NTPsec

Dell-2018

Report generated: Tue Mar 24 00:44:56 2026 UTC
Start Time: Tue Dec 16 00:44:31 2025 UTC
End Time: Tue Mar 24 00:44:31 2026 UTC
Report Period: 98.0 days

Stats for the last 1, 7, 35, 98, 371, some days, or live gps data.

Local Clock Time/Frequency Offsets

local offset plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Local Clock Time Offset -126.620 -8.281 -6.568 -4.540 -2.318 -0.370 121.205 4.250 7.911 2.137 -4.432 ms 7.428 1132
Local Clock Frequency Offset -135.511 -81.763 14.831 18.802 22.331 25.498 135.754 7.500 107.261 14.081 16.739 ppm -6.712 47.91

The time and frequency offsets between the ntpd calculated time and the local system clock. Showing frequency offset (red, in parts per million, scale on right) and the time offset (blue, in μs, scale on left). Quick changes in time offset will lead to larger frequency offsets.

These are fields 3 (time) and 4 (frequency) from the loopstats log file.



Local RMS Time Jitter

local jitter plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Local RMS Time Jitter 0.000 0.125 0.148 0.380 0.448 0.630 83.702 0.300 0.504 1.627 0.434 ms 28.15 951.6

The RMS Jitter of the local clock offset. In other words, how fast the local clock offset is changing.

Lower is better. An ideal system would be a horizontal line at 0μs.

RMS jitter is field 5 in the loopstats log file.



Local RMS Frequency Jitter

local stability plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Local RMS Frequency Jitter 0.0000 0.021 0.062 0.172 0.464 0.968 73.177 0.402 0.947 1.306 0.263 ppm 32.13 1240

The RMS Frequency Jitter (aka wander) of the local clock's frequency. In other words, how fast the local clock changes frequency.

Lower is better. An ideal clock would be a horizontal line at 0ppm.

RMS Frequency Jitter is field 6 in the loopstats log file.



Local Clock Time Offset Histogram

local offset histogram plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Local Clock Offset -126.620 -8.281 -6.568 -4.540 -2.318 -0.370 121.205 4.250 7.911 2.137 -4.432 ms 7.428 1132

The clock offsets of the local clock as a histogram.

The Local Clock Offset is field 3 from the loopstats log file.



Local Temperatures

local temps plot

Local temperatures. These will be site-specific depending upon what temperature sensors you collect data from. Temperature changes affect the local clock crystal frequency and stability. The math of how temperature changes frequency is complex, and also depends on crystal aging. So there is no easy way to correct for it in software. This is the single most important component of frequency drift.

The Local Temperatures are from field 3 from the tempstats log file.



Local Frequency/Temp

local freq temps plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Local Clock Frequency Offset -135.511 -81.763 14.831 18.802 22.331 25.498 135.754 7.500 107.261 14.081 16.739 ppm -6.712 47.91
Temp /dev/sda 17.000 18.000 18.000 23.000 25.000 26.000 31.000 7.000 8.000 2.156 23.227 °C
Temp LM0 26.000 31.000 32.000 33.000 35.000 39.000 51.000 3.000 8.000 1.683 33.398 °C
Temp LM1 29.000 30.000 36.000 38.000 39.000 40.000 46.000 3.000 10.000 1.594 37.478 °C
Temp LM2 0.000 0.000 0.000 19.000 19.000 34.000 45.000 19.000 34.000 5.573 18.188 °C
Temp LM3 26.000 28.000 28.000 30.000 32.000 38.000 44.000 4.000 10.000 1.983 29.901 °C
Temp LM4 0.000 0.000 31.000 40.000 46.000 48.000 55.000 15.000 48.000 7.974 38.447 °C
Temp LM5 26.000 28.000 28.000 30.000 31.000 34.000 44.000 3.000 6.000 1.471 29.734 °C
Temp LM6 28.000 30.000 30.000 32.000 33.000 37.000 50.000 3.000 7.000 1.623 32.026 °C
Temp LM7 31.000 32.000 33.000 34.000 36.000 39.000 51.000 3.000 7.000 1.596 34.137 °C
Temp LM8 26.800 32.000 33.000 35.000 37.000 39.000 51.000 4.000 7.000 1.566 34.623 °C
Temp LM9 26.800 32.000 33.000 35.000 37.000 39.000 51.000 4.000 7.000 1.566 34.622 °C
Temp ZONE0 20.000 20.000 20.000 20.000 20.000 20.000 20.000 0.000 0.000 0.000 20.000 °C
Temp ZONE1 26.800 31.000 32.000 33.000 35.000 39.000 51.000 3.000 8.000 1.640 33.363 °C
Temp ZONE2 26.000 28.000 28.000 30.000 31.000 34.000 44.000 3.000 6.000 1.471 29.734 °C
Temp ZONE3 29.000 31.000 32.000 33.000 35.000 39.000 51.000 3.000 8.000 1.637 33.374 °C
Temp ZONE4 26.800 31.000 32.000 33.000 35.000 39.000 51.000 3.000 8.000 1.640 33.363 °C
Temp ZONE5 30.000 31.000 32.000 40.000 46.000 48.000 56.000 14.000 17.000 4.041 39.542 °C
Temp ZONE6 26.000 28.000 28.000 30.000 31.000 34.000 44.000 3.000 6.000 1.332 29.649 °C

The frequency offsets and temperatures. Showing frequency offset (red, in parts per million, scale on right) and the temperatures.

These are field 4 (frequency) from the loopstats log file, and field 3 from the tempstats log file.



Local GPS

local gps plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
nSats 7.000 8.000 9.000 10.000 12.000 12.000 15.000 3.000 4.000 0.775 10.099 nSat 0.5093 8.075
TDOP 0.500 0.650 0.790 11.810 11.810 11.810 11.810 11.020 11.160 5.125 6.796 -0.08626 1.081

Local GPS. The Time Dilution of Precision (TDOP) is plotted in blue. The number of visible satellites (nSat) is plotted in red.

TDOP is field 3, and nSats is field 4, from the gpsd log file. The gpsd log file is created by the ntploggps program.

TDOP is a dimensionless error factor. Smaller numbers are better. TDOP ranges from 1 (ideal), 2 to 5 (good), to greater than 20 (poor). Some GNSS receivers report TDOP less than one which is theoretically impossible.



Server Offsets

peer offsets plot

The offset of all refclocks and servers. This can be useful to see if offset changes are happening in a single clock or all clocks together.

Clock Offset is field 5 in the peerstats log file.



Server Offset 104.152.220.5

peer offset 104.152.220.5 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 104.152.220.5 1.461 1.461 1.461 2.919 4.887 4.887 4.887 3.425 3.425 1.020 2.874 ms 0.6553 2.767

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 137.190.2.4

peer offset 137.190.2.4 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 137.190.2.4 -13.886 -13.886 -13.886 73.703 432.020 432.020 432.020 445.906 445.906 141.512 93.930 ms 1.772 4.593

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 139.84.137.244

peer offset 139.84.137.244 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 139.84.137.244 -88.151 -18.896 -1.976 8.174 12.866 16.588 23.798 14.843 35.484 6.651 6.780 ms -4.531 43.03

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 142.202.190.19

peer offset 142.202.190.19 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 142.202.190.19 -1.534 -1.534 -1.534 -0.105 3.194 3.194 3.194 4.728 4.728 1.551 0.472 ms 0.5977 2.146

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 144.202.41.38

peer offset 144.202.41.38 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 144.202.41.38 -8.294 -8.294 -8.294 4.829 12.556 12.556 12.556 20.850 20.850 6.900 3.360 ms -0.4744 2.271

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 144.202.62.209

peer offset 144.202.62.209 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 144.202.62.209 -2.931 -2.931 -1.517 0.876 6.180 36.327 36.327 7.696 39.258 5.627 1.903 ms 5.12 30.38

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 149.28.200.179

peer offset 149.28.200.179 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 149.28.200.179 -88.226 -88.226 -88.226 1.494 7.242 7.242 7.242 95.467 95.467 27.860 -9.157 ms -2.275 6.549

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 155.248.196.28

peer offset 155.248.196.28 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 155.248.196.28 -1.780 -1.780 -1.780 0.846 3.370 3.370 3.370 5.150 5.150 1.923 0.744 ms -0.00156 1.529

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 158.51.99.19

peer offset 158.51.99.19 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 158.51.99.19 -41.684 -41.684 -41.684 0.979 5.849 5.849 5.849 47.534 47.534 11.216 -2.520 ms -2.785 9.976

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 162.159.200.1

peer offset 162.159.200.1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 162.159.200.1 3.323 3.323 3.443 4.607 6.211 6.509 6.509 2.768 3.186 0.900 4.752 ms 0.4362 2.034

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 162.159.200.123

peer offset 162.159.200.123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 162.159.200.123 -5.100 -5.100 -5.100 1.237 6.077 6.077 6.077 11.177 11.177 3.557 1.232 ms -0.07915 1.709

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 166.88.142.52

peer offset 166.88.142.52 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 166.88.142.52 2.966 2.966 2.966 4.246 7.638 7.638 7.638 4.671 4.671 1.508 4.329 ms 1.273 3.521

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 171.66.97.126

peer offset 171.66.97.126 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 171.66.97.126 -6.853 -4.807 -2.037 0.794 3.175 6.263 130.236 5.213 11.070 8.752 1.224 ms 14.1 208

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 172.232.15.202

peer offset 172.232.15.202 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 172.232.15.202 0.710 0.710 0.710 4.702 38.555 38.555 38.555 37.846 37.846 15.838 13.311 ms 0.9197 1.889

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 172.233.153.85

peer offset 172.233.153.85 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 172.233.153.85 -9.447 -9.196 -7.932 -3.852 1.978 2.524 2.830 9.910 11.720 3.072 -3.587 ms 0.398 2.315

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 172.233.155.39

peer offset 172.233.155.39 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 172.233.155.39 -12.270 -12.270 -12.270 0.105 2.703 2.703 2.703 14.974 14.974 4.084 -1.625 ms -1.547 4.831

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 172.233.157.223

peer offset 172.233.157.223 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 172.233.157.223 6.078 6.078 6.078 10.698 725.734 725.734 725.734 719.656 719.656 210.967 132.036 ms 1.564 4.219

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 172.233.189.68

peer offset 172.233.189.68 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 172.233.189.68 8.111 8.111 8.111 8.731 10.099 10.099 10.099 1.988 1.988 0.780 9.065 ms 0.2333 1.349

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 172.234.25.10

peer offset 172.234.25.10 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 172.234.25.10 -0.488 -0.488 -0.488 0.948 5.051 5.051 5.051 5.539 5.539 1.848 1.545 ms 0.8338 2.298

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 173.249.203.227

peer offset 173.249.203.227 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 173.249.203.227 2.418 2.418 2.418 7.578 11.331 11.331 11.331 8.912 8.912 2.607 6.865 ms -0.2799 2.399

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 178.156.185.92

peer offset 178.156.185.92 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 178.156.185.92 -26.222 -8.831 -4.147 -0.703 5.776 8.694 15.799 9.923 17.525 3.089 -0.428 ms -0.01771 10.84

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 185.234.20.134

peer offset 185.234.20.134 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 185.234.20.134 50.716 50.716 50.716 55.709 57.416 57.416 57.416 6.700 6.700 2.613 53.750 ms 0.1118 1.265

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 192.48.105.15

peer offset 192.48.105.15 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 192.48.105.15 0.449 0.449 0.449 3.200 7.335 7.335 7.335 6.885 6.885 1.829 3.297 ms 0.5249 2.601

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 194.0.5.123

peer offset 194.0.5.123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 194.0.5.123 -26.524 -5.524 -3.127 0.453 3.676 5.839 37.622 6.802 11.362 2.403 0.436 ms 0.8841 23.44

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 198.137.202.56

peer offset 198.137.202.56 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 198.137.202.56 -103.866 -21.653 -2.740 1.923 5.555 19.512 34.211 8.295 41.165 9.884 1.348 ms -6.984 69.65

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 20.55.26.153

peer offset 20.55.26.153 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 20.55.26.153 -90.128 -90.128 -90.128 0.419 4.026 4.026 4.026 94.154 94.154 29.373 -11.273 ms -2.13 5.815

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2001:1600:13:101::16b7 (ov-eaae4e.infomaniak.ch)

peer offset 2001:1600:13:101::16b7 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2001:1600:13:101::16b7 (ov-eaae4e.infomaniak.ch) -48.803 -25.492 -13.939 -1.873 9.982 15.177 36.277 23.921 40.669 7.350 -1.722 ms -1.042 9.167

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2001:41d0:303:65e9::1 (matthaeus.julia0815.de)

peer offset 2001:41d0:303:65e9::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2001:41d0:303:65e9::1 (matthaeus.julia0815.de) -150.721 -116.304 -14.598 3.013 11.624 159.827 305.196 26.222 276.131 26.191 2.233 ms 3.209 53

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2001:470:a:b4::2 (dell-2018.jamesb912.com.)

peer offset 2001:470:a:b4::2 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2001:470:a:b4::2 (dell-2018.jamesb912.com.) -4.391 -4.391 -4.391 -4.391 -4.391 -4.391 -4.391 0.000 0.000 0.000 -4.391 ms nan nan

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2001:678:8::123 (any.time.nl)

peer offset 2001:678:8::123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2001:678:8::123 (any.time.nl) -421.375 -23.078 -11.859 -6.575 -3.251 -0.150 589.234 8.607 22.927 8.794 -7.106 ms 20.66 2760

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 216.250.115.174

peer offset 216.250.115.174 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 216.250.115.174 -11.971 -11.971 -11.971 -5.891 28.323 28.323 28.323 40.294 40.294 16.772 2.897 ms 0.6802 1.539

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 23.142.248.9

peer offset 23.142.248.9 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 23.142.248.9 -2.218 -2.218 -2.218 6.811 8.228 8.228 8.228 10.447 10.447 3.245 5.207 ms -1.191 3.303

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 23.186.168.128

peer offset 23.186.168.128 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 23.186.168.128 -6.268 -6.268 -6.268 -2.041 1.676 1.676 1.676 7.944 7.944 2.335 -1.348 ms -0.4703 2.407

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 23.186.168.129

peer offset 23.186.168.129 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 23.186.168.129 -94.054 -94.054 -93.816 -1.533 282.002 423.814 423.814 375.818 517.868 98.476 27.243 ms 2.628 10.44

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 23.186.168.130

peer offset 23.186.168.130 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 23.186.168.130 -5.129 -5.129 -5.129 -3.084 -1.667 -1.667 -1.667 3.462 3.462 1.214 -3.305 ms -0.01898 1.693

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 23.186.168.132

peer offset 23.186.168.132 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 23.186.168.132 -9.048 -8.170 -7.030 -3.318 -1.756 -0.801 -0.358 5.274 7.370 1.536 -3.601 ms -1.052 4.19

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 23.95.35.34

peer offset 23.95.35.34 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 23.95.35.34 -6.057 -4.131 -3.087 1.824 4.864 5.995 6.318 7.951 10.125 2.424 1.457 ms -0.443 2.644

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2401:c080:3000:2945:5400:4ff:fe69:f923 (ntpd-rs.sidnlabs.nl)

peer offset 2401:c080:3000:2945:5400:4ff:fe69:f923 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2401:c080:3000:2945:5400:4ff:fe69:f923 (ntpd-rs.sidnlabs.nl) -78.463 -36.395 -20.979 -11.546 -3.410 27.956 685.845 17.569 64.351 13.179 -11.475 ms 30.75 1614

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2402:1f00:8101:d6::1

peer offset 2402:1f00:8101:d6::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2402:1f00:8101:d6::1 -36.205 -6.436 12.070 35.428 47.477 49.168 69.786 35.407 55.604 12.669 33.985 ms -1.139 5.04

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 240b:4004:108:200:8314:1a08:4cee:26d8

peer offset 240b:4004:108:200:8314:1a08:4cee:26d8 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 240b:4004:108:200:8314:1a08:4cee:26d8 -10.660 -10.660 -10.660 43.285 425.724 425.724 425.724 436.384 436.384 138.204 79.002 ms 2.004 5.293

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2600:1702:80c0:9a80:1ee4:b0a2:44bc:c606

peer offset 2600:1702:80c0:9a80:1ee4:b0a2:44bc:c606 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2600:1702:80c0:9a80:1ee4:b0a2:44bc:c606 7.543 7.543 7.543 43.369 48.456 48.456 48.456 40.913 40.913 18.767 27.247 ms 0.02285 1.042

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2600:1900:4060:2e7:: (0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.7.e.2.0.0.6.0.4.0.0.9.1.0.0.6.2.bc.googleusercontent.com)

peer offset 2600:1900:4060:2e7:: plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2600:1900:4060:2e7:: (0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.7.e.2.0.0.6.0.4.0.0.9.1.0.0.6.2.bc.googleusercontent.com) -90.591 -30.497 -16.610 2.198 7.128 11.479 312.713 23.738 41.976 8.531 0.406 ms 1.915 169.9

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2600:1f13:eda:9800:bcd8:839c:9b40:25b2 (oregon.time.system76.com)

peer offset 2600:1f13:eda:9800:bcd8:839c:9b40:25b2 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2600:1f13:eda:9800:bcd8:839c:9b40:25b2 (oregon.time.system76.com) -29.237 -10.383 -7.402 -2.442 0.803 9.969 88.482 8.206 20.352 7.964 -2.327 ms 8.335 88.12

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2600:1f16:42a:1d00:2169:fe07:2acc:6002 (ohio.time.system76.com)

peer offset 2600:1f16:42a:1d00:2169:fe07:2acc:6002 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2600:1f16:42a:1d00:2169:fe07:2acc:6002 (ohio.time.system76.com) -22.318 -7.760 -5.409 -0.196 3.698 76.249 422.200 9.107 84.009 20.555 0.910 ms 17.17 341.7

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2600:1f18:4c51:e200:e142:210a:306d:4872 (virginia.time.system76.com)

peer offset 2600:1f18:4c51:e200:e142:210a:306d:4872 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2600:1f18:4c51:e200:e142:210a:306d:4872 (virginia.time.system76.com) -24.869 -5.845 -5.047 -0.218 4.118 72.210 415.823 9.165 78.055 20.319 1.037 ms 17.18 341.3

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2600:1f18:7927:8b00:123::

peer offset 2600:1f18:7927:8b00:123:: plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2600:1f18:7927:8b00:123:: 4.710 4.710 4.710 6.720 8.399 8.399 8.399 3.689 3.689 1.160 6.461 ms 0.06963 2.058

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2600:3c01::f03c:93ff:fedd:5a1f (sensei.ruselabs.com)

peer offset 2600:3c01::f03c:93ff:fedd:5a1f plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2600:3c01::f03c:93ff:fedd:5a1f (sensei.ruselabs.com) -16.936 -16.936 -5.885 2.642 423.840 424.816 424.816 429.725 441.752 116.114 50.434 ms 2.724 8.986

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2600:3c01:e000:7e6::123 (time1.sigi.net)

peer offset 2600:3c01:e000:7e6::123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2600:3c01:e000:7e6::123 (time1.sigi.net) -0.759 -0.759 -0.759 2.211 3.558 3.558 3.558 4.317 4.317 1.267 1.976 ms -1.099 3.486

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2600:3c03::f03c:91ff:fedf:1e98 (li1.forfun.net)

peer offset 2600:3c03::f03c:91ff:fedf:1e98 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2600:3c03::f03c:91ff:fedf:1e98 (li1.forfun.net) -24.915 -24.915 -24.915 67.309 423.497 423.497 423.497 448.412 448.412 136.652 85.591 ms 1.84 4.92

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2602:81b:9000::c10c (time.sea.ordinaladvisors.com)

peer offset 2602:81b:9000::c10c plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2602:81b:9000::c10c (time.sea.ordinaladvisors.com) 0.258 0.258 0.258 0.748 3.016 3.016 3.016 2.759 2.759 1.122 1.099 ms 1.068 2.259

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2602:f9ba:69::210 (as393746.mci.trtnw.net)

peer offset 2602:f9ba:69::210 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2602:f9ba:69::210 (as393746.mci.trtnw.net) -12.175 -1.360 4.707 9.585 16.789 20.179 20.349 12.082 21.539 4.146 9.944 ms -0.6706 8.562

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2602:fb95:16::123 (time5.sigi.net)

peer offset 2602:fb95:16::123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2602:fb95:16::123 (time5.sigi.net) -3.415 -3.415 -3.415 2.197 8.657 8.657 8.657 12.072 12.072 3.322 1.725 ms 0.2884 2.931

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2603:c020:0:8369:1111:1111:1111:1112

peer offset 2603:c020:0:8369:1111:1111:1111:1112 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2603:c020:0:8369:1111:1111:1111:1112 -11.664 -11.664 -11.664 -8.482 -7.286 -7.286 -7.286 4.378 4.378 1.355 -9.125 ms -0.3654 2.089

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2604:a880:800:10::70f:b001 (ellone.fdisk.io)

peer offset 2604:a880:800:10::70f:b001 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2604:a880:800:10::70f:b001 (ellone.fdisk.io) 3.373 3.373 3.373 8.241 9.581 9.581 9.581 6.208 6.208 1.791 7.376 ms -0.8255 2.41

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2604:a880:800:a1::ec9:5001

peer offset 2604:a880:800:a1::ec9:5001 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2604:a880:800:a1::ec9:5001 1.454 1.454 1.454 2.130 41.342 41.342 41.342 39.888 39.888 17.753 14.313 ms 0.7198 1.537

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2604:d200::39 (white.web-ster.com)

peer offset 2604:d200::39 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2604:d200::39 (white.web-ster.com) -6.544 -6.544 -4.662 -2.901 28.557 30.956 30.956 33.219 37.499 9.313 0.132 ms 2.757 9.021

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2605:4840:3:fb19::1 (chi3.us.ntp.li)

peer offset 2605:4840:3:fb19::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2605:4840:3:fb19::1 (chi3.us.ntp.li) -3.852 -3.852 -3.852 -0.420 1.987 1.987 1.987 5.839 5.839 2.396 -0.762 ms -0.2111 1.5

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2606:4700:f1::1 (time.cloudflare.com)

peer offset 2606:4700:f1::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2606:4700:f1::1 (time.cloudflare.com) -8.737 -7.847 -6.355 -2.103 1.474 4.049 4.264 7.830 11.896 2.503 -2.270 ms 0.0206 2.559

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2606:4700:f1::123 (time.cloudflare.com)

peer offset 2606:4700:f1::123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2606:4700:f1::123 (time.cloudflare.com) -30.959 -6.562 -4.330 0.696 4.128 422.188 429.230 8.458 428.750 53.992 7.995 ms 7.283 55.81

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2606:82c0:21::e (time1.lshiy.com)

peer offset 2606:82c0:21::e plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2606:82c0:21::e (time1.lshiy.com) -0.347 -0.347 -0.347 2.470 5.026 5.026 5.026 5.373 5.373 1.632 2.157 ms 0.07044 2.391

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2606:82c0:23::e (time3.lshiy.com)

peer offset 2606:82c0:23::e plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2606:82c0:23::e (time3.lshiy.com) 3.326 3.326 3.326 6.393 12.029 12.029 12.029 8.703 8.703 2.538 6.506 ms 0.7605 3.014

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2607:9000:7000:23:216:3cff:fe25:38d7

peer offset 2607:9000:7000:23:216:3cff:fe25:38d7 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2607:9000:7000:23:216:3cff:fe25:38d7 -7.438 -7.438 -7.438 -3.494 6.995 6.995 6.995 14.433 14.433 4.803 -1.951 ms 0.9793 2.753

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2607:9d00:2000:16::9269:208a

peer offset 2607:9d00:2000:16::9269:208a plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2607:9d00:2000:16::9269:208a 0.027 0.027 0.027 5.284 11.274 11.274 11.274 11.247 11.247 2.686 4.628 ms 0.4076 3.306

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2607:f1c0:f06b:5000::3 (ntp11.kernfusion.at)

peer offset 2607:f1c0:f06b:5000::3 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2607:f1c0:f06b:5000::3 (ntp11.kernfusion.at) 3.424 3.424 3.424 38.118 40.761 40.761 40.761 37.337 37.337 17.372 22.120 ms -0.000718 1.024

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2607:f1c0:f075:9900::1

peer offset 2607:f1c0:f075:9900::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2607:f1c0:f075:9900::1 -11.364 -11.364 -11.364 62.462 429.472 429.472 429.472 440.836 440.836 142.546 88.428 ms 1.844 4.744

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2607:f710:35::29c:0:5

peer offset 2607:f710:35::29c:0:5 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2607:f710:35::29c:0:5 1.230 1.230 1.230 6.637 13.998 13.998 13.998 12.768 12.768 3.502 7.121 ms 0.34 2.688

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2a00:d78:0:712:94:198:159:11 (nts1.time.nl)

peer offset 2a00:d78:0:712:94:198:159:11 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2a00:d78:0:712:94:198:159:11 (nts1.time.nl) -573.994 -18.134 -6.806 2.327 5.873 12.780 70.769 12.679 30.914 9.821 1.171 ms -30.68 1529

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2a01:3f7:2:44::8 (sth1-ts.nts.netnod.se)

peer offset 2a01:3f7:2:44::8 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2a01:3f7:2:44::8 (sth1-ts.nts.netnod.se) -40.961 -27.453 -12.580 -2.340 3.925 10.923 425.774 16.505 38.376 27.274 -0.948 ms 14.21 219.5

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2a01:4f8:c012:1afb:123:123:123:123 (tock.telnet.li)

peer offset 2a01:4f8:c012:1afb:123:123:123:123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2a01:4f8:c012:1afb:123:123:123:123 (tock.telnet.li) -662.197 -43.394 -29.960 -14.733 -7.976 -0.161 153.523 21.984 43.233 17.808 -15.749 ms -19.9 818.3

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2a01:4f9:c013:fa27:123:123:123:123

peer offset 2a01:4f9:c013:fa27:123:123:123:123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2a01:4f9:c013:fa27:123:123:123:123 -74.656 -29.575 -9.456 1.270 5.487 10.806 152.944 14.943 40.381 9.896 0.343 ms 5.416 117.1

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2a01:4ff:f0:7300:123:123:123:123

peer offset 2a01:4ff:f0:7300:123:123:123:123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2a01:4ff:f0:7300:123:123:123:123 -118.920 -12.890 -6.246 -2.163 1.265 5.208 288.663 7.511 18.098 9.301 -2.445 ms 12.21 561.8

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2a01:7e04::f03c:94ff:fee2:cba5

peer offset 2a01:7e04::f03c:94ff:fee2:cba5 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2a01:7e04::f03c:94ff:fee2:cba5 -26.406 -26.406 -26.406 2.333 5.249 5.249 5.249 31.655 31.655 7.170 0.454 ms -3.228 12.34

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 2a0a:e5c0:2:2:0:c8ff:fe68:beb7 (2a0a-e5c0-2-2-0-c8ff-fe68-beb7.loves.ipv6.at.ungleich.ch)

peer offset 2a0a:e5c0:2:2:0:c8ff:fe68:beb7 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 2a0a:e5c0:2:2:0:c8ff:fe68:beb7 (2a0a-e5c0-2-2-0-c8ff-fe68-beb7.loves.ipv6.at.ungleich.ch) -15.575 -4.284 -0.922 1.204 3.169 4.150 7.004 4.091 8.434 1.710 1.146 ms -3.21 29.58

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 34.147.28.4

peer offset 34.147.28.4 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 34.147.28.4 -33.036 -14.610 -6.461 -1.698 1.628 5.064 13.648 8.089 19.674 3.238 -2.041 ms -2.728 21

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 37.27.11.4

peer offset 37.27.11.4 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 37.27.11.4 -51.314 -10.261 -2.384 0.947 3.098 4.523 4.544 5.482 14.784 4.805 0.292 ms -9.244 98.81

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 44.190.5.123

peer offset 44.190.5.123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 44.190.5.123 -3.852 -3.741 -2.770 0.569 2.264 3.218 3.924 5.033 6.958 1.460 0.350 ms -0.833 3.654

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 45.33.53.84

peer offset 45.33.53.84 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 45.33.53.84 -1.368 -1.368 -1.281 3.720 5.707 6.732 6.732 6.988 8.101 1.980 3.475 ms -0.9176 3.305

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 45.63.54.13

peer offset 45.63.54.13 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 45.63.54.13 -3.611 -3.611 -3.611 3.279 5.849 5.849 5.849 9.461 9.461 2.672 2.213 ms -0.5509 2.573

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 45.77.126.122

peer offset 45.77.126.122 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 45.77.126.122 0.280 0.280 0.280 4.312 5.554 5.554 5.554 5.273 5.273 1.572 3.685 ms -0.6575 2.314

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 50.205.57.38

peer offset 50.205.57.38 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 50.205.57.38 -18.950 -18.950 -0.288 5.249 8.633 18.417 18.417 8.921 37.367 5.890 4.328 ms -1.998 11.57

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 51.38.58.233

peer offset 51.38.58.233 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 51.38.58.233 -9.884 -9.426 -5.732 1.681 3.951 4.658 5.143 9.683 14.084 3.080 0.771 ms -1.604 5.182

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 66.118.231.14

peer offset 66.118.231.14 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 66.118.231.14 -0.952 -0.952 -0.952 0.349 4.672 4.672 4.672 5.623 5.623 1.689 0.982 ms 1.225 3.534

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 67.217.246.204

peer offset 67.217.246.204 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 67.217.246.204 -28.602 -28.602 -27.136 -6.291 419.228 423.145 423.145 446.365 451.748 124.093 36.766 ms 2.646 8.401

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 69.172.133.130

peer offset 69.172.133.130 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 69.172.133.130 -90.322 -90.322 -90.322 -0.456 5.333 5.333 5.333 95.655 95.655 30.376 -13.340 ms -1.942 5.071

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 69.89.207.199

peer offset 69.89.207.199 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 69.89.207.199 -11.403 -11.403 -11.403 44.730 425.249 425.249 425.249 436.653 436.653 139.058 78.387 ms 1.964 5.196

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 73.185.182.209

peer offset 73.185.182.209 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 73.185.182.209 -4.760 -4.760 -4.760 -1.354 4.207 4.207 4.207 8.967 8.967 3.195 -0.989 ms 0.4642 1.761

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 77.37.97.124

peer offset 77.37.97.124 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 77.37.97.124 -93.402 -23.673 -4.883 8.780 13.074 17.416 35.796 17.957 41.089 8.134 7.088 ms -5.421 50.68

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 77.42.37.85

peer offset 77.42.37.85 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 77.42.37.85 -88.107 -36.089 -7.938 1.616 4.984 9.122 17.475 12.922 45.211 7.462 0.463 ms -6.436 56.55

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 79.160.225.13

peer offset 79.160.225.13 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 79.160.225.13 -59.926 -17.704 -5.832 -1.917 0.752 2.878 11.556 6.584 20.582 4.049 -2.367 ms -7.389 83.12

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 94.198.159.11

peer offset 94.198.159.11 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 94.198.159.11 7.026 7.026 7.026 9.843 9.843 9.843 9.843 2.818 2.818 1.409 8.435 ms 0 1

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset 96.19.94.82

peer offset 96.19.94.82 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset 96.19.94.82 -0.647 -0.647 -0.647 3.866 6.473 6.473 6.473 7.120 7.120 2.149 3.382 ms -0.4244 2.121

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset SHM(0)

peer offset SHM(0) plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset SHM(0) -865.294 -180.263 -160.833 -153.575 -123.619 -118.997 1,345.558 37.214 61.266 15.344 -150.901 ms 31.42 2728

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset SHM(1)

peer offset SHM(1) plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset SHM(1) -741.259 -8.344 -6.590 -4.658 -2.360 -0.303 1,996.886 4.230 8.041 12.774 -4.416 ms 106.5 1.442e+04

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset SHM(2)

peer offset SHM(2) plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset SHM(2) -192.688 -176.561 -167.485 -148.738 -137.592 -134.054 1,940.513 29.893 42.507 25.556 -149.497 ms 69.96 5594

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Offset SHM(3)

peer offset SHM(3) plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Offset SHM(3) -13.801 -8.533 -8.032 -5.126 -4.043 -3.509 2,061.810 3.989 5.024 23.660 -4.971 ms 85.08 7257

The offset of a server in seconds. This is useful to see how the measured offset is behaving.

The chart also plots offset±rtt, where rtt is the round trip time to the server. NTP can not really know the offset of a remote chimer, NTP computes it by subtracting rtt/2 from the offset. Plotting the offset±rtt reverses this calculation to more easily see the effects of rtt changes.

Closer to 0s is better. An ideal system would be a horizontal line at 0s. Typical 90% ranges may be: local LAN server 80µs; 90% ranges for WAN server may be 4ms and much larger.

Clock Offset is field 5 in the peerstats log file. The Round Trip Time (rtt) is field 6 in the peerstats log file.



Server Jitters

peer jitters plot

The RMS Jitter of all refclocks and servers. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 104.152.220.5

peer jitter 104.152.220.5 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 104.152.220.5 0.000 0.000 0.000 0.888 2.438 2.438 2.438 2.438 2.438 0.710 1.068 ms 0.5336 2.756

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 137.190.2.4

peer jitter 137.190.2.4 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 137.190.2.4 0.000 0.000 0.000 8.346 83.883 83.883 83.883 83.883 83.883 25.677 16.869 ms 1.958 5.07

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 139.84.137.244

peer jitter 139.84.137.244 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 139.84.137.244 0.000 1.498 3.474 24.787 66.618 81.767 171.675 63.144 80.269 20.653 28.445 ms 1.093 5.724

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 142.202.190.19

peer jitter 142.202.190.19 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 142.202.190.19 0.000 0.000 0.000 1.458 4.786 4.786 4.786 4.786 4.786 1.662 1.999 ms 0.632 1.823

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 144.202.41.38

peer jitter 144.202.41.38 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 144.202.41.38 0.000 0.000 0.000 6.779 14.889 14.889 14.889 14.889 14.889 5.989 6.622 ms 0.08954 1.408

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 144.202.62.209

peer jitter 144.202.62.209 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 144.202.62.209 0.000 0.000 0.957 2.633 7.857 35.452 35.452 6.900 35.452 4.582 3.718 ms 5.102 32.94

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 149.28.200.179

peer jitter 149.28.200.179 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 149.28.200.179 0.000 0.000 0.000 2.339 74.406 74.406 74.406 74.406 74.406 23.353 12.250 ms 1.907 4.787

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 155.248.196.28

peer jitter 155.248.196.28 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 155.248.196.28 0.000 0.000 0.000 1.850 4.992 4.992 4.992 4.992 4.992 1.436 2.037 ms 0.7956 3.18

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 158.51.99.19

peer jitter 158.51.99.19 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 158.51.99.19 0.000 0.000 0.000 2.350 45.058 45.058 45.058 45.058 45.058 11.437 6.580 ms 2.59 8.731

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 162.159.200.1

peer jitter 162.159.200.1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 162.159.200.1 0.000 0.000 0.000 2.623 4.724 6.374 6.374 4.724 6.374 1.502 2.737 ms 0.2599 2.67

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 162.159.200.123

peer jitter 162.159.200.123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 162.159.200.123 0.000 0.000 0.000 2.976 6.497 6.497 6.497 6.497 6.497 2.084 2.907 ms 0.2762 1.891

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 166.88.142.52

peer jitter 166.88.142.52 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 166.88.142.52 0.000 0.000 0.000 1.075 3.927 3.927 3.927 3.927 3.927 1.133 1.349 ms 1.419 4.128

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 171.66.97.126

peer jitter 171.66.97.126 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 171.66.97.126 0.000 0.000 0.965 2.691 15.483 22.978 126.152 14.519 22.978 10.655 4.757 ms 8.933 92.99

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 172.232.15.202

peer jitter 172.232.15.202 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 172.232.15.202 0.000 0.000 0.000 3.215 33.540 33.540 33.540 33.540 33.540 13.913 13.115 ms 0.3783 1.284

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 172.233.153.85

peer jitter 172.233.153.85 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 172.233.153.85 0.000 0.000 1.067 4.764 14.089 23.765 302.556 13.022 23.765 29.458 8.479 ms 9.659 96.43

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 172.233.155.39

peer jitter 172.233.155.39 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 172.233.155.39 0.000 0.000 0.000 2.970 8.748 8.748 8.748 8.748 8.748 3.078 3.510 ms 0.3164 1.656

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 172.233.157.223

peer jitter 172.233.157.223 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 172.233.157.223 0.000 0.000 0.000 3.309 477.649 477.649 477.649 477.649 477.649 136.857 94.670 ms 1.361 3.969

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 172.233.189.68

peer jitter 172.233.189.68 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 172.233.189.68 0.000 0.000 0.000 1.536 21.515 21.515 21.515 21.515 21.515 9.868 9.010 ms 0.4016 1.177

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 172.234.25.10

peer jitter 172.234.25.10 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 172.234.25.10 0.000 0.000 0.000 1.017 4.280 4.280 4.280 4.280 4.280 1.424 1.561 ms 0.8819 2.346

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 173.249.203.227

peer jitter 173.249.203.227 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 173.249.203.227 0.000 0.000 0.000 2.338 5.843 5.843 5.843 5.843 5.843 1.587 2.822 ms 0.3165 2.627

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 178.156.185.92

peer jitter 178.156.185.92 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 178.156.185.92 0.000 0.657 1.198 6.232 36.386 60.264 69.113 35.188 59.607 11.634 10.482 ms 2.26 9.133

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 185.234.20.134

peer jitter 185.234.20.134 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 185.234.20.134 0.000 0.000 0.000 1.341 4.572 4.572 4.572 4.572 4.572 1.573 1.351 ms 1.195 3.124

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 192.48.105.15

peer jitter 192.48.105.15 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 192.48.105.15 0.000 0.000 0.000 1.815 13.786 13.786 13.786 13.786 13.786 3.333 2.570 ms 2.497 8.699

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 194.0.5.123

peer jitter 194.0.5.123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 194.0.5.123 0.000 0.761 1.105 3.158 11.601 21.666 201.946 10.496 20.906 8.322 4.608 ms 15.45 309.5

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 198.137.202.56

peer jitter 198.137.202.56 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 198.137.202.56 0.000 0.801 1.150 3.562 15.846 55.108 92.279 14.697 54.306 8.233 5.389 ms 6.801 59.7

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 20.55.26.153

peer jitter 20.55.26.153 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 20.55.26.153 0.000 0.000 0.000 6.632 74.079 74.079 74.079 74.079 74.079 25.471 19.985 ms 1.005 2.423

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2001:1600:13:101::16b7 (ov-eaae4e.infomaniak.ch)

peer jitter 2001:1600:13:101::16b7 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2001:1600:13:101::16b7 (ov-eaae4e.infomaniak.ch) 0.000 6.381 8.865 27.341 63.554 76.237 194.366 54.689 69.856 19.414 30.805 ms 1.848 13

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2001:41d0:303:65e9::1 (matthaeus.julia0815.de)

peer jitter 2001:41d0:303:65e9::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2001:41d0:303:65e9::1 (matthaeus.julia0815.de) 0.000 1.638 5.026 24.360 63.536 94.275 441.235 58.511 92.637 27.238 29.563 ms 7.074 97.1

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2001:470:a:b4::2 (dell-2018.jamesb912.com.)

peer jitter 2001:470:a:b4::2 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2001:470:a:b4::2 (dell-2018.jamesb912.com.) 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 ns nan nan

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2001:678:8::123 (any.time.nl)

peer jitter 2001:678:8::123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2001:678:8::123 (any.time.nl) 0.000 1.336 2.466 22.769 84.523 104.133 240.582 82.057 102.797 26.853 31.178 ms 0.982 3.468

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 216.250.115.174

peer jitter 216.250.115.174 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 216.250.115.174 0.000 0.000 0.000 22.373 24.069 24.069 24.069 24.069 24.069 10.893 12.372 ms -0.02677 1.049

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 23.142.248.9

peer jitter 23.142.248.9 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 23.142.248.9 0.000 0.000 0.000 1.138 5.220 5.220 5.220 5.220 5.220 1.786 2.215 ms 0.5987 1.784

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 23.186.168.128

peer jitter 23.186.168.128 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 23.186.168.128 0.000 0.000 0.000 2.030 4.367 4.367 4.367 4.367 4.367 1.236 2.254 ms 0.1072 2.316

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 23.186.168.129

peer jitter 23.186.168.129 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 23.186.168.129 0.000 0.000 0.000 8.216 200.544 281.407 281.407 200.544 281.407 68.498 44.257 ms 1.915 6.18

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 23.186.168.130

peer jitter 23.186.168.130 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 23.186.168.130 0.000 0.000 0.000 3.949 8.358 8.358 8.358 8.358 8.358 3.003 4.343 ms 0.1799 1.702

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 23.186.168.132

peer jitter 23.186.168.132 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 23.186.168.132 0.000 0.768 1.232 3.180 8.166 19.139 28.348 6.934 18.371 3.378 3.859 ms 4.121 25.48

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 23.95.35.34

peer jitter 23.95.35.34 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 23.95.35.34 0.000 0.862 1.318 3.648 19.723 31.306 39.459 18.405 30.444 6.050 5.393 ms 2.987 12.6

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2401:c080:3000:2945:5400:4ff:fe69:f923 (ntpd-rs.sidnlabs.nl)

peer jitter 2401:c080:3000:2945:5400:4ff:fe69:f923 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2401:c080:3000:2945:5400:4ff:fe69:f923 (ntpd-rs.sidnlabs.nl) 0.000 1.826 4.716 29.461 72.915 89.395 159.685 68.200 87.569 21.838 33.133 ms 0.7116 3.169

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2402:1f00:8101:d6::1

peer jitter 2402:1f00:8101:d6::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2402:1f00:8101:d6::1 0.000 1.122 1.876 18.931 65.466 79.704 169.795 63.590 78.581 21.450 25.074 ms 1.025 4.123

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 240b:4004:108:200:8314:1a08:4cee:26d8

peer jitter 240b:4004:108:200:8314:1a08:4cee:26d8 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 240b:4004:108:200:8314:1a08:4cee:26d8 0.000 0.000 0.000 5.900 52.232 52.232 52.232 52.232 52.232 17.801 14.966 ms 1.057 2.48

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2600:1702:80c0:9a80:1ee4:b0a2:44bc:c606

peer jitter 2600:1702:80c0:9a80:1ee4:b0a2:44bc:c606 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2600:1702:80c0:9a80:1ee4:b0a2:44bc:c606 0.000 0.000 0.000 5.087 22.009 22.009 22.009 22.009 22.009 8.471 7.694 ms 0.9852 2.224

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2600:1900:4060:2e7:: (0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.7.e.2.0.0.6.0.4.0.0.9.1.0.0.6.2.bc.googleusercontent.com)

peer jitter 2600:1900:4060:2e7:: plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2600:1900:4060:2e7:: (0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.7.e.2.0.0.6.0.4.0.0.9.1.0.0.6.2.bc.googleusercontent.com) 0.000 1.432 2.735 23.981 80.125 100.086 260.324 77.390 98.655 25.098 30.934 ms 1.012 4.009

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2600:1f13:eda:9800:bcd8:839c:9b40:25b2 (oregon.time.system76.com)

peer jitter 2600:1f13:eda:9800:bcd8:839c:9b40:25b2 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2600:1f13:eda:9800:bcd8:839c:9b40:25b2 (oregon.time.system76.com) 0.000 0.713 1.180 3.338 17.173 55.177 85.349 15.993 54.464 8.613 5.483 ms 5.983 46.08

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2600:1f16:42a:1d00:2169:fe07:2acc:6002 (ohio.time.system76.com)

peer jitter 2600:1f16:42a:1d00:2169:fe07:2acc:6002 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2600:1f16:42a:1d00:2169:fe07:2acc:6002 (ohio.time.system76.com) 0.000 0.636 1.096 3.534 28.324 45.838 93.199 27.228 45.202 10.208 6.973 ms 4.157 26.72

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2600:1f18:4c51:e200:e142:210a:306d:4872 (virginia.time.system76.com)

peer jitter 2600:1f18:4c51:e200:e142:210a:306d:4872 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2600:1f18:4c51:e200:e142:210a:306d:4872 (virginia.time.system76.com) 0.000 0.705 1.144 6.083 31.262 47.958 93.682 30.118 47.253 11.110 10.212 ms 2.52 13.18

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2600:1f18:7927:8b00:123::

peer jitter 2600:1f18:7927:8b00:123:: plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2600:1f18:7927:8b00:123:: 0.000 0.000 0.000 0.873 2.440 2.440 2.440 2.440 2.440 0.788 1.166 ms 0.2839 1.935

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2600:3c01::f03c:93ff:fedd:5a1f (sensei.ruselabs.com)

peer jitter 2600:3c01::f03c:93ff:fedd:5a1f plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2600:3c01::f03c:93ff:fedd:5a1f (sensei.ruselabs.com) 0.000 0.000 0.000 7.022 69.185 74.278 74.278 69.185 74.278 19.927 15.358 ms 1.999 5.824

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2600:3c01:e000:7e6::123 (time1.sigi.net)

peer jitter 2600:3c01:e000:7e6::123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2600:3c01:e000:7e6::123 (time1.sigi.net) 0.000 0.000 0.000 1.694 2.687 2.687 2.687 2.687 2.687 0.793 1.697 ms -1.027 3.417

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2600:3c03::f03c:91ff:fedf:1e98 (li1.forfun.net)

peer jitter 2600:3c03::f03c:91ff:fedf:1e98 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2600:3c03::f03c:91ff:fedf:1e98 (li1.forfun.net) 0.000 0.000 0.000 11.029 94.476 94.476 94.476 94.476 94.476 27.639 20.489 ms 1.645 4.285

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2602:81b:9000::c10c (time.sea.ordinaladvisors.com)

peer jitter 2602:81b:9000::c10c plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2602:81b:9000::c10c (time.sea.ordinaladvisors.com) 0.000 0.000 0.000 3.089 3.092 3.092 3.092 3.092 3.092 1.306 2.255 ms -1.134 2.316

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2602:f9ba:69::210 (as393746.mci.trtnw.net)

peer jitter 2602:f9ba:69::210 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2602:f9ba:69::210 (as393746.mci.trtnw.net) 0.000 1.432 1.745 11.133 68.106 87.579 97.607 66.361 86.148 21.760 20.073 ms 1.557 4.724

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2602:fb95:16::123 (time5.sigi.net)

peer jitter 2602:fb95:16::123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2602:fb95:16::123 (time5.sigi.net) 0.000 0.000 0.000 2.945 6.744 6.744 6.744 6.744 6.744 1.680 2.843 ms 0.7474 3.802

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2603:c020:0:8369:1111:1111:1111:1112

peer jitter 2603:c020:0:8369:1111:1111:1111:1112 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2603:c020:0:8369:1111:1111:1111:1112 0.000 0.000 0.000 1.518 3.421 3.421 3.421 3.421 3.421 0.908 1.660 ms 0.2694 2.794

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2604:a880:800:10::70f:b001 (ellone.fdisk.io)

peer jitter 2604:a880:800:10::70f:b001 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2604:a880:800:10::70f:b001 (ellone.fdisk.io) 0.000 0.000 0.000 1.765 3.857 3.857 3.857 3.857 3.857 1.036 1.790 ms 0.1052 2.65

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2604:a880:800:a1::ec9:5001

peer jitter 2604:a880:800:a1::ec9:5001 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2604:a880:800:a1::ec9:5001 0.000 0.000 0.000 15.187 37.963 37.963 37.963 37.963 37.963 14.488 15.172 ms 0.4919 1.578

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2604:d200::39 (white.web-ster.com)

peer jitter 2604:d200::39 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2604:d200::39 (white.web-ster.com) 0.000 0.000 0.000 1.801 12.238 25.815 25.815 12.238 25.815 5.414 3.117 ms 3.361 13.81

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2605:4840:3:fb19::1 (chi3.us.ntp.li)

peer jitter 2605:4840:3:fb19::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2605:4840:3:fb19::1 (chi3.us.ntp.li) 0.000 0.000 0.000 3.562 6.209 6.209 6.209 6.209 6.209 2.544 3.257 ms -0.178 1.5

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2606:4700:f1::1 (time.cloudflare.com)

peer jitter 2606:4700:f1::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2606:4700:f1::1 (time.cloudflare.com) 0.775 0.816 1.134 3.575 16.135 26.887 42.994 15.001 26.072 5.293 5.341 ms 2.938 15.25

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2606:4700:f1::123 (time.cloudflare.com)

peer jitter 2606:4700:f1::123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2606:4700:f1::123 (time.cloudflare.com) 0.000 0.844 1.037 3.587 15.847 37.671 98.046 14.810 36.826 8.577 5.539 ms 7.255 69.41

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2606:82c0:21::e (time1.lshiy.com)

peer jitter 2606:82c0:21::e plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2606:82c0:21::e (time1.lshiy.com) 0.000 0.000 0.000 1.883 3.565 3.565 3.565 3.565 3.565 1.027 1.940 ms -0.3172 2.792

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2606:82c0:23::e (time3.lshiy.com)

peer jitter 2606:82c0:23::e plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2606:82c0:23::e (time3.lshiy.com) 0.000 0.000 0.000 2.902 6.219 6.219 6.219 6.219 6.219 1.668 2.917 ms 0.1591 2.937

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2607:9000:7000:23:216:3cff:fe25:38d7

peer jitter 2607:9000:7000:23:216:3cff:fe25:38d7 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2607:9000:7000:23:216:3cff:fe25:38d7 0.000 0.000 0.000 8.025 10.608 10.608 10.608 10.608 10.608 3.670 6.974 ms -1.137 2.823

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2607:9d00:2000:16::9269:208a

peer jitter 2607:9d00:2000:16::9269:208a plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2607:9d00:2000:16::9269:208a 0.000 0.000 0.000 3.209 8.254 8.254 8.254 8.254 8.254 1.860 3.122 ms 0.709 4.451

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2607:f1c0:f06b:5000::3 (ntp11.kernfusion.at)

peer jitter 2607:f1c0:f06b:5000::3 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2607:f1c0:f06b:5000::3 (ntp11.kernfusion.at) 0.000 0.000 0.000 2.643 20.902 20.902 20.902 20.902 20.902 8.511 6.250 ms 1.113 2.302

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2607:f1c0:f075:9900::1

peer jitter 2607:f1c0:f075:9900::1 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2607:f1c0:f075:9900::1 0.000 0.000 0.000 5.383 70.431 70.431 70.431 70.431 70.431 22.237 14.508 ms 1.748 4.483

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2607:f710:35::29c:0:5

peer jitter 2607:f710:35::29c:0:5 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2607:f710:35::29c:0:5 0.000 0.000 0.000 4.556 7.900 7.900 7.900 7.900 7.900 2.166 4.553 ms -0.3058 2.962

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2a00:d78:0:712:94:198:159:11 (nts1.time.nl)

peer jitter 2a00:d78:0:712:94:198:159:11 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2a00:d78:0:712:94:198:159:11 (nts1.time.nl) 0.000 1.584 2.966 20.836 77.601 99.042 530.168 74.635 97.459 26.838 29.328 ms 3.305 41.99

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2a01:3f7:2:44::8 (sth1-ts.nts.netnod.se)

peer jitter 2a01:3f7:2:44::8 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2a01:3f7:2:44::8 (sth1-ts.nts.netnod.se) 0.000 4.188 13.485 45.756 87.328 100.083 109.231 73.843 95.895 21.763 47.982 ms 0.2888 2.755

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2a01:4f8:c012:1afb:123:123:123:123 (tock.telnet.li)

peer jitter 2a01:4f8:c012:1afb:123:123:123:123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2a01:4f8:c012:1afb:123:123:123:123 (tock.telnet.li) 0.000 2.107 4.538 29.415 67.555 89.560 458.532 63.018 87.453 23.919 32.258 ms 4.77 70.42

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2a01:4f9:c013:fa27:123:123:123:123

peer jitter 2a01:4f9:c013:fa27:123:123:123:123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2a01:4f9:c013:fa27:123:123:123:123 0.000 1.942 3.997 36.742 92.861 109.042 178.690 88.864 107.100 29.597 40.764 ms 0.5627 2.58

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2a01:4ff:f0:7300:123:123:123:123

peer jitter 2a01:4ff:f0:7300:123:123:123:123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2a01:4ff:f0:7300:123:123:123:123 0.000 1.015 1.606 5.227 35.666 58.999 390.666 34.060 57.984 15.078 10.007 ms 10.55 228.5

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2a01:7e04::f03c:94ff:fee2:cba5

peer jitter 2a01:7e04::f03c:94ff:fee2:cba5 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2a01:7e04::f03c:94ff:fee2:cba5 0.000 0.000 0.000 1.794 29.750 29.750 29.750 29.750 29.750 9.167 5.895 ms 1.677 4.108

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 2a0a:e5c0:2:2:0:c8ff:fe68:beb7 (2a0a-e5c0-2-2-0-c8ff-fe68-beb7.loves.ipv6.at.ungleich.ch)

peer jitter 2a0a:e5c0:2:2:0:c8ff:fe68:beb7 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 2a0a:e5c0:2:2:0:c8ff:fe68:beb7 (2a0a-e5c0-2-2-0-c8ff-fe68-beb7.loves.ipv6.at.ungleich.ch) 0.960 1.460 2.257 13.905 74.907 99.253 114.435 72.649 97.793 24.920 24.749 ms 1.308 3.834

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 34.147.28.4

peer jitter 34.147.28.4 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 34.147.28.4 0.000 0.977 1.742 13.427 70.876 98.198 166.058 69.134 97.220 23.751 22.982 ms 1.543 5.626

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 37.27.11.4

peer jitter 37.27.11.4 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 37.27.11.4 0.000 0.000 1.780 14.020 76.180 81.696 81.940 74.400 81.696 20.637 20.684 ms 1.598 4.786

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 44.190.5.123

peer jitter 44.190.5.123 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 44.190.5.123 0.000 0.674 1.086 2.794 9.293 20.426 30.738 8.207 19.751 3.327 3.690 ms 3.822 23.97

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 45.33.53.84

peer jitter 45.33.53.84 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 45.33.53.84 0.000 0.000 0.831 2.773 8.887 22.246 22.246 8.055 22.246 3.687 3.743 ms 2.963 14.62

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 45.63.54.13

peer jitter 45.63.54.13 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 45.63.54.13 0.000 0.000 0.000 1.227 11.524 11.524 11.524 11.524 11.524 3.176 2.245 ms 1.972 6.191

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 45.77.126.122

peer jitter 45.77.126.122 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 45.77.126.122 0.000 0.000 0.000 1.018 3.979 3.979 3.979 3.979 3.979 0.941 1.194 ms 1.581 5.687

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 50.205.57.38

peer jitter 50.205.57.38 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 50.205.57.38 0.000 0.000 0.000 2.064 12.794 26.867 26.867 12.794 26.867 5.655 3.818 ms 2.994 11.9

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 51.38.58.233

peer jitter 51.38.58.233 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 51.38.58.233 0.000 0.627 1.195 2.758 18.088 25.470 29.937 16.893 24.843 5.518 4.851 ms 2.569 9.414

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 66.118.231.14

peer jitter 66.118.231.14 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 66.118.231.14 0.000 0.000 0.000 1.084 4.383 4.383 4.383 4.383 4.383 1.272 1.490 ms 1.426 4.099

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 67.217.246.204

peer jitter 67.217.246.204 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 67.217.246.204 0.000 0.000 0.000 3.917 42.487 47.481 47.481 42.487 47.481 15.302 12.358 ms 1.032 2.564

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 69.172.133.130

peer jitter 69.172.133.130 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 69.172.133.130 0.000 0.000 0.000 3.230 75.376 75.376 75.376 75.376 75.376 24.828 13.852 ms 1.682 4.021

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 69.89.207.199

peer jitter 69.89.207.199 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 69.89.207.199 0.000 0.000 0.000 8.052 65.312 65.312 65.312 65.312 65.312 20.904 16.467 ms 1.566 4.007

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 73.185.182.209

peer jitter 73.185.182.209 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 73.185.182.209 0.000 0.000 0.000 2.902 4.172 4.172 4.172 4.172 4.172 1.327 2.245 ms -0.2651 2.157

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 77.37.97.124

peer jitter 77.37.97.124 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 77.37.97.124 0.000 0.986 2.913 32.332 77.863 100.698 150.671 74.950 99.712 24.650 35.065 ms 0.7028 3.425

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 77.42.37.85

peer jitter 77.42.37.85 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 77.42.37.85 0.000 1.059 1.880 19.516 80.741 96.805 116.085 78.861 95.746 26.717 29.766 ms 0.8 2.531

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 79.160.225.13

peer jitter 79.160.225.13 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 79.160.225.13 0.000 0.887 1.362 9.775 71.031 94.447 111.150 69.669 93.560 22.353 18.781 ms 1.751 5.554

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 94.198.159.11

peer jitter 94.198.159.11 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 94.198.159.11 0.000 0.000 0.000 9.727 9.727 9.727 9.727 9.727 9.727 4.863 4.863 ms 0 1

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter 96.19.94.82

peer jitter 96.19.94.82 plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter 96.19.94.82 0.000 0.000 0.000 2.890 17.347 17.347 17.347 17.347 17.347 4.961 3.776 ms 2.163 6.304

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter SHM(0)

peer jitter SHM(0) plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter SHM(0) 0.000 0.495 0.730 1.834 4.498 6.586 1,615.750 3.767 6.091 12.443 2.332 ms 81.93 7828

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter SHM(1)

peer jitter SHM(1) plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter SHM(1) 0.000 0.200 0.226 0.327 0.492 0.673 1,591.279 0.266 0.474 11.390 0.510 ms 91.04 9522

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter SHM(2)

peer jitter SHM(2) plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter SHM(2) 0.000 0.707 1.051 2.524 5.920 7.969 2,002.029 4.870 7.261 30.449 3.547 ms 50.24 2677

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Server Jitter SHM(3)

peer jitter SHM(3) plot

Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Server Jitter SHM(3) 0.000 0.201 0.223 0.318 0.472 0.574 2,001.141 0.249 0.373 30.365 0.981 ms 50.49 2698

The RMS Jitter of a server. Jitter is the current estimated dispersion, in other words the variation in offset between samples.

Closer to 0s is better. An ideal system would be a horizontal line at 0s.

RMS Jitter is field 8 in the peerstats log file.



Summary


Percentiles...... Ranges...... Skew- Kurt-
Name Min1%5%50%95% 99%Max   90%98%StdDev  MeanUnits nessosis
Local Clock Frequency Offset -135.511 -81.763 14.831 18.802 22.331 25.498 135.754 7.500 107.261 14.081 16.739 ppm -6.712 47.91
Local Clock Time Offset -126.620 -8.281 -6.568 -4.540 -2.318 -0.370 121.205 4.250 7.911 2.137 -4.432 ms 7.428 1132
Local RMS Frequency Jitter 0.0000 0.021 0.062 0.172 0.464 0.968 73.177 0.402 0.947 1.306 0.263 ppm 32.13 1240
Local RMS Time Jitter 0.000 0.125 0.148 0.380 0.448 0.630 83.702 0.300 0.504 1.627 0.434 ms 28.15 951.6
Server Jitter 104.152.220.5 0.000 0.000 0.000 0.888 2.438 2.438 2.438 2.438 2.438 0.710 1.068 ms 0.5336 2.756
Server Jitter 137.190.2.4 0.000 0.000 0.000 8.346 83.883 83.883 83.883 83.883 83.883 25.677 16.869 ms 1.958 5.07
Server Jitter 139.84.137.244 0.000 1.498 3.474 24.787 66.618 81.767 171.675 63.144 80.269 20.653 28.445 ms 1.093 5.724
Server Jitter 142.202.190.19 0.000 0.000 0.000 1.458 4.786 4.786 4.786 4.786 4.786 1.662 1.999 ms 0.632 1.823
Server Jitter 144.202.41.38 0.000 0.000 0.000 6.779 14.889 14.889 14.889 14.889 14.889 5.989 6.622 ms 0.08954 1.408
Server Jitter 144.202.62.209 0.000 0.000 0.957 2.633 7.857 35.452 35.452 6.900 35.452 4.582 3.718 ms 5.102 32.94
Server Jitter 149.28.200.179 0.000 0.000 0.000 2.339 74.406 74.406 74.406 74.406 74.406 23.353 12.250 ms 1.907 4.787
Server Jitter 155.248.196.28 0.000 0.000 0.000 1.850 4.992 4.992 4.992 4.992 4.992 1.436 2.037 ms 0.7956 3.18
Server Jitter 158.51.99.19 0.000 0.000 0.000 2.350 45.058 45.058 45.058 45.058 45.058 11.437 6.580 ms 2.59 8.731
Server Jitter 162.159.200.1 0.000 0.000 0.000 2.623 4.724 6.374 6.374 4.724 6.374 1.502 2.737 ms 0.2599 2.67
Server Jitter 162.159.200.123 0.000 0.000 0.000 2.976 6.497 6.497 6.497 6.497 6.497 2.084 2.907 ms 0.2762 1.891
Server Jitter 166.88.142.52 0.000 0.000 0.000 1.075 3.927 3.927 3.927 3.927 3.927 1.133 1.349 ms 1.419 4.128
Server Jitter 171.66.97.126 0.000 0.000 0.965 2.691 15.483 22.978 126.152 14.519 22.978 10.655 4.757 ms 8.933 92.99
Server Jitter 172.232.15.202 0.000 0.000 0.000 3.215 33.540 33.540 33.540 33.540 33.540 13.913 13.115 ms 0.3783 1.284
Server Jitter 172.233.153.85 0.000 0.000 1.067 4.764 14.089 23.765 302.556 13.022 23.765 29.458 8.479 ms 9.659 96.43
Server Jitter 172.233.155.39 0.000 0.000 0.000 2.970 8.748 8.748 8.748 8.748 8.748 3.078 3.510 ms 0.3164 1.656
Server Jitter 172.233.157.223 0.000 0.000 0.000 3.309 477.649 477.649 477.649 477.649 477.649 136.857 94.670 ms 1.361 3.969
Server Jitter 172.233.189.68 0.000 0.000 0.000 1.536 21.515 21.515 21.515 21.515 21.515 9.868 9.010 ms 0.4016 1.177
Server Jitter 172.234.25.10 0.000 0.000 0.000 1.017 4.280 4.280 4.280 4.280 4.280 1.424 1.561 ms 0.8819 2.346
Server Jitter 173.249.203.227 0.000 0.000 0.000 2.338 5.843 5.843 5.843 5.843 5.843 1.587 2.822 ms 0.3165 2.627
Server Jitter 178.156.185.92 0.000 0.657 1.198 6.232 36.386 60.264 69.113 35.188 59.607 11.634 10.482 ms 2.26 9.133
Server Jitter 185.234.20.134 0.000 0.000 0.000 1.341 4.572 4.572 4.572 4.572 4.572 1.573 1.351 ms 1.195 3.124
Server Jitter 192.48.105.15 0.000 0.000 0.000 1.815 13.786 13.786 13.786 13.786 13.786 3.333 2.570 ms 2.497 8.699
Server Jitter 194.0.5.123 0.000 0.761 1.105 3.158 11.601 21.666 201.946 10.496 20.906 8.322 4.608 ms 15.45 309.5
Server Jitter 198.137.202.56 0.000 0.801 1.150 3.562 15.846 55.108 92.279 14.697 54.306 8.233 5.389 ms 6.801 59.7
Server Jitter 20.55.26.153 0.000 0.000 0.000 6.632 74.079 74.079 74.079 74.079 74.079 25.471 19.985 ms 1.005 2.423
Server Jitter 2001:1600:13:101::16b7 (ov-eaae4e.infomaniak.ch) 0.000 6.381 8.865 27.341 63.554 76.237 194.366 54.689 69.856 19.414 30.805 ms 1.848 13
Server Jitter 2001:41d0:303:65e9::1 (matthaeus.julia0815.de) 0.000 1.638 5.026 24.360 63.536 94.275 441.235 58.511 92.637 27.238 29.563 ms 7.074 97.1
Server Jitter 2001:470:a:b4::2 (dell-2018.jamesb912.com.) 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 0.000 ns nan nan
Server Jitter 2001:678:8::123 (any.time.nl) 0.000 1.336 2.466 22.769 84.523 104.133 240.582 82.057 102.797 26.853 31.178 ms 0.982 3.468
Server Jitter 216.250.115.174 0.000 0.000 0.000 22.373 24.069 24.069 24.069 24.069 24.069 10.893 12.372 ms -0.02677 1.049
Server Jitter 23.142.248.9 0.000 0.000 0.000 1.138 5.220 5.220 5.220 5.220 5.220 1.786 2.215 ms 0.5987 1.784
Server Jitter 23.186.168.128 0.000 0.000 0.000 2.030 4.367 4.367 4.367 4.367 4.367 1.236 2.254 ms 0.1072 2.316
Server Jitter 23.186.168.129 0.000 0.000 0.000 8.216 200.544 281.407 281.407 200.544 281.407 68.498 44.257 ms 1.915 6.18
Server Jitter 23.186.168.130 0.000 0.000 0.000 3.949 8.358 8.358 8.358 8.358 8.358 3.003 4.343 ms 0.1799 1.702
Server Jitter 23.186.168.132 0.000 0.768 1.232 3.180 8.166 19.139 28.348 6.934 18.371 3.378 3.859 ms 4.121 25.48
Server Jitter 23.95.35.34 0.000 0.862 1.318 3.648 19.723 31.306 39.459 18.405 30.444 6.050 5.393 ms 2.987 12.6
Server Jitter 2401:c080:3000:2945:5400:4ff:fe69:f923 (ntpd-rs.sidnlabs.nl) 0.000 1.826 4.716 29.461 72.915 89.395 159.685 68.200 87.569 21.838 33.133 ms 0.7116 3.169
Server Jitter 2402:1f00:8101:d6::1 0.000 1.122 1.876 18.931 65.466 79.704 169.795 63.590 78.581 21.450 25.074 ms 1.025 4.123
Server Jitter 240b:4004:108:200:8314:1a08:4cee:26d8 0.000 0.000 0.000 5.900 52.232 52.232 52.232 52.232 52.232 17.801 14.966 ms 1.057 2.48
Server Jitter 2600:1702:80c0:9a80:1ee4:b0a2:44bc:c606 0.000 0.000 0.000 5.087 22.009 22.009 22.009 22.009 22.009 8.471 7.694 ms 0.9852 2.224
Server Jitter 2600:1900:4060:2e7:: (0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.0.7.e.2.0.0.6.0.4.0.0.9.1.0.0.6.2.bc.googleusercontent.com) 0.000 1.432 2.735 23.981 80.125 100.086 260.324 77.390 98.655 25.098 30.934 ms 1.012 4.009
Server Jitter 2600:1f13:eda:9800:bcd8:839c:9b40:25b2 (oregon.time.system76.com) 0.000 0.713 1.180 3.338 17.173 55.177 85.349 15.993 54.464 8.613 5.483 ms 5.983 46.08
Server Jitter 2600:1f16:42a:1d00:2169:fe07:2acc:6002 (ohio.time.system76.com) 0.000 0.636 1.096 3.534 28.324 45.838 93.199 27.228 45.202 10.208 6.973 ms 4.157 26.72
Server Jitter 2600:1f18:4c51:e200:e142:210a:306d:4872 (virginia.time.system76.com) 0.000 0.705 1.144 6.083 31.262 47.958 93.682 30.118 47.253 11.110 10.212 ms 2.52 13.18
Server Jitter 2600:1f18:7927:8b00:123:: 0.000 0.000 0.000 0.873 2.440 2.440 2.440 2.440 2.440 0.788 1.166 ms 0.2839 1.935
Server Jitter 2600:3c01::f03c:93ff:fedd:5a1f (sensei.ruselabs.com) 0.000 0.000 0.000 7.022 69.185 74.278 74.278 69.185 74.278 19.927 15.358 ms 1.999 5.824
Server Jitter 2600:3c01:e000:7e6::123 (time1.sigi.net) 0.000 0.000 0.000 1.694 2.687 2.687 2.687 2.687 2.687 0.793 1.697 ms -1.027 3.417
Server Jitter 2600:3c03::f03c:91ff:fedf:1e98 (li1.forfun.net) 0.000 0.000 0.000 11.029 94.476 94.476 94.476 94.476 94.476 27.639 20.489 ms 1.645 4.285
Server Jitter 2602:81b:9000::c10c (time.sea.ordinaladvisors.com) 0.000 0.000 0.000 3.089 3.092 3.092 3.092 3.092 3.092 1.306 2.255 ms -1.134 2.316
Server Jitter 2602:f9ba:69::210 (as393746.mci.trtnw.net) 0.000 1.432 1.745 11.133 68.106 87.579 97.607 66.361 86.148 21.760 20.073 ms 1.557 4.724
Server Jitter 2602:fb95:16::123 (time5.sigi.net) 0.000 0.000 0.000 2.945 6.744 6.744 6.744 6.744 6.744 1.680 2.843 ms 0.7474 3.802
Server Jitter 2603:c020:0:8369:1111:1111:1111:1112 0.000 0.000 0.000 1.518 3.421 3.421 3.421 3.421 3.421 0.908 1.660 ms 0.2694 2.794
Server Jitter 2604:a880:800:10::70f:b001 (ellone.fdisk.io) 0.000 0.000 0.000 1.765 3.857 3.857 3.857 3.857 3.857 1.036 1.790 ms 0.1052 2.65
Server Jitter 2604:a880:800:a1::ec9:5001 0.000 0.000 0.000 15.187 37.963 37.963 37.963 37.963 37.963 14.488 15.172 ms 0.4919 1.578
Server Jitter 2604:d200::39 (white.web-ster.com) 0.000 0.000 0.000 1.801 12.238 25.815 25.815 12.238 25.815 5.414 3.117 ms 3.361 13.81
Server Jitter 2605:4840:3:fb19::1 (chi3.us.ntp.li) 0.000 0.000 0.000 3.562 6.209 6.209 6.209 6.209 6.209 2.544 3.257 ms -0.178 1.5
Server Jitter 2606:4700:f1::1 (time.cloudflare.com) 0.775 0.816 1.134 3.575 16.135 26.887 42.994 15.001 26.072 5.293 5.341 ms 2.938 15.25
Server Jitter 2606:4700:f1::123 (time.cloudflare.com) 0.000 0.844 1.037 3.587 15.847 37.671 98.046 14.810 36.826 8.577 5.539 ms 7.255 69.41
Server Jitter 2606:82c0:21::e (time1.lshiy.com) 0.000 0.000 0.000 1.883 3.565 3.565 3.565 3.565 3.565 1.027 1.940 ms -0.3172 2.792
Server Jitter 2606:82c0:23::e (time3.lshiy.com) 0.000 0.000 0.000 2.902 6.219 6.219 6.219 6.219 6.219 1.668 2.917 ms 0.1591 2.937
Server Jitter 2607:9000:7000:23:216:3cff:fe25:38d7 0.000 0.000 0.000 8.025 10.608 10.608 10.608 10.608 10.608 3.670 6.974 ms -1.137 2.823
Server Jitter 2607:9d00:2000:16::9269:208a 0.000 0.000 0.000 3.209 8.254 8.254 8.254 8.254 8.254 1.860 3.122 ms 0.709 4.451
Server Jitter 2607:f1c0:f06b:5000::3 (ntp11.kernfusion.at) 0.000 0.000 0.000 2.643 20.902 20.902 20.902 20.902 20.902 8.511 6.250 ms 1.113 2.302
Server Jitter 2607:f1c0:f075:9900::1 0.000 0.000 0.000 5.383 70.431 70.431 70.431 70.431 70.431 22.237 14.508 ms 1.748 4.483
Server Jitter 2607:f710:35::29c:0:5 0.000 0.000 0.000 4.556 7.900 7.900 7.900 7.900 7.900 2.166 4.553 ms -0.3058 2.962
Server Jitter 2a00:d78:0:712:94:198:159:11 (nts1.time.nl) 0.000 1.584 2.966 20.836 77.601 99.042 530.168 74.635 97.459 26.838 29.328 ms 3.305 41.99
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Server Offset 94.198.159.11 7.026 7.026 7.026 9.843 9.843 9.843 9.843 2.818 2.818 1.409 8.435 ms 0 1
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TDOP 0.500 0.650 0.790 11.810 11.810 11.810 11.810 11.020 11.160 5.125 6.796 -0.08626 1.081
Temp /dev/sda 17.000 18.000 18.000 23.000 25.000 26.000 31.000 7.000 8.000 2.156 23.227 °C
Temp LM0 26.000 31.000 32.000 33.000 35.000 39.000 51.000 3.000 8.000 1.683 33.398 °C
Temp LM1 29.000 30.000 36.000 38.000 39.000 40.000 46.000 3.000 10.000 1.594 37.478 °C
Temp LM2 0.000 0.000 0.000 19.000 19.000 34.000 45.000 19.000 34.000 5.573 18.188 °C
Temp LM3 26.000 28.000 28.000 30.000 32.000 38.000 44.000 4.000 10.000 1.983 29.901 °C
Temp LM4 0.000 0.000 31.000 40.000 46.000 48.000 55.000 15.000 48.000 7.974 38.447 °C
Temp LM5 26.000 28.000 28.000 30.000 31.000 34.000 44.000 3.000 6.000 1.471 29.734 °C
Temp LM6 28.000 30.000 30.000 32.000 33.000 37.000 50.000 3.000 7.000 1.623 32.026 °C
Temp LM7 31.000 32.000 33.000 34.000 36.000 39.000 51.000 3.000 7.000 1.596 34.137 °C
Temp LM8 26.800 32.000 33.000 35.000 37.000 39.000 51.000 4.000 7.000 1.566 34.623 °C
Temp LM9 26.800 32.000 33.000 35.000 37.000 39.000 51.000 4.000 7.000 1.566 34.622 °C
Temp ZONE0 20.000 20.000 20.000 20.000 20.000 20.000 20.000 0.000 0.000 0.000 20.000 °C
Temp ZONE1 26.800 31.000 32.000 33.000 35.000 39.000 51.000 3.000 8.000 1.640 33.363 °C
Temp ZONE2 26.000 28.000 28.000 30.000 31.000 34.000 44.000 3.000 6.000 1.471 29.734 °C
Temp ZONE3 29.000 31.000 32.000 33.000 35.000 39.000 51.000 3.000 8.000 1.637 33.374 °C
Temp ZONE4 26.800 31.000 32.000 33.000 35.000 39.000 51.000 3.000 8.000 1.640 33.363 °C
Temp ZONE5 30.000 31.000 32.000 40.000 46.000 48.000 56.000 14.000 17.000 4.041 39.542 °C
Temp ZONE6 26.000 28.000 28.000 30.000 31.000 34.000 44.000 3.000 6.000 1.332 29.649 °C
nSats 7.000 8.000 9.000 10.000 12.000 12.000 15.000 3.000 4.000 0.775 10.099 nSat 0.5093 8.075
Summary as CSV file

Stats for the last 1, 7, 35, 98, 371, some days, or live gps data.

Glossary:

frequency offset:
The difference between the ntpd calculated frequency and the local system clock frequency (usually in parts per million, ppm)
jitter, dispersion:
The short term change in a value. NTP measures Local Time Jitter, Refclock Jitter, and Server Jitter in seconds. Local Frequency Jitter is in ppm or ppb.
ms, millisecond:
One thousandth of a second = 0.001 seconds, 1e-3 seconds
mu, mean:
The arithmetic mean: the sum of all the values divided by the number of values. The formula for mu is: "mu = (∑xi) / N". Where xi denotes the data points and N is the number of data points.
ns, nanosecond:
One billionth of a second, also one thousandth of a microsecond, 0.000000001 seconds and 1e-9 seconds.
percentile:
The value below which a given percentage of values fall.
ppb, parts per billion:
Ratio between two values. These following are all the same: 1 ppb, one in one billion, 1/1,000,000,000, 0.000,000,001, 1e-9 and 0.000,000,1%
ppm, parts per million:
Ratio between two values. These following are all the same: 1 ppm, one in one million, 1/1,000,000, 0.000,001, and 0.000,1%
‰, parts per thousand:
Ratio between two values. These following are all the same: 1 ‰. one in one thousand, 1/1,000, 0.001, and 0.1%
refclock:
Reference clock, a local GPS module or other local source of time.
remote clock:
Any clock reached over the network, LAN or WAN. Also called a peer or server.
time offset:
The difference between the ntpd calculated time and the local system clock's time. Also called phase offset.
σ, sigma:
Sigma denotes the standard deviation (SD) and is centered on the arithmetic mean of the data set. The SD is simply the square root of the variance of the data set. Two sigma is simply twice the standard deviation. Three sigma is three times sigma. Smaller is better.
The formula for sigma is: "σ = √[ ∑(xi-mu)^2 / N ]". Where xi denotes the data points and N is the number of data points.
Skewness, Skew:
The skewness of a random variable X is the third standardized moment and is a dimension-less ratio. ntpviz uses the FIsher-Pearson moment of skewness. There are other different ways to calculate Skewness Wikipedia describes Skewness best: "The qualitative interpretation of the skew is complicated and unintuitive."
A normal distribution has a skewness of zero.
Kurtosis, Kurt:
The kurtosis of a random variable X is the fourth standardized moment and is a dimension-less ratio. ntpviz uses standard Kurtosis. There are other different ways to calculate Kurtosis.
A normal distribution has a Kurtosis of three. NIST describes a kurtosis over three as "heavy tailed" and one under three as "light tailed".
upstream clock:
Any server or reference clock used as a source of time.
µs, us, microsecond:
One millionth of a second, also one thousandth of a millisecond, 0.000,001 seconds, and 1e-6 seconds.



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