individual partitions (label/size)
PartitionInfo=" (${PartitionCount} partitions: $(awk -F"|" '{print $7": "$6"KB"}' <<<"${DeviceInfo}" | tr '\n' ',' | sed -e 's/,/, /g' -e 's/, $//'))"
FlashSize=""
;;
esac
Driver=$(cut -f2 -d'|' <<<"${DeviceInfo}" | head -n1)
FlashManufacturer=$(cut -f4 -d'|' <<<"${DeviceInfo}" | head -n1)
FlashPartName=$(cut -f5 -d'|' <<<"${DeviceInfo}" | head -n1)
[ "X${FlashManufacturer}" != "X" ] && [ "X${FlashPartName}" != "X" ] && DeviceName="${FlashManufacturer} ${FlashPartName} "
# Maybe TODO: parse lists like https://github.com/Ruimusume/DiM_BACKUP/blob/main/chiplist.xml to show device size
JedecID=$(cut -f3 -d'|' <<<"${DeviceInfo}" | head -n1)
case "${Driver}" in
*spi-nor*)
echo -e " * ${DeviceName}${FlashSize}SPI NOR flash${PartitionInfo}, drivers in use: ${Driver}"
;;
*nand*)
grep -q "spi" <<<"${Driver}" \
&& echo -e " * ${DeviceName}${FlashSize}SPI NAND flash${PartitionInfo}, drivers in use: ${Driver}" \
|| echo -e " * ${DeviceName}${FlashSize}NAND flash${PartitionInfo}, drivers in use: ${Driver}" \
;;
*)
echo -e " * ${DeviceName}${FlashSize}MTD device${PartitionInfo}, drivers in use: ${Driver}"
;;
esac
done
if [ -f "${TempDir}/check-smart" ]; then
echo -e "\n\"$(sed 's/ ; $//' <"${TempDir}/check-smart")\" could be used to get further information about the reported issues."
rm "${TempDir}/check-smart"
fi
} # CheckStorage
GetBenchmarkPartition() {
# function that gets a block device as $1 and minimum free blocks as $2 and returns
# whether benchmarking in a reasonable way is possible or not and if possible prints
# the best suited partition (e.g. on spinning rust due to ZBR outer partitions are
# faster than inner)
echo lalala $2
} # GetBenchmarkPartition
BenchmarkDrives() {
# function that takes a list of suited partitions generated in review mode and
# tests sequential and in case it's worth to check (not on spinning rust) also random
# I/O
# TODO: check SMART attribute 199 before/after to spot cabling problems
:
} # BenchmarkDrives
CheckMTD() {
for StorageDevice in /dev/mtd? ; do
[[ -e "${StorageDevice}" ]] || break
UdevInfo="$(udevadm info -a -n ${StorageDevice} 2>/dev/null)"
DevicePath="$(awk -F"'" '/looking at device/ {print $2}' <<<"${UdevInfo}")"
Driver="$(awk -F'"' '/DRIVERS==/ {print $2}' <<<"${UdevInfo}" | sed '/^$/d' | tr '\n' '/' | sed 's/\/$//')"
JedecID="$(awk -F'"' '/\/jedec_id}==/ {print $2}' <<<"${UdevInfo}" | head -n1)"
FlashManufacturer="$(awk -F'"' '/\/manufacturer}==/ {print $2}' <<<"${UdevInfo}" | head -n1)"
FlashPartName="$(awk -F'"' '/\/partname}==/ {print $2}' <<<"${UdevInfo}" | head -n1)"
RawSize=$(awk -F'"' '/ATTR{size}/ {print $2}' <<<"${UdevInfo}" | head -n1)
[ "X${RawSize}" != "X" ] && FlashSize="$(( ${RawSize} / 1024 ))"
DeviceLabel="$(awk -F'"' '/ATTR{name}/ {print $2}' <<<"${UdevInfo}" | head -n1)"
echo -e "${DevicePath%/*}|${Driver}|${JedecID}|$(tr '[:lower:]' '[:upper:]' <<<"${FlashManufacturer:0:1}")${FlashManufacturer:1}|${FlashPartName^^}|${FlashSize}|${DeviceLabel}"
done
} # CheckMTD
GetUSBSataBridgeName() {
# function wants USB vendor and product ID as $1 and $2 and the name guessed by
# usbutils as $3. Returns nicer and/or more correct name for the USB-to-SATA bridge
case "${1}:${2}" in
1058:0a10)
# JMicron JMS56x USB-to-SATA bridge with integrated port multiplier
# that has been flashed with Western Digital branded firmware
DeviceInfo="JMicron JMS56x dual SATA 6Gb/s bridge"
;;
152d:0561)
# Listed as "JMS551 - Sharkoon SATA QuickPort Duo"
DeviceInfo="JMicron JMS561 dual SATA 6Gb/s bridge"
;;
152d:0576)
# Listed as "JMicron Technology Corp. / JMicron USA Technology Corp. Gen1 SATA 6Gb/s Bridge"
DeviceInfo="JMicron JMS576 SATA 6Gb/s bridge"
;;
152d:0578)
# JMS578 wrongly listed as JMS567 in usbutils database, though there are some JMS567 that
# can be flashed with a firmware that then results in them identifying as product ID 0578
DeviceInfo="JMicron JMS578 SATA 6Gb/s bridge"
;;
152d:0580)
DeviceInfo="JMicron JMS580 SATA bridge (SuperSpeed Plus / 6Gb/s)"
;;
152d:0581)
# SuperSpeed Plus bridge, one of the following:
# JMS581LT NVMe/SATA/SD7.1 bridge (SuperSpeed Plus / Gen3 x2 / 6Gb/s)
# JMS581D NVMe/SATA bridge (SuperSpeed Plus / Gen3 x2 / 6Gb/s)
# JMS581SD SD7.1/SD8.0 bridge (SuperSpeed Plus)
#
# To properly differentiate maybe bcdDevice can be used but at least to get
# negotiated device type ATTRS{model} can be used. Reads for example 'Generic
# SD70' with a ADATA Premier Extreme SD7.0 Express card: https://archive.md/h51hS
unset BridgeModel
BridgeModel="$(awk -F'"' '/ATTRS{model}/ {print $2}' <<<"${UdevInfo}" | head -n1 | tr -s ' ' | sed -e 's/\ $//' -e 's/^ //')"
DeviceInfo="JMicron JMS581 ${BridgeModel} bridge (SuperSpeed Plus)"
;;
152d:0583)
DeviceInfo="JMicron JMS583 NVMe bridge (SuperSpeed Plus / Gen3 x2)"
;;
152d:0586)
DeviceInfo="JMicron JMS586 NVMe bridge (SuperSpeed Plus 20Gbps / Gen3 x2)"
;;
152d:0901)
DeviceInfo="JMicron JMS901 UFS 2.1/UHS-I bridge"
;;
152d*)
# JMicron bridge, let's replace the monstrous vendor string with JMicron
DeviceInfo="$(sed 's|JMicron Technology Corp. / JMicron USA Technology Corp.|JMicron|' <<<"${3}")"
;;
174c:1352|174c:1356)
DeviceInfo="ASMedia ASM1352R SATA bridge (SuperSpeed Plus / 6Gb/s)"
;;
174c:225c)
DeviceInfo="ASMedia ASM225CM SATA 6Gb/s bridge"
;;
174c:2362)
DeviceInfo="ASMedia ASM2362 NVMe bridge (SuperSpeed Plus / Gen3 x2)"
;;
174c:2364)
DeviceInfo="ASMedia ASM2362 NVMe bridge (SuperSpeed Plus 20Gbps / Gen3 x4)"
;;
174c:55aa)
# The product ID has been used by ASMedia for a bunch of different bridges and the usbutils name reads
# 'ASMedia Technology Inc. Name: ASM1051E SATA 6Gb/s bridge, ASM1053E SATA 6Gb/s bridge, ASM1153 SATA 3Gb/s bridge, ASM1153E SATA 6Gb/s bridge'
# ASM1153 is fine in general while the older ASM105x thingies are known to be buggy. Connected via
# USB3 it would be possible to identify the different bridges but if they're behind USB2 then there's
# no chance. So we live with a generic string (that isn't that long/useless as lsusb output).
# ASM1153 is also used in many USB disks (e.g. Seagate) but with different firmware and then appears
# not with 174c vendor ID. Same ID is also used with ASM1156 and ASM235CM so it needs to query product string
unset ProductString
ProductString="$(awk -F'"' '/ATTRS{product}/ {print $2}' <<<"${UdevInfo}" | head -n1 | tr -s ' ' | sed -e 's/\ $//' -e 's/^ //')"
case "${ProductString}" in
ASM235*)
DeviceInfo="ASMedia ${ProductString} SATA bridge (SuperSpeed Plus / 6Gb/s)"
;;
ASM105*|ASM115*)
DeviceInfo="ASMedia ${ProductString} SATA 6Gb/s bridge"
;;
*)
DeviceInfo="ASMedia SATA 6Gb/s bridge"
;;
esac
;;
174c*)
# ASMedia bridges, let's replace the monstrous vendor string with ASMedia
DeviceInfo="$(sed 's|ASMedia Technology Inc.|ASMedia|' <<<"${3}")"
;;
2109:0715)
# VIA VL715/VL716 USB to SATA bridges, appear in usbutils as
# "VIA Labs, Inc. VLI Product String" or "VL817 SATA Adaptor"
# while VL817 is a hub! VL715/VL716 differ by PHY (VL716 USB-C)
# but share same product ID since otherwise identical
DeviceInfo="VIA Labs VL715/VL716 SATA 6Gb/s bridge"
;;
2109:070*)
# SATA 3Gb/s bridges: VL700/VL701
DeviceInfo="VIA Labs VL${idProduct:1} SATA 3Gb/s bridge"
;;
2109:071*)
# any of the other VIA Labs VL71* SATA 6Gb/s bridges (that may follow)
DeviceInfo="VIA Labs VL${idProduct:1} SATA bridge (SuperSpeed Plus / 6Gb/s)"
;;
0bda:9210)
# Listed as 'RTL9210 M.2 NVME Adapter' in usbutils database but the RTL9210B-CG
# variant supports both NVMe and SATA with auto detection
DeviceInfo="Realtek RTL9210 NVMe/SATA bridge (SuperSpeed Plus / Gen3 x2 / 6Gb/s)"
;;
0bda*)
# RealTek bridges, let's replace the vendor string with Realtek
DeviceInfo="$(sed 's|Realtek Semiconductor Corp.|Realtek|' <<<"${3}")"
;;
esac
echo "${DeviceInfo}"
} # GetUSBSataBridgeName
GetDiskSize() {
# $1 device node
# $2 Device name obtained using SMART or usbutils
#
# returns an empty string if device name seems to consist of the capacity already
# (e.g. "Model Number: KXG50ZNV256G NVMe TOSHIBA 256GB") or the capacity reported
# by lsblk if lsblk lists the device
local disksize
grep -q " ${1##*/}" <<<"${LSBLK}" || return
disksize=$(awk -F" " "/ ${1##*/}/ {print \$1}" <<<"${LSBLK}" | head -n1)
# return disk size only if not '0B'
[ "X${disksize}" != "X0B" ] && echo "${disksize}B "
} # GetDiskSize
CheckSMARTData() {
DeviceToCheck="$1"
LinuxDriver="$2"
SMARTInfo="$(${SmartCtl} -i ${DeviceToCheck} 2>/dev/null)"
unset PercentageUsed DeviceWarning
# do nothing if $SMARTInfo either contains 'No Information Found' or no disk name
grep -q "No Information Found" <<<"${SMARTInfo}" && return
grep -E -q "Device Model:|Model Number:" <<<"${SMARTInfo}"
if [ $? -eq 0 ]; then
# use SMART data, we need to differentiate by Linux driver (ahci, nvme, uas, usb-storage)
case "${LinuxDriver}" in
ahci)
# native SATA
Protocol="ATA"
DeviceAddition=""
;;
nvme)
# directly PCIe accessible NVMe
Protocol="NVMe"
DeviceAddition=""
;;
usb-storage|uas)
# USB attached, so we need to see what's behind the bridge chip
grep -E -q "Device Model:" <<<"${SMARTInfo}"
case $? in
0)
# SATA behind an USB-to-SATA bridge
Protocol="ATA"
DeviceAddition=" [SATA]"
;;
*)
# USB-to-NVMe bridge remains then
Protocol="NVMe"
DeviceAddition=" [NVMe]"
;;
esac
;;
esac
case ${Protocol} in
NVMe)
# we can use the standardized NVMe SMART attributes, use old text based
# output since JSON works only since smartmontools 7.x
SMARTData="$(${SmartCtl} -a ${DeviceToCheck} 2>/dev/null)"
DeviceName="\"$(awk -F": " "/^Model Number:/ {print \$2}" <<<"${SMARTData}" | sed 's/^ *//g')\" SSD as ${DeviceToCheck}${DeviceAddition}"
PercentageUsed="$(awk -F": " "/^Percentage Used:/ {print \$2}" <<<"${SMARTData}" | sed -e 's/^ *//g' -e 's/%//')"
if [ ${PercentageUsed:-0} -gt 75 ]; then
AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${PercentageUsed}% worn out${NC}${LRED}"
else
AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${PercentageUsed}% worn out"
fi
MediaErrors=$(awk -F": " "/^Media and Data Integrity Errors:/ {print \$2}" <<<"${SMARTData}" | sed 's/^ *//g')
[ ${MediaErrors:-0} -gt 0 ] && AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${MediaErrors} media errors${NC}${LRED}"
ErrorLogEntries=$(awk -F": " "/^Error Information Log Entries:/ {print \$2}" <<<"${SMARTData}" | sed 's/^ *//g')
if [ ${ErrorLogEntries:-0} -gt 0 ]; then
AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${ErrorLogEntries} error log entries${NC}${LRED}"
grep -q "/dev/nvme" <<<"${DeviceToCheck}" && echo -e "nvme error-log ${DeviceToCheck} ; \c" >>"${TempDir}/check-smart"
fi
RawDiskTemp="$(awk -F": " "/^Temperature:/ {print \$2}" <<<"${SMARTData}" | sed 's/^ *//g' | cut -f1 -d' ')"
TempTreshold=60
if [ "X${RawDiskTemp}" != "X" ]; then
if [ ${RawDiskTemp} -gt ${TempTreshold} ]; then
DeviceWarning=TRUE
DriveTemp=", ${BOLD}unhealthy drive temp: ${RawDiskTemp}°C${NC}"
else
DriveTemp=", drive temp: ${RawDiskTemp}°C"
fi
fi
Health="$(awk -F": " '/overall-health self-assessment test result/ {print $2}' <<<"${SMARTData}")"
if [ "X${Health}" != "XPASSED" ]; then
AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}SMART health: **FAILED**${NC}${LRED}"
DeviceWarning=TRUE
fi
if [ ${PercentageUsed:-0} -gt 75 ] || [ ${MediaErrors:-0} -gt 0 ] || [ ${ErrorLogEntries:-0} -gt 0 ]; then
DeviceWarning=TRUE
fi
;;
ATA)
# it gets complicated since we need to deal with vendor specific attributes
# and need to differentiate between spinning rust and SSDs :(
SMARTData="$(${SmartCtl} -a ${DeviceToCheck})"
# Check for available firmware upgrades
grep -q -A5 "A firmware update for this drive may be available" <<<"${SMARTData}"
if [ $? -eq 0 ]; then
FWUpdateURLs="$(grep -A5 "A firmware update for this drive may be available" <<<"${SMARTData}" | grep http | tr '\n' ' ' | sed 's/\ $//')"
FWVersion="$(awk -F": " '/Firmware Version:/ {print $2}' <<<"${SMARTData}" | sed 's/^ *//g')"
AdditionalSMARTInfo="${AdditionalSMARTInfo}, firmware version ${FWVersion}, updates may be available: ${FWUpdateURLs}"
fi
# Check for CRC errors. Usually caused by bad cables or jack contacts,
# goes along with retransmits and as such harms performance. Beware that
# this attribute records these issues over the drive's lifetime as such
# it's only an issue when the CRC error counter increases while accessing
# the drive
CRCErrors="$(awk -F": " '/^199 / {print $10}' <<<"${SMARTData}")"
[ ${CRCErrors:-0} -gt 0 ] && AdditionalSMARTInfo=", ${BOLD}${CRCErrors} CRC errors${NC}${LRED}"
SATAVersion="$(awk -F": " '/^SATA Version is/ {print $2": "$3}' <<<"${SMARTData}" | sed -e 's/^ *//g' -e 's/: $//')"
if [ "X${SATAVersion}" = "X: " ]; then
DeviceInfo="SATA"
else
DeviceInfo="${SATAVersion}"
[ "X${DeviceAddition}" != "X" ] && DeviceAddition="$(echo "${DeviceAddition}" | sed "s|SATA|${SATAVersion}|")"
fi
# differentiate between HDDs and SSDs
RotationRate="$(awk -F": " '/^Rotation Rate/ {print $2}' <<<"${SMARTData}")"
case "${RotationRate}" in
*"Solid State Device"*)
# SSD
DriveType="SSD"
TempTreshold=60
# Dealing with custom vendor attributes is unreliable by definition,
# so let's try ATA Device Statistics first
SMARTDevstat="$(${SmartCtl} -l devstat ${DeviceToCheck})"
PercentageUsed="$(awk -F" " '/Percentage Used Endurance Indicator/ {print $4}' <<<"${SMARTDevstat}")"
if [ "X${PercentageUsed}" != "X" ]; then
# use 'Percentage Used Endurance Indicator'
if [ ${PercentageUsed:-0} -gt 75 ]; then
AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${PercentageUsed}% worn out${NC}${LRED}"
else
AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${PercentageUsed}% worn out"
fi
else
# not compliant with ATA Device Statistics so try to deal with the vendor
# attributes if in good mood sometimes in the future, for now only caring
# about 169, 177 and 202
# Silicon Motion based SSDs / CT500BX100SSD1: 169, raw value decreasing from 100 to 0
# 169 Remaining_Lifetime_Perc 0x0000 100 100 000 Old_age Offline - 78
[ -z "${SMARTValue}" ] && SMARTValue="$(awk -F" " '/^169 / {print $10}' <<<"${SMARTData}" | sed 's/^0*//')"
# Samsung SSDs that don't support ATA Device Statistics, normalized value decreasing from 100 to 0
# 177 Wear_Leveling_Count 0x0013 095 095 000 Pre-fail Always - 57
[ -z "${SMARTValue}" ] && SMARTValue="$(awk -F" " '/^177 / {print $4}' <<<"${SMARTData}" | sed 's/^0*//')"
# Crucial SSDs not relying on Silicon Motion controllers, normalized value decreasing from 100 to 0
# 202 Percent_Lifetime_Remain 0x0030 092 092 001 Old_age Offline - 8
[ -z "${SMARTValue}" ] && SMARTValue="$(awk -F" " '/^202 / {print $4}' <<<"${SMARTData}" | sed 's/^0*//')"
# WD/SanDisk use 230
# 230 Media_Wearout_Indicator 0x0032 017 017 --- Old_age Always - 0x11570e001157
# depends on drive's firmware version how values have to be interpreted,
# as such unreliable by definition:
# https://listi.jpberlin.de/pipermail/smartmontools-support/2021-February/000580.html
if [ ${SMARTValue:-101} -lt 101 ]; then
PercentageUsed=$(( 100 - ${SMARTValue} ))
if [ ${PercentageUsed:-0} -gt 75 ]; then
AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${PercentageUsed}% worn out${NC}${LRED}"
else
AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${PercentageUsed}% worn out"
fi
fi
fi
;;
*)
# HDD, check for the most common fail indicators
DriveType="HDD"
TempTreshold=45
# 5 Reallocated_Sector_Ct 0x0033 252 252 010 Pre-fail Always - 0
Reallocated_Sector_Ct="$(awk -F": " '/^ 5 / {print $10}' <<<"${SMARTData}")"
[ ${Reallocated_Sector_Ct:-0} -gt 0 ] && AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${Reallocated_Sector_Ct} Reallocated Sector Count${NC}${LRED}"
# 195 Hardware_ECC_Recovered 0x003a 100 100 000 Old_age Always - 0
Hardware_ECC_Recovered="$(awk -F": " '/^195 / {print $10}' <<<"${SMARTData}")"
[ ${Hardware_ECC_Recovered:-0} -gt 0 ] && AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${Hardware_ECC_Recovered} Hardware ECC Recovered${NC}${LRED}"
# 196 Reallocated_Event_Count 0x0032 252 252 000 Old_age Always - 0
Reallocated_Event_Count="$(awk -F": " '/^196 / {print $10}' <<<"${SMARTData}")"
[ ${Reallocated_Event_Count:-0} -gt 0 ] && AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${Reallocated_Event_Count} Reallocated Event Count${NC}${LRED}"
# 197 Current_Pending_Sector 0x0032 252 252 000 Old_age Always - 0
Current_Pending_Sector="$(awk -F": " '/^197 / {print $10}' <<<"${SMARTData}")"
[ ${Current_Pending_Sector:-0} -gt 0 ] && AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${Current_Pending_Sector} Current Pending Sector${NC}${LRED}"
# 198 Offline_Uncorrectable 0x0030 252 252 000 Old_age Offline - 0
Offline_Uncorrectable="$(awk -F": " '/^197 / {print $10}' <<<"${SMARTData}")"
[ ${Offline_Uncorrectable:-0} -gt 0 ] && AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${Offline_Uncorrectable} Offline Uncorrectable${NC}${LRED}"
;;
esac
RawDiskTemp="$(awk -F" " '/Temperature/ {print $10" "$2}' <<<"${SMARTData}" | head -n1 | sed 's/_/ /g' | sed -e 's/ Airflow//' -e 's/ Temperature//' | tr -d -c '[:digit:]')"
if [ "X${RawDiskTemp}" != "X" ]; then
if [ ${RawDiskTemp} -gt ${TempTreshold} ]; then
DeviceWarning=TRUE
DriveTemp=", ${BOLD}unhealthy drive temp: ${RawDiskTemp}°C${NC}"
else
DriveTemp=", drive temp: ${RawDiskTemp}°C"
fi
fi
# 184 End-to-End_Error 0x0032 100 100 --- Old_age Always - 0
EndtoEnd_Error="$(awk -F": " '/^184 / {print $10}' <<<"${SMARTData}")"
[ ${EndtoEnd_Error:-0} -gt 0 ] && AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}${EndtoEnd_Error} End-to-End errors${NC}${LRED}"
# Check whether drive model name already contains vendor and if not try to add it
DeviceVendor="$(awk -F": " "/^Model Family:/ {print \$2}" <<<"${SMARTData}" | grep -E -v "Silicon Motion|Phison|SandForce|SK hynix|Marvell|JMicron|Apacer SSDs|Indilinx" | sed 's/^ *//g' | cut -f1 -d' ')"
DeviceModel="$(awk -F": " "/^Device Model:/ {print \$2}" <<<"${SMARTData}" | sed 's/^ *//g')"
grep -q "${DeviceVendor}" <<<"${DeviceModel}"
case $? in
0)
# drive vendor already part of device model string
DeviceName="\"${DeviceModel}\" ${DriveType} as ${DeviceToCheck}${DeviceAddition}"
;;
*)
# we add vendor to device name
DeviceName="\"${DeviceVendor} ${DeviceModel}\" ${DriveType} as ${DeviceToCheck}${DeviceAddition}"
;;
esac
Health="$(awk -F": " '/overall-health self-assessment test result/ {print $2}' <<<"${SMARTData}")"
if [ "X${Health}" != "XPASSED" ]; then
AdditionalSMARTInfo="${AdditionalSMARTInfo}, ${BOLD}SMART health: **FAILED**${NC}${LRED}"
DeviceWarning=TRUE
fi
if [ ${PercentageUsed:-0} -gt 75 ] || [ ${Reallocated_Sector_Ct:-0} -gt 1 ] || [ ${Hardware_ECC_Recovered:-0} -gt 1 ] || [ ${Reallocated_Event_Count:-0} -gt 1 ] || [ ${Current_Pending_Sector:-0} -gt 1 ] || [ ${Offline_Uncorrectable:-0} -gt 1 ] || [ ${EndtoEnd_Error:-0} -gt 1 ]; then
DeviceWarning=TRUE
fi
;;
esac
# Add vendor name where missing from model string
case "${DeviceName}" in
"\"CT"*)
DeviceName="\"Crucial ${DeviceName:1}"
;;
"\"TS"*)
DeviceName="\"Transcend ${DeviceName:1}"
;;
esac
else
DeviceName="${DeviceToCheck}"
fi
} # CheckSMARTData
DisplayUsage() {
echo -e "\nUsage: ${BOLD}${0##*/} [-c] [-g] [-G] [-h] [-m] [-P] [-r] [-R] [-s] [-t \$degree] [-T \$degree] [-u]${NC}\n"
echo -e "############################################################################"
echo -e "\n Use ${BOLD}${0##*/}${NC} for the following tasks:\n"
echo -e " ${0##*/} invoked without arguments runs a standard benchmark"
echo -e " ${0##*/} ${BOLD}-c${NC} also executes cpuminer stress tester (NEON/SSE/AVX)"
echo -e " ${0##*/} ${BOLD}-g${NC} graphs 7-zip MIPS for every cpufreq OPP"
echo -e " ${0##*/} ${BOLD}-G${NC} Geekbench mode, ensures benchmark is properly monitored"
echo -e " ${0##*/} ${BOLD}-h${NC} displays this help text"
echo -e " ${0##*/} ${BOLD}-j${NC} Jeff Geerling mode. Don't use if you're not him"
echo -e " ${0##*/} ${BOLD}-k${NC} Kernel info: version number and vendor/BSP check"
echo -e " ${0##*/} ${BOLD}-m${NC} [\$seconds] provides CLI monitoring (5 sec default interval)"
echo -e " ${0##*/} ${BOLD}-P${NC} Phoronix mode, ensures benchmark is properly monitored"
echo -e " ${0##*/} ${BOLD}-r${NC} Review mode: generate insights via benchmarking"
echo -e " ${0##*/} ${BOLD}-R${NC} Review mode w/o baseline benchmarks for further testing"
echo -e " ${0##*/} ${BOLD}-s${NC} also executes stockfish stress tester (NEON/SSE/AVX/RAM)"
echo -e " ${0##*/} ${BOLD}-t${NC} [\$degree] runs thermal test waiting to cool down to this value"
echo -e " ${0##*/} ${BOLD}-T${NC} [\$degree] runs thermal test heating up to this value"
echo -e " ${0##*/} ${BOLD}-u${NC} update sbc-bench to latest version from Github\n"
echo -e " The environment variable ${BOLD}MODE${NC} can be set to either ${BOLD}extensive${NC} or ${BOLD}unattended${NC}"
echo -e " prior to benchmark execution. Exporting ${BOLD}MaxKHz${NC} will also be honored, see here"
echo -e " for details: https://github.com/ThomasKaiser/sbc-bench#unattended-execution\n"
echo -e " With a Netio powermeter accessible you can export ${BOLD}Netio=address/socket${NC}" to
echo -e " sbc-bench defining address and socket this device is plugged into. Requires"
echo -e " XML API enabled and read-only access w/o password. Use this ${BOLD}only${NC} with ${BOLD}-g${NC} to"
echo -e " draw efficiency graphs since results will be slightly tampered by this mode."
echo -e "\n############################################################################\n"
} # DisplayUsage
# Allows the script to be sourced
[[ "${BASH_SOURCE}" = "$0" ]] && Main "$@"