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sbc-bench v0.9.71 Thundercomm, Inc. Rubik Pi C6490P (Wed, 30 Apr 2025 06:24:21 +1200)
Distributor ID: Debian
Description: Debian GNU/Linux trixie/sid
Release: 22.04
Codename: trixie
/usr/bin/gcc (Debian 14.2.0-19) 14.2.0
Uptime: 06:24:21 up 15 min, 0 user, load average: 0.02, 0.05, 0.09, 37.2°C, 47954946
Linux 6.6.38 (RUBIKPi) 04/30/25 _aarch64_ (8 CPU)
avg-cpu: %user %nice %system %iowait %steal %idle
0.30 0.00 0.61 0.10 0.20 98.78
Device tps kB_read/s kB_wrtn/s kB_dscd/s kB_read kB_wrtn kB_dscd
sda 12.40 485.06 32.94 108454.86 454652 30872 101655824
sdb 0.17 4.14 0.00 0.00 3876 0 0
sdc 0.17 4.14 0.00 0.00 3876 0 0
sdd 0.25 2.51 0.00 0.00 2352 0 0
sde 2.38 70.23 0.00 0.00 65824 0 0
sdf 0.30 8.65 0.00 0.00 8112 0 0
sdg 0.29 12.06 0.02 27.70 11308 16 25960
sdh 0.07 2.62 0.00 0.00 2456 0 0
zram0 0.11 2.42 0.00 0.00 2272 4 0
total used free shared buff/cache available
Mem: 7.2Gi 553Mi 6.6Gi 2.9Mi 147Mi 6.7Gi
Swap: 5.3Gi 0B 5.3Gi
Filename Type Size Used Priority
/dev/zram0 partition 5532552 0 32758
##########################################################################
Checking cpufreq OPP for cpu0-cpu3 (Cortex-A55):
Cpufreq OPP: 1958 Measured: 1952 (1952.653/1952.409/1952.262)
Cpufreq OPP: 1804 Measured: 1799 (1799.475/1799.340/1799.318)
Cpufreq OPP: 1651 Measured: 1645 (1645.969/1645.845/1645.515)
Cpufreq OPP: 1516 Measured: 1511 (1511.685/1511.666/1511.647)
Cpufreq OPP: 1324 Measured: 1319 (1319.905/1319.740/1319.690)
Cpufreq OPP: 1152 Measured: 1147 (1147.296/1147.152/1147.138)
Cpufreq OPP: 940 Measured: 936 (936.692/936.505/936.201)
Cpufreq OPP: 806 Measured: 802 (802.090/801.990/801.920)
Cpufreq OPP: 691 Measured: 686 (686.791/686.267/685.529)
Cpufreq OPP: 300 Measured: 296 (296.336/296.173/296.102) (-1.3%)
Checking cpufreq OPP for cpu4-cpu6 (Cortex-A78):
Cpufreq OPP: 2400 Measured: 2397 (2397.978/2397.918/2397.888)
Cpufreq OPP: 2131 Measured: 2397 (2397.952/2397.922/2397.892) (+12.5%)
Cpufreq OPP: 2054 Measured: 2397 (2397.896/2397.866/2397.836) (+16.7%)
Cpufreq OPP: 1900 Measured: 1899 (1899.552/1898.982/1898.840)
Cpufreq OPP: 1651 Measured: 1706 (1805.162/1720.111/1594.024) (+3.3%)
Cpufreq OPP: 1516 Measured: 1514 (1515.031/1515.012/1514.918)
Cpufreq OPP: 1344 Measured: 1344 (1447.501/1342.329/1243.675)
Cpufreq OPP: 1228 Measured: 1247 (1343.305/1270.904/1127.831) (+1.5%)
Cpufreq OPP: 940 Measured: 940 (943.887/939.343/939.284)
Cpufreq OPP: 691 Measured: 695 (702.228/695.458/689.789)
Checking cpufreq OPP for cpu7 (Cortex-A78):
Cpufreq OPP: 2707 Measured: 2705 (2705.181/2705.181/2705.080)
Cpufreq OPP: 2515 Measured: 2513 (2513.197/2513.009/2512.915)
Cpufreq OPP: 2380 Measured: 2513 (2513.122/2513.059/2512.839) (+5.6%)
Cpufreq OPP: 2208 Measured: 2205 (2206.019/2205.963/2205.936)
Cpufreq OPP: 2035 Measured: 2048 (2079.306/2047.309/2019.711)
Cpufreq OPP: 1862 Measured: 1880 (1915.846/1865.533/1860.775)
Cpufreq OPP: 1766 Measured: 1782 (1812.956/1806.830/1728.339)
Cpufreq OPP: 1516 Measured: 1514 (1515.029/1515.011/1512.854)
Cpufreq OPP: 1324 Measured: 1392 (1426.647/1418.769/1333.215) (+5.1%)
Cpufreq OPP: 1056 Measured: 1034 (1059.979/1054.452/990.467) (-2.1%)
Cpufreq OPP: 806 Measured: 838 (901.346/809.933/804.913) (+4.0%)
##########################################################################
Hardware sensors:
cpu11_thermal-virtual-0
temp1: +36.4 C
qcom_battmgr_usb-virtual-0
in0: 0.00 V (max = +0.00 V)
curr1: 0.00 A (max = +0.00 A)
mdmss0_thermal-virtual-0
temp1: +35.5 C
cpu9_thermal-virtual-0
temp1: +36.0 C
cpuss1_thermal-virtual-0
temp1: +37.2 C
sdm_skin_thermal-virtual-0
temp1: +34.6 C
video_thermal-virtual-0
temp1: +35.5 C
cpu7_thermal-virtual-0
temp1: +35.6 C
cpu3_thermal-virtual-0
temp1: +36.8 C
xo_thermal-virtual-0
temp1: +34.0 C
nspss0_thermal-virtual-0
temp1: +35.5 C
cpu5_thermal-virtual-0
temp1: +37.2 C
cpu1_thermal-virtual-0
temp1: +36.8 C
pwmfan-isa-0000
pwm1: 0% MANUAL CONTROL
gpuss1_thermal-virtual-0
temp1: +35.5 C
aoss0_thermal-virtual-0
temp1: +35.6 C
mdmss3_thermal-virtual-0
temp1: +35.1 C
aoss1_thermal-virtual-0
temp1: +35.9 C
pm7325_thermal-virtual-0
temp1: +37.0 C
qcom_battmgr_wls-virtual-0
in0: 0.00 V (max = +0.00 V)
curr1: 220.00 mA (max = +0.00 A)
mdmss1_thermal-virtual-0
temp1: +35.5 C
cpu10_thermal-virtual-0
temp1: +36.0 C
cpu4_thermal-virtual-0
temp1: +38.0 C
qcom_battmgr_bat-virtual-0
in0: 4.04 V (max = +0.00 V)
temp: +25.0 C
curr1: -120.00 mA
ddr_thermal-virtual-0
temp1: +36.3 C
cpu8_thermal-virtual-0
temp1: +36.4 C
cpuss0_thermal-virtual-0
temp1: +36.8 C
quiet_thermal-virtual-0
temp1: +36.0 C
nspss1_thermal-virtual-0
temp1: +35.5 C
cpu6_thermal-virtual-0
temp1: +36.0 C
cpu2_thermal-virtual-0
temp1: +36.4 C
cpu0_thermal-virtual-0
temp1: +36.4 C
camera0_thermal-virtual-0
temp1: +35.5 C
gpuss0_thermal-virtual-0
temp1: +35.9 C
pm8350c_thermal-virtual-0
temp1: +37.0 C
ucsi_source_psy_pmic_glink.ucsi.01-virtual-0
in0: 0.00 V (min = +0.00 V, max = +0.00 V)
curr1: 0.00 A (max = +0.00 A)
mdmss2_thermal-virtual-0
temp1: +35.1 C
##########################################################################
Executing benchmark on cpu0 (Cortex-A55):
tinymembench v0.4.9-nuumio (simple benchmark for memory throughput and latency)
CFLAGS:
bandwidth test min repeats (-b): 2
bandwidth test max repeats (-B): 3
bandwidth test mem realloc (-M): no (-m for realloc)
latency test repeats (-l): 3
latency test count (-c): 1000000
==========================================================================
== Memory bandwidth tests ==
== ==
== Note 1: 1MB = 1000000 bytes ==
== Note 2: Test result is the best of repeated runs. Number of repeats ==
== is shown in brackets ==
== Note 3: Results for 'copy' tests show how many bytes can be ==
== copied per second (adding together read and writen ==
== bytes would have provided twice higher numbers) ==
== Note 4: 2-pass copy means that we are using a small temporary buffer ==
== to first fetch data into it, and only then write it to the ==
== destination (source -> L1 cache, L1 cache -> destination) ==
== Note 5: If sample standard deviation exceeds 0.1%, it is shown in ==
== brackets ==
==========================================================================
C copy backwards : 2102.8 MB/s (3, 7.2%)
C copy backwards (32 byte blocks) : 2104.4 MB/s (2)
C copy backwards (64 byte blocks) : 2103.6 MB/s (3, 0.2%)
C copy : 3913.2 MB/s (3, 0.1%)
C copy prefetched (32 bytes step) : 1974.9 MB/s (3)
C copy prefetched (64 bytes step) : 3905.2 MB/s (2)
C 2-pass copy : 2588.5 MB/s (3, 0.2%)
C 2-pass copy prefetched (32 bytes step) : 1286.5 MB/s (3)
C 2-pass copy prefetched (64 bytes step) : 2496.3 MB/s (2)
C scan 8 : 478.2 MB/s (2)
C scan 16 : 956.0 MB/s (3)
C scan 32 : 1893.4 MB/s (2)
C scan 64 : 3717.1 MB/s (3, 0.2%)
C fill : 13788.1 MB/s (2)
C fill (shuffle within 16 byte blocks) : 13791.9 MB/s (2)
C fill (shuffle within 32 byte blocks) : 13807.4 MB/s (3, 0.1%)
C fill (shuffle within 64 byte blocks) : 13487.9 MB/s (3, 0.9%)
---
libc memcpy copy : 3894.1 MB/s (3, 0.2%)
libc memchr scan : 3002.7 MB/s (2)
libc memset fill : 16985.7 MB/s (3, 0.2%)
---
NEON LDP/STP copy : 3901.6 MB/s (2)
NEON LDP/STP copy pldl2strm (32 bytes step) : 1706.5 MB/s (2)
NEON LDP/STP copy pldl2strm (64 bytes step) : 2951.6 MB/s (2)
NEON LDP/STP copy pldl1keep (32 bytes step) : 2205.3 MB/s (2)
NEON LDP/STP copy pldl1keep (64 bytes step) : 3886.0 MB/s (2)
NEON LD1/ST1 copy : 3901.6 MB/s (3, 0.2%)
NEON LDP load : 7042.5 MB/s (2)
NEON LDNP load : 7408.3 MB/s (2)
NEON STP fill : 16984.9 MB/s (3, 1.0%)
NEON STNP fill : 10665.1 MB/s (3, 0.1%)
ARM LDP/STP copy : 3908.3 MB/s (3)
ARM LDP load : 7041.6 MB/s (2)
ARM LDNP load : 7405.3 MB/s (2)
ARM STP fill : 16745.0 MB/s (3, 1.4%)
ARM STNP fill : 10576.8 MB/s (2)
==========================================================================
== Framebuffer read tests. ==
== ==
== Many ARM devices use a part of the system memory as the framebuffer, ==
== typically mapped as uncached but with write-combining enabled. ==
== Writes to such framebuffers are quite fast, but reads are much ==
== slower and very sensitive to the alignment and the selection of ==
== CPU instructions which are used for accessing memory. ==
== ==
== Many x86 systems allocate the framebuffer in the GPU memory, ==
== accessible for the CPU via a relatively slow PCI-E bus. Moreover, ==
== PCI-E is asymmetric and handles reads a lot worse than writes. ==
== ==
== If uncached framebuffer reads are reasonably fast (at least 100 MB/s ==
== or preferably >300 MB/s), then using the shadow framebuffer layer ==
== is not necessary in Xorg DDX drivers, resulting in a nice overall ==
== performance improvement. For example, the xf86-video-fbturbo DDX ==
== uses this trick. ==
==========================================================================
NEON LDP/STP copy (from framebuffer) : 235.0 MB/s (3)
NEON LDP/STP 2-pass copy (from framebuffer) : 220.2 MB/s (2)
NEON LD1/ST1 copy (from framebuffer) : 65.8 MB/s (2)
NEON LD1/ST1 2-pass copy (from framebuffer) : 59.3 MB/s (2)
ARM LDP/STP copy (from framebuffer) : 126.8 MB/s (3)
ARM LDP/STP 2-pass copy (from framebuffer) : 123.1 MB/s (2)
==========================================================================
== Memory latency test ==
== ==
== Average time is measured for random memory accesses in the buffers ==
== of different sizes. The larger is the buffer, the more significant ==
== are relative contributions of TLB, L1/L2 cache misses and SDRAM ==
== accesses. For extremely large buffer sizes we are expecting to see ==
== page table walk with several requests to SDRAM for almost every ==
== memory access (though 64MiB is not nearly large enough to experience ==
== this effect to its fullest). ==
== ==
== Note 1: All the numbers are representing extra time, which needs to ==
== be added to L1 cache latency. The cycle timings for L1 cache ==
== latency can be usually found in the processor documentation. ==
== Note 2: Dual random read means that we are simultaneously performing ==
== two independent memory accesses at a time. In the case if ==
== the memory subsystem can't handle multiple outstanding ==
== requests, dual random read has the same timings as two ==
== single reads performed one after another. ==
==========================================================================
block size : single random read / dual random read, [MADV_NOHUGEPAGE]
1024 : 0.0 ns / 0.0 ns
2048 : 0.0 ns / 0.0 ns
4096 : 0.0 ns / 0.0 ns
8192 : 0.0 ns / 0.0 ns
16384 : 0.3 ns / 0.3 ns
32768 : 1.2 ns / 0.9 ns
65536 : 1.5 ns / 2.5 ns
131072 : 2.7 ns / 4.1 ns
262144 : 8.2 ns / 11.5 ns
524288 : 12.3 ns / 14.6 ns
1048576 : 15.8 ns / 15.6 ns
2097152 : 21.2 ns / 20.2 ns
4194304 : 61.2 ns / 89.0 ns
8388608 : 105.1 ns / 141.8 ns
16777216 : 126.5 ns / 159.3 ns
33554432 : 140.6 ns / 168.6 ns
67108864 : 149.6 ns / 175.6 ns
block size : single random read / dual random read, [MADV_HUGEPAGE]
1024 : 0.0 ns / 0.0 ns
2048 : 0.0 ns / 0.0 ns
4096 : 0.0 ns / 0.0 ns
8192 : 0.0 ns / 0.0 ns
16384 : 0.2 ns / 0.2 ns
32768 : 1.2 ns / 1.3 ns
65536 : 1.6 ns / 2.6 ns
131072 : 2.7 ns / 4.1 ns
262144 : 8.2 ns / 11.5 ns
524288 : 12.1 ns / 14.6 ns
1048576 : 15.7 ns / 15.6 ns
2097152 : 19.5 ns / 16.2 ns
4194304 : 60.3 ns / 87.5 ns
8388608 : 101.2 ns / 127.5 ns
16777216 : 118.3 ns / 140.0 ns
33554432 : 126.0 ns / 144.0 ns
67108864 : 131.2 ns / 146.0 ns
Executing benchmark on cpu4 (Cortex-A78):
tinymembench v0.4.9-nuumio (simple benchmark for memory throughput and latency)
CFLAGS:
bandwidth test min repeats (-b): 2
bandwidth test max repeats (-B): 3
bandwidth test mem realloc (-M): no (-m for realloc)
latency test repeats (-l): 3
latency test count (-c): 1000000
==========================================================================
== Memory bandwidth tests ==
== ==
== Note 1: 1MB = 1000000 bytes ==
== Note 2: Test result is the best of repeated runs. Number of repeats ==
== is shown in brackets ==
== Note 3: Results for 'copy' tests show how many bytes can be ==
== copied per second (adding together read and writen ==
== bytes would have provided twice higher numbers) ==
== Note 4: 2-pass copy means that we are using a small temporary buffer ==
== to first fetch data into it, and only then write it to the ==
== destination (source -> L1 cache, L1 cache -> destination) ==
== Note 5: If sample standard deviation exceeds 0.1%, it is shown in ==
== brackets ==
==========================================================================
C copy backwards : 7067.0 MB/s (3)
C copy backwards (32 byte blocks) : 7069.8 MB/s (2)
C copy backwards (64 byte blocks) : 7078.4 MB/s (3, 0.2%)
C copy : 7146.3 MB/s (2)
C copy prefetched (32 bytes step) : 7146.7 MB/s (2)
C copy prefetched (64 bytes step) : 7145.2 MB/s (2)
C 2-pass copy : 7165.0 MB/s (3, 0.5%)
C 2-pass copy prefetched (32 bytes step) : 7156.7 MB/s (2)
C 2-pass copy prefetched (64 bytes step) : 7160.8 MB/s (2)
C scan 8 : 2396.3 MB/s (2)
C scan 16 : 4679.0 MB/s (2)
C scan 32 : 9327.4 MB/s (2)
C scan 64 : 17057.5 MB/s (3, 0.4%)
C fill : 17203.2 MB/s (2)
C fill (shuffle within 16 byte blocks) : 17188.1 MB/s (3, 0.4%)
C fill (shuffle within 32 byte blocks) : 17196.0 MB/s (2)
C fill (shuffle within 64 byte blocks) : 17174.2 MB/s (2)
---
libc memcpy copy : 7018.5 MB/s (2)
libc memchr scan : 17368.0 MB/s (3, 0.1%)
libc memset fill : 17203.9 MB/s (3, 0.1%)
---
NEON LDP/STP copy : 7137.2 MB/s (3, 0.1%)
NEON LDP/STP copy pldl2strm (32 bytes step) : 7160.2 MB/s (2)
NEON LDP/STP copy pldl2strm (64 bytes step) : 7162.6 MB/s (3, 1.4%)
NEON LDP/STP copy pldl1keep (32 bytes step) : 7124.4 MB/s (2)
NEON LDP/STP copy pldl1keep (64 bytes step) : 7119.1 MB/s (3)
NEON LD1/ST1 copy : 7122.5 MB/s (3)
NEON LDP load : 17028.1 MB/s (2)
NEON LDNP load : 17549.1 MB/s (3, 0.3%)
NEON STP fill : 17199.9 MB/s (3, 0.1%)
NEON STNP fill : 17202.8 MB/s (2)
ARM LDP/STP copy : 7133.9 MB/s (2)
ARM LDP load : 17260.0 MB/s (3, 0.2%)
ARM LDNP load : 17218.7 MB/s (2)
ARM STP fill : 17204.5 MB/s (2)
ARM STNP fill : 17213.0 MB/s (3, 0.2%)
==========================================================================
== Framebuffer read tests. ==
== ==
== Many ARM devices use a part of the system memory as the framebuffer, ==
== typically mapped as uncached but with write-combining enabled. ==
== Writes to such framebuffers are quite fast, but reads are much ==
== slower and very sensitive to the alignment and the selection of ==
== CPU instructions which are used for accessing memory. ==
== ==
== Many x86 systems allocate the framebuffer in the GPU memory, ==
== accessible for the CPU via a relatively slow PCI-E bus. Moreover, ==
== PCI-E is asymmetric and handles reads a lot worse than writes. ==
== ==
== If uncached framebuffer reads are reasonably fast (at least 100 MB/s ==
== or preferably >300 MB/s), then using the shadow framebuffer layer ==
== is not necessary in Xorg DDX drivers, resulting in a nice overall ==
== performance improvement. For example, the xf86-video-fbturbo DDX ==
== uses this trick. ==
==========================================================================
NEON LDP/STP copy (from framebuffer) : 1712.8 MB/s (2)
NEON LDP/STP 2-pass copy (from framebuffer) : 1556.7 MB/s (2)
NEON LD1/ST1 copy (from framebuffer) : 1712.6 MB/s (2)
NEON LD1/ST1 2-pass copy (from framebuffer) : 1555.4 MB/s (3)
ARM LDP/STP copy (from framebuffer) : 839.3 MB/s (2)
ARM LDP/STP 2-pass copy (from framebuffer) : 819.0 MB/s (2)
==========================================================================
== Memory latency test ==
== ==
== Average time is measured for random memory accesses in the buffers ==
== of different sizes. The larger is the buffer, the more significant ==
== are relative contributions of TLB, L1/L2 cache misses and SDRAM ==
== accesses. For extremely large buffer sizes we are expecting to see ==
== page table walk with several requests to SDRAM for almost every ==
== memory access (though 64MiB is not nearly large enough to experience ==
== this effect to its fullest). ==
== ==
== Note 1: All the numbers are representing extra time, which needs to ==
== be added to L1 cache latency. The cycle timings for L1 cache ==
== latency can be usually found in the processor documentation. ==
== Note 2: Dual random read means that we are simultaneously performing ==
== two independent memory accesses at a time. In the case if ==
== the memory subsystem can't handle multiple outstanding ==
== requests, dual random read has the same timings as two ==
== single reads performed one after another. ==
==========================================================================
block size : single random read / dual random read, [MADV_NOHUGEPAGE]
1024 : 0.0 ns / 0.0 ns
2048 : 0.0 ns / 0.0 ns
4096 : 0.0 ns / 0.0 ns
8192 : 0.0 ns / 0.0 ns
16384 : 0.0 ns / 0.0 ns
32768 : 0.0 ns / 0.0 ns
65536 : 1.2 ns / 1.8 ns
131072 : 1.8 ns / 2.1 ns
262144 : 3.3 ns / 3.8 ns
524288 : 10.6 ns / 13.9 ns
1048576 : 15.8 ns / 16.8 ns
2097152 : 21.9 ns / 21.9 ns
4194304 : 59.9 ns / 87.5 ns
8388608 : 100.1 ns / 128.4 ns
16777216 : 125.1 ns / 147.2 ns
33554432 : 138.3 ns / 157.9 ns
67108864 : 149.0 ns / 166.9 ns
block size : single random read / dual random read, [MADV_HUGEPAGE]
1024 : 0.0 ns / 0.0 ns
2048 : 0.0 ns / 0.0 ns
4096 : 0.0 ns / 0.0 ns
8192 : 0.0 ns / 0.0 ns
16384 : 0.0 ns / 0.0 ns
32768 : 0.0 ns / 0.0 ns
65536 : 1.3 ns / 1.9 ns
131072 : 1.8 ns / 2.2 ns
262144 : 2.2 ns / 2.3 ns
524288 : 9.5 ns / 12.4 ns
1048576 : 14.1 ns / 15.4 ns
2097152 : 17.9 ns / 15.8 ns
4194304 : 57.3 ns / 85.2 ns
8388608 : 96.7 ns / 125.4 ns
16777216 : 114.7 ns / 137.1 ns
33554432 : 124.1 ns / 141.0 ns
67108864 : 128.8 ns / 142.3 ns
Executing benchmark on cpu7 (Cortex-A78):
tinymembench v0.4.9-nuumio (simple benchmark for memory throughput and latency)
CFLAGS:
bandwidth test min repeats (-b): 2
bandwidth test max repeats (-B): 3
bandwidth test mem realloc (-M): no (-m for realloc)
latency test repeats (-l): 3
latency test count (-c): 1000000
==========================================================================
== Memory bandwidth tests ==
== ==
== Note 1: 1MB = 1000000 bytes ==
== Note 2: Test result is the best of repeated runs. Number of repeats ==
== is shown in brackets ==
== Note 3: Results for 'copy' tests show how many bytes can be ==
== copied per second (adding together read and writen ==
== bytes would have provided twice higher numbers) ==
== Note 4: 2-pass copy means that we are using a small temporary buffer ==
== to first fetch data into it, and only then write it to the ==
== destination (source -> L1 cache, L1 cache -> destination) ==
== Note 5: If sample standard deviation exceeds 0.1%, it is shown in ==
== brackets ==
==========================================================================
C copy backwards : 7057.5 MB/s (2)
C copy backwards (32 byte blocks) : 7070.4 MB/s (2)
C copy backwards (64 byte blocks) : 7071.3 MB/s (2)
C copy : 7144.0 MB/s (2)
C copy prefetched (32 bytes step) : 7150.0 MB/s (2)
C copy prefetched (64 bytes step) : 7152.2 MB/s (2)
C 2-pass copy : 7180.1 MB/s (2)
C 2-pass copy prefetched (32 bytes step) : 7181.7 MB/s (2)
C 2-pass copy prefetched (64 bytes step) : 7182.6 MB/s (3)
C scan 8 : 2703.0 MB/s (2)
C scan 16 : 5279.3 MB/s (2)
C scan 32 : 10526.1 MB/s (2)
C scan 64 : 16809.1 MB/s (3, 0.7%)
C fill : 17218.3 MB/s (3, 0.6%)
C fill (shuffle within 16 byte blocks) : 17175.1 MB/s (3, 1.2%)
C fill (shuffle within 32 byte blocks) : 17097.2 MB/s (3, 0.8%)
C fill (shuffle within 64 byte blocks) : 17210.9 MB/s (2)
---
libc memcpy copy : 6917.8 MB/s (3, 0.2%)
libc memchr scan : 17299.5 MB/s (3, 0.5%)
libc memset fill : 17228.6 MB/s (3)
---
NEON LDP/STP copy : 7131.3 MB/s (3, 0.1%)
NEON LDP/STP copy pldl2strm (32 bytes step) : 7167.9 MB/s (2)
NEON LDP/STP copy pldl2strm (64 bytes step) : 7176.9 MB/s (2)
NEON LDP/STP copy pldl1keep (32 bytes step) : 7080.2 MB/s (2)
NEON LDP/STP copy pldl1keep (64 bytes step) : 7104.9 MB/s (3, 0.1%)
NEON LD1/ST1 copy : 7135.1 MB/s (2)
NEON LDP load : 17101.3 MB/s (3, 0.2%)
NEON LDNP load : 17165.7 MB/s (3, 0.8%)
NEON STP fill : 17187.5 MB/s (2)
NEON STNP fill : 17196.8 MB/s (2)
ARM LDP/STP copy : 7124.5 MB/s (2)
ARM LDP load : 16973.2 MB/s (3, 0.6%)
ARM LDNP load : 17241.8 MB/s (3, 0.2%)
ARM STP fill : 17241.4 MB/s (3, 0.4%)
ARM STNP fill : 17238.2 MB/s (2)
==========================================================================
== Framebuffer read tests. ==
== ==
== Many ARM devices use a part of the system memory as the framebuffer, ==
== typically mapped as uncached but with write-combining enabled. ==
== Writes to such framebuffers are quite fast, but reads are much ==
== slower and very sensitive to the alignment and the selection of ==
== CPU instructions which are used for accessing memory. ==
== ==
== Many x86 systems allocate the framebuffer in the GPU memory, ==
== accessible for the CPU via a relatively slow PCI-E bus. Moreover, ==
== PCI-E is asymmetric and handles reads a lot worse than writes. ==
== ==
== If uncached framebuffer reads are reasonably fast (at least 100 MB/s ==
== or preferably >300 MB/s), then using the shadow framebuffer layer ==
== is not necessary in Xorg DDX drivers, resulting in a nice overall ==
== performance improvement. For example, the xf86-video-fbturbo DDX ==
== uses this trick. ==
==========================================================================
NEON LDP/STP copy (from framebuffer) : 1741.4 MB/s (2)
NEON LDP/STP 2-pass copy (from framebuffer) : 1567.5 MB/s (2)
NEON LD1/ST1 copy (from framebuffer) : 1741.5 MB/s (2)
NEON LD1/ST1 2-pass copy (from framebuffer) : 1567.8 MB/s (2)
ARM LDP/STP copy (from framebuffer) : 847.0 MB/s (2)
ARM LDP/STP 2-pass copy (from framebuffer) : 829.8 MB/s (2)
==========================================================================
== Memory latency test ==
== ==
== Average time is measured for random memory accesses in the buffers ==
== of different sizes. The larger is the buffer, the more significant ==
== are relative contributions of TLB, L1/L2 cache misses and SDRAM ==
== accesses. For extremely large buffer sizes we are expecting to see ==
== page table walk with several requests to SDRAM for almost every ==
== memory access (though 64MiB is not nearly large enough to experience ==
== this effect to its fullest). ==
== ==
== Note 1: All the numbers are representing extra time, which needs to ==
== be added to L1 cache latency. The cycle timings for L1 cache ==
== latency can be usually found in the processor documentation. ==
== Note 2: Dual random read means that we are simultaneously performing ==
== two independent memory accesses at a time. In the case if ==
== the memory subsystem can't handle multiple outstanding ==
== requests, dual random read has the same timings as two ==
== single reads performed one after another. ==
==========================================================================
block size : single random read / dual random read, [MADV_NOHUGEPAGE]
1024 : 0.0 ns / 0.0 ns
2048 : 0.0 ns / 0.0 ns
4096 : 0.0 ns / 0.0 ns
8192 : 0.0 ns / 0.0 ns
16384 : 0.0 ns / 0.0 ns
32768 : 0.0 ns / 0.0 ns
65536 : 1.1 ns / 1.7 ns
131072 : 1.6 ns / 1.8 ns
262144 : 3.3 ns / 3.9 ns
524288 : 9.8 ns / 13.0 ns
1048576 : 15.1 ns / 16.1 ns
2097152 : 21.7 ns / 21.5 ns
4194304 : 60.7 ns / 89.8 ns
8388608 : 101.0 ns / 130.0 ns
16777216 : 120.9 ns / 143.4 ns
33554432 : 136.0 ns / 153.9 ns
67108864 : 145.1 ns / 162.8 ns
block size : single random read / dual random read, [MADV_HUGEPAGE]
1024 : 0.0 ns / 0.0 ns
2048 : 0.0 ns / 0.0 ns
4096 : 0.0 ns / 0.0 ns
8192 : 0.0 ns / 0.0 ns
16384 : 0.0 ns / 0.0 ns
32768 : 0.0 ns / 0.0 ns
65536 : 1.2 ns / 1.7 ns
131072 : 1.6 ns / 2.0 ns
262144 : 2.0 ns / 2.1 ns
524288 : 8.9 ns / 11.7 ns
1048576 : 13.4 ns / 14.8 ns
2097152 : 16.9 ns / 15.2 ns
4194304 : 56.5 ns / 84.2 ns
8388608 : 95.3 ns / 124.3 ns
16777216 : 114.2 ns / 136.1 ns
33554432 : 123.2 ns / 139.9 ns
67108864 : 128.2 ns / 141.2 ns
##########################################################################
Executing ramlat on cpu0 (Cortex-A55), results in ns:
size: 1x32 2x32 1x64 2x64 1xPTR 2xPTR 4xPTR 8xPTR
4k: 1.566 1.548 1.537 1.539 1.024 1.536 2.081 4.194
8k: 1.539 1.537 1.544 1.537 1.024 1.538 2.081 4.193
16k: 1.547 1.537 1.559 1.537 1.035 1.537 2.082 4.200
32k: 1.560 1.540 1.562 1.541 1.036 1.539 2.085 4.199
64k: 9.579 10.63 9.587 10.61 9.718 10.65 14.65 26.82
128k: 9.734 10.43 9.752 10.43 10.80 10.47 16.60 33.51
256k: 15.34 17.84 15.35 17.85 13.50 17.87 26.07 46.29
512k: 16.40 16.51 16.40 16.48 15.77 16.54 26.64 51.41
1024k: 16.43 16.43 16.37 16.42 15.94 16.46 27.26 51.67
2048k: 16.64 16.48 16.80 16.59 16.17 16.49 27.68 52.14
4096k: 76.98 91.63 73.87 92.95 75.23 87.31 97.20 151.2
8192k: 103.9 110.4 103.4 110.6 99.99 110.8 159.9 293.6
16384k: 116.9 115.9 118.1 116.3 112.1 119.0 192.7 361.1
32768k: 120.8 119.2 120.5 118.8 116.9 121.6 197.6 375.4
65536k: 122.0 119.1 121.8 119.2 118.1 121.6 201.2 378.4
131072k: 122.6 119.6 122.5 119.5 118.7 121.7 198.7 377.8
Executing ramlat on cpu4 (Cortex-A78), results in ns:
size: 1x32 2x32 1x64 2x64 1xPTR 2xPTR 4xPTR 8xPTR
4k: 1.669 1.668 1.669 1.668 1.668 1.668 1.668 3.230
8k: 1.668 1.668 1.668 1.668 1.668 1.668 1.668 3.243
16k: 1.668 1.668 1.668 1.668 1.668 1.668 1.668 3.241
32k: 1.669 1.669 1.669 1.668 1.669 1.669 1.669 3.244
64k: 5.851 5.852 5.851 5.851 5.850 5.876 6.687 12.29
128k: 5.006 5.038 5.006 5.039 5.007 5.021 6.449 12.84
256k: 5.080 5.085 5.086 5.088 5.082 5.176 6.533 12.88
512k: 5.830 6.880 5.826 6.882 5.825 11.18 13.49 17.44
1024k: 6.094 7.410 6.088 7.360 6.092 13.88 21.05 31.77
2048k: 6.681 7.753 6.609 7.742 6.614 15.46 24.69 39.57
4096k: 32.31 26.84 32.04 26.82 32.18 28.54 33.72 57.97
8192k: 72.23 62.01 73.13 61.85 72.19 61.70 62.02 76.19
16384k: 113.2 104.8 113.2 104.8 113.1 100.1 96.17 101.2
32768k: 121.0 113.6 122.0 113.6 121.0 116.4 111.0 117.0
65536k: 127.3 119.8 127.3 119.9 127.3 120.3 114.0 120.1
131072k: 133.9 123.3 134.0 123.2 134.0 122.7 120.6 122.4
Executing ramlat on cpu7 (Cortex-A78), results in ns:
size: 1x32 2x32 1x64 2x64 1xPTR 2xPTR 4xPTR 8xPTR
4k: 1.479 1.479 1.479 1.479 1.479 1.479 1.479 2.864
8k: 1.479 1.479 1.479 1.479 1.479 1.479 1.479 2.874
16k: 1.479 1.479 1.479 1.479 1.479 1.479 1.483 2.874
32k: 1.479 1.479 1.479 1.479 1.480 1.480 1.481 2.876
64k: 5.187 5.188 5.187 5.188 5.187 5.214 5.928 10.90
128k: 4.439 4.466 4.438 4.466 4.439 4.447 5.714 11.36
256k: 4.501 4.507 4.505 4.508 4.502 4.593 5.794 11.42
512k: 5.191 6.311 5.193 6.304 5.193 10.52 12.37 15.88
1024k: 5.434 6.910 5.425 6.827 5.424 13.49 20.90 32.72
2048k: 6.060 7.197 6.030 7.194 6.085 14.96 24.59 40.21
4096k: 30.45 25.83 30.75 26.30 31.08 26.48 30.33 51.83
8192k: 70.15 62.45 70.24 62.37 70.57 61.01 61.16 75.18
16384k: 106.1 102.0 106.0 102.1 106.0 96.26 95.79 98.62
32768k: 113.4 112.2 113.5 112.2 113.4 114.7 107.5 115.6
65536k: 118.7 118.5 118.7 118.5 118.7 117.3 113.2 119.5
131072k: 133.3 121.8 133.4 121.8 133.4 120.7 118.6 121.4
##########################################################################
Executing benchmark on each cluster individually
OpenSSL 3.5.0, built on 8 Apr 2025 (Library: OpenSSL 3.5.0 8 Apr 2025)
type 16 bytes 64 bytes 256 bytes 1024 bytes 8192 bytes 16384 bytes
aes-128-cbc 163117.35k 487637.48k 982992.04k 1317606.40k 1462160.04k 1473282.05k (Cortex-A55)
aes-128-cbc 912469.70k 1537980.42k 1794549.42k 1872541.01k 1897048.75k 1900352.85k (Cortex-A78)
aes-128-cbc 1028993.08k 1742757.74k 2027243.78k 2114068.82k 2143830.02k 2137576.79k (Cortex-A78)
aes-192-cbc 156136.07k 436638.51k 803307.78k 1015879.34k 1101114.03k 1107481.94k (Cortex-A55)
aes-192-cbc 867976.69k 1337709.06k 1514380.29k 1565371.05k 1579698.86k 1581045.08k (Cortex-A78)
aes-192-cbc 980428.61k 1508035.24k 1708530.69k 1766478.51k 1782388.05k 1783442.09k (Cortex-A78)
aes-256-cbc 150103.11k 402624.98k 695822.93k 850195.80k 908875.09k 913298.77k (Cortex-A55)
aes-256-cbc 828958.87k 1168812.63k 1300071.68k 1341012.65k 1362105.69k 1364464.98k (Cortex-A78)
aes-256-cbc 935889.56k 1318400.58k 1467916.71k 1512482.13k 1531428.86k 1539031.04k (Cortex-A78)
##########################################################################
Executing benchmark single-threaded on cpu0 (Cortex-A55)
7-Zip (a) [64] 16.02 : Copyright (c) 1999-2016 Igor Pavlov : 2016-05-21
p7zip Version 16.02 (locale=C,Utf16=off,HugeFiles=on,64 bits,8 CPUs LE)
LE
CPU Freq: - - - - - - - - -
RAM size: 7376 MB, # CPU hardware threads: 8
RAM usage: 435 MB, # Benchmark threads: 1
Compressing | Decompressing
Dict Speed Usage R/U Rating | Speed Usage R/U Rating
KiB/s % MIPS MIPS | KiB/s % MIPS MIPS
22: 1481 99 1451 1442 | 23336 99 2003 1992
23: 1441 99 1477 1469 | 22725 99 1977 1967
24: 1409 99 1525 1516 | 22109 99 1951 1941
25: 1385 99 1592 1582 | 21606 100 1933 1923
---------------------------------- | ------------------------------
Avr: 99 1511 1502 | 99 1966 1956
Tot: 99 1738 1729
Executing benchmark single-threaded on cpu4 (Cortex-A78)
7-Zip (a) [64] 16.02 : Copyright (c) 1999-2016 Igor Pavlov : 2016-05-21
p7zip Version 16.02 (locale=C,Utf16=off,HugeFiles=on,64 bits,8 CPUs LE)
LE
CPU Freq: - - - 64000000 128000000 - - - -
RAM size: 7376 MB, # CPU hardware threads: 8
RAM usage: 435 MB, # Benchmark threads: 1
Compressing | Decompressing
Dict Speed Usage R/U Rating | Speed Usage R/U Rating
KiB/s % MIPS MIPS | KiB/s % MIPS MIPS
22: 3478 100 3389 3384 | 43337 100 3703 3700
23: 3307 100 3375 3370 | 42203 100 3657 3653
24: 3193 100 3440 3434 | 41183 100 3619 3615
25: 3127 100 3576 3571 | 40245 100 3586 3582
---------------------------------- | ------------------------------
Avr: 100 3445 3440 | 100 3641 3638
Tot: 100 3543 3539
Executing benchmark single-threaded on cpu7 (Cortex-A78)
7-Zip (a) [64] 16.02 : Copyright (c) 1999-2016 Igor Pavlov : 2016-05-21
p7zip Version 16.02 (locale=C,Utf16=off,HugeFiles=on,64 bits,8 CPUs LE)
LE
CPU Freq: - - - - - - - - -
RAM size: 7376 MB, # CPU hardware threads: 8
RAM usage: 435 MB, # Benchmark threads: 1
Compressing | Decompressing
Dict Speed Usage R/U Rating | Speed Usage R/U Rating
KiB/s % MIPS MIPS | KiB/s % MIPS MIPS
22: 3686 100 3592 3586 | 48772 100 4168 4164
23: 3517 100 3591 3584 | 47564 100 4121 4117
24: 3395 100 3658 3651 | 46277 100 4067 4063
25: 3315 100 3792 3785 | 45149 100 4022 4019
---------------------------------- | ------------------------------
Avr: 100 3658 3652 | 100 4095 4091
Tot: 100 3876 3871
##########################################################################
Executing benchmark 3 times multi-threaded on CPUs 0-7
7-Zip (a) [64] 16.02 : Copyright (c) 1999-2016 Igor Pavlov : 2016-05-21
p7zip Version 16.02 (locale=C,Utf16=off,HugeFiles=on,64 bits,8 CPUs LE)
LE
CPU Freq: - - - - - - - - -
RAM size: 7376 MB, # CPU hardware threads: 8
RAM usage: 1765 MB, # Benchmark threads: 8
Compressing | Decompressing
Dict Speed Usage R/U Rating | Speed Usage R/U Rating
KiB/s % MIPS MIPS | KiB/s % MIPS MIPS
22: 15773 736 2086 15345 | 230219 650 3020 19637
23: 15203 762 2033 15490 | 225363 652 2990 19502
24: 14905 776 2066 16027 | 220205 652 2965 19327
25: 14925 777 2192 17041 | 217582 657 2946 19364
---------------------------------- | ------------------------------
Avr: 763 2094 15976 | 653 2980 19457
Tot: 708 2537 17717
7-Zip (a) [64] 16.02 : Copyright (c) 1999-2016 Igor Pavlov : 2016-05-21
p7zip Version 16.02 (locale=C,Utf16=off,HugeFiles=on,64 bits,8 CPUs LE)
LE
CPU Freq: - - - - - - - - -
RAM size: 7376 MB, # CPU hardware threads: 8
RAM usage: 1765 MB, # Benchmark threads: 8
Compressing | Decompressing
Dict Speed Usage R/U Rating | Speed Usage R/U Rating
KiB/s % MIPS MIPS | KiB/s % MIPS MIPS
22: 16994 770 2146 16533 | 232412 657 3016 19824
23: 15700 750 2134 15997 | 225484 653 2990 19513
24: 15601 753 2228 16774 | 220341 653 2960 19339
25: 15307 771 2267 17477 | 216566 654 2946 19274
---------------------------------- | ------------------------------
Avr: 761 2194 16695 | 654 2978 19487
Tot: 708 2586 18091
7-Zip (a) [64] 16.02 : Copyright (c) 1999-2016 Igor Pavlov : 2016-05-21
p7zip Version 16.02 (locale=C,Utf16=off,HugeFiles=on,64 bits,8 CPUs LE)
LE
CPU Freq: - - - - - - - - -
RAM size: 7376 MB, # CPU hardware threads: 8
RAM usage: 1765 MB, # Benchmark threads: 8
Compressing | Decompressing
Dict Speed Usage R/U Rating | Speed Usage R/U Rating
KiB/s % MIPS MIPS | KiB/s % MIPS MIPS
22: 16297 741 2140 15855 | 231062 653 3019 19709
23: 15349 740 2114 15639 | 226529 656 2987 19603
24: 15563 780 2146 16733 | 222044 658 2963 19488
25: 15132 754 2291 17277 | 216694 655 2946 19285
---------------------------------- | ------------------------------
Avr: 754 2173 16376 | 655 2979 19521
Tot: 705 2576 17949
Compression: 15976,16695,16376
Decompression: 19457,19487,19521
Total: 17717,18091,17949
##########################################################################
** cpuminer-multi 1.3.7 by tpruvot@github **
BTC donation address: 1FhDPLPpw18X4srecguG3MxJYe4a1JsZnd (tpruvot)
[2025-04-30 06:39:56] 8 miner threads started, using 'scrypt' algorithm.
[2025-04-30 06:39:56] CPU #7: 4.89 kH/s
[2025-04-30 06:39:56] CPU #4: 4.68 kH/s
[2025-04-30 06:39:56] CPU #6: 4.52 kH/s
[2025-04-30 06:39:56] CPU #5: 4.27 kH/s
[2025-04-30 06:39:56] CPU #1: 1.86 kH/s
[2025-04-30 06:39:56] CPU #2: 1.86 kH/s
[2025-04-30 06:39:56] CPU #3: 1.86 kH/s
[2025-04-30 06:39:56] CPU #0: 1.83 kH/s
[2025-04-30 06:40:00] Total: 26.77 kH/s
[2025-04-30 06:40:01] Total: 27.41 kH/s
[2025-04-30 06:40:05] CPU #4: 4.84 kH/s
[2025-04-30 06:40:06] CPU #0: 1.88 kH/s
[2025-04-30 06:40:06] CPU #2: 1.89 kH/s
[2025-04-30 06:40:06] CPU #3: 1.89 kH/s
[2025-04-30 06:40:06] CPU #1: 1.88 kH/s
[2025-04-30 06:40:06] CPU #5: 4.83 kH/s
[2025-04-30 06:40:06] CPU #7: 5.45 kH/s
[2025-04-30 06:40:06] Total: 27.50 kH/s
[2025-04-30 06:40:06] CPU #6: 4.84 kH/s
[2025-04-30 06:40:11] Total: 27.51 kH/s
[2025-04-30 06:40:11] CPU #4: 4.84 kH/s
[2025-04-30 06:40:16] CPU #0: 1.88 kH/s
[2025-04-30 06:40:16] CPU #2: 1.89 kH/s
[2025-04-30 06:40:16] CPU #3: 1.89 kH/s
[2025-04-30 06:40:16] CPU #1: 1.88 kH/s
[2025-04-30 06:40:16] CPU #5: 4.83 kH/s
[2025-04-30 06:40:16] CPU #7: 5.46 kH/s
[2025-04-30 06:40:16] Total: 27.51 kH/s
[2025-04-30 06:40:16] CPU #6: 4.84 kH/s
[2025-04-30 06:40:21] Total: 27.51 kH/s
[2025-04-30 06:40:21] CPU #4: 4.84 kH/s
[2025-04-30 06:40:26] CPU #0: 1.88 kH/s
[2025-04-30 06:40:26] CPU #2: 1.89 kH/s
[2025-04-30 06:40:26] CPU #1: 1.88 kH/s
[2025-04-30 06:40:26] CPU #3: 1.89 kH/s
[2025-04-30 06:40:26] CPU #5: 4.83 kH/s
[2025-04-30 06:40:26] CPU #7: 5.46 kH/s
[2025-04-30 06:40:26] Total: 27.51 kH/s
[2025-04-30 06:40:26] CPU #6: 4.84 kH/s
[2025-04-30 06:40:31] Total: 27.51 kH/s
[2025-04-30 06:40:31] CPU #4: 4.84 kH/s
[2025-04-30 06:40:36] CPU #0: 1.88 kH/s
[2025-04-30 06:40:36] CPU #1: 1.88 kH/s
[2025-04-30 06:40:36] CPU #2: 1.89 kH/s
[2025-04-30 06:40:36] CPU #3: 1.89 kH/s
[2025-04-30 06:40:36] CPU #5: 4.83 kH/s
[2025-04-30 06:40:36] CPU #7: 5.45 kH/s
[2025-04-30 06:40:36] Total: 27.50 kH/s
[2025-04-30 06:40:36] CPU #6: 4.84 kH/s
[2025-04-30 06:40:41] Total: 27.49 kH/s
[2025-04-30 06:40:41] CPU #4: 4.83 kH/s
[2025-04-30 06:40:46] CPU #0: 1.88 kH/s
[2025-04-30 06:40:46] CPU #1: 1.88 kH/s
[2025-04-30 06:40:46] CPU #2: 1.89 kH/s
[2025-04-30 06:40:46] CPU #3: 1.89 kH/s
[2025-04-30 06:40:46] CPU #5: 4.84 kH/s
[2025-04-30 06:40:46] CPU #7: 5.45 kH/s
[2025-04-30 06:40:46] Total: 27.50 kH/s
[2025-04-30 06:40:46] CPU #6: 4.84 kH/s
[2025-04-30 06:40:51] Total: 27.50 kH/s
[2025-04-30 06:40:51] CPU #4: 4.84 kH/s
[2025-04-30 06:40:56] CPU #0: 1.88 kH/s
[2025-04-30 06:40:56] CPU #1: 1.88 kH/s
[2025-04-30 06:40:56] CPU #2: 1.89 kH/s
[2025-04-30 06:40:56] CPU #3: 1.89 kH/s
[2025-04-30 06:40:56] CPU #5: 4.84 kH/s
[2025-04-30 06:40:56] CPU #7: 5.45 kH/s
[2025-04-30 06:40:56] Total: 27.51 kH/s
[2025-04-30 06:40:56] CPU #6: 4.84 kH/s
[2025-04-30 06:41:01] Total: 27.51 kH/s
[2025-04-30 06:41:01] CPU #4: 4.84 kH/s
[2025-04-30 06:41:06] CPU #0: 1.88 kH/s
[2025-04-30 06:41:06] CPU #1: 1.88 kH/s
[2025-04-30 06:41:06] CPU #3: 1.89 kH/s
[2025-04-30 06:41:06] CPU #2: 1.89 kH/s
[2025-04-30 06:41:06] CPU #5: 4.83 kH/s
[2025-04-30 06:41:06] CPU #7: 5.45 kH/s
[2025-04-30 06:41:06] Total: 27.50 kH/s
[2025-04-30 06:41:06] CPU #6: 4.84 kH/s
[2025-04-30 06:41:11] Total: 27.51 kH/s
[2025-04-30 06:41:11] CPU #4: 4.84 kH/s
[2025-04-30 06:41:16] CPU #0: 1.88 kH/s
[2025-04-30 06:41:16] CPU #1: 1.88 kH/s
[2025-04-30 06:41:16] CPU #3: 1.89 kH/s
[2025-04-30 06:41:16] CPU #2: 1.89 kH/s
[2025-04-30 06:41:16] CPU #5: 4.84 kH/s
[2025-04-30 06:41:16] CPU #7: 5.45 kH/s
[2025-04-30 06:41:16] Total: 27.51 kH/s
[2025-04-30 06:41:16] CPU #6: 4.84 kH/s
[2025-04-30 06:41:21] Total: 27.49 kH/s
[2025-04-30 06:41:21] CPU #4: 4.83 kH/s
[2025-04-30 06:41:26] CPU #0: 1.88 kH/s
[2025-04-30 06:41:26] CPU #1: 1.88 kH/s
[2025-04-30 06:41:26] CPU #3: 1.89 kH/s
[2025-04-30 06:41:26] CPU #2: 1.89 kH/s
[2025-04-30 06:41:26] CPU #5: 4.83 kH/s
[2025-04-30 06:41:26] CPU #7: 5.45 kH/s
[2025-04-30 06:41:26] Total: 27.49 kH/s
[2025-04-30 06:41:26] CPU #6: 4.83 kH/s
[2025-04-30 06:41:31] Total: 27.49 kH/s
[2025-04-30 06:41:31] CPU #4: 4.84 kH/s
[2025-04-30 06:41:36] CPU #0: 1.88 kH/s
[2025-04-30 06:41:36] CPU #1: 1.88 kH/s
[2025-04-30 06:41:36] CPU #3: 1.89 kH/s
[2025-04-30 06:41:36] CPU #2: 1.89 kH/s
[2025-04-30 06:41:36] CPU #5: 4.84 kH/s
[2025-04-30 06:41:36] CPU #7: 5.45 kH/s
[2025-04-30 06:41:36] Total: 27.50 kH/s
[2025-04-30 06:41:36] CPU #6: 4.83 kH/s
[2025-04-30 06:41:41] Total: 27.50 kH/s
[2025-04-30 06:41:41] CPU #4: 4.84 kH/s
[2025-04-30 06:41:46] CPU #0: 1.88 kH/s
[2025-04-30 06:41:46] CPU #1: 1.88 kH/s
[2025-04-30 06:41:46] CPU #3: 1.89 kH/s
[2025-04-30 06:41:46] CPU #2: 1.89 kH/s
[2025-04-30 06:41:46] CPU #5: 4.84 kH/s
[2025-04-30 06:41:46] CPU #7: 5.45 kH/s
[2025-04-30 06:41:46] Total: 27.50 kH/s
[2025-04-30 06:41:46] CPU #6: 4.84 kH/s
[2025-04-30 06:41:51] Total: 27.51 kH/s
[2025-04-30 06:41:51] CPU #4: 4.84 kH/s
[2025-04-30 06:41:56] CPU #0: 1.88 kH/s
[2025-04-30 06:41:56] CPU #1: 1.88 kH/s