XPG Cybercore 1000 Platinum Power Supply Review

XPG teamed up with CWT and Nidec for the Cybercore 1000 power supply.

XPG Cybercore 1000 Platinum
Editor's Choice
(Image credit: © Tom's Hardware)

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Primary Rails And 5VSB Load Regulation

The following charts show the main rails' voltage values recorded between a range of 40W up to the PSU's maximum specified load, along with the deviation (in percent). Tight regulation is an important consideration every time we review a power supply because it facilitates constant voltage levels despite varying loads. Tight load regulation also, among other factors, improves the system’s stability, especially under overclocked conditions and, at the same time, it applies less stress to the DC-DC converters that many system components utilize.

Load regulation is not tight at 12V. We expected better results on this rail, which is the most important. The other rails perform better here, keeping up with the competition. 

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Hold-Up Time

Put simply; hold-up time is the amount of time that the system can continue to run without shutting down or rebooting during a power interruption.

The hold-up time is higher than 17ms, and the power ok signal is accurate. 

Inrush Current

Inrush current, or switch-on surge, refers to the maximum, instantaneous input current drawn by an electrical device when it is first turned on. A large enough inrush current can cause circuit breakers and fuses to trip. It can also damage switches, relays, and bridge rectifiers. As a result, the lower the inrush current of a PSU right as it is turned on, the better.

Inrush current is low with 115V, but high with 230V input. 

Leakage Current

In layman's terms, leakage current is the unwanted transfer of energy from one circuit to another. In power supplies, it is the current flowing from the primary side to the ground or the chassis, which in the majority of cases is connected to the ground. For measuring leakage current, we use a GW Instek GPT-9904 electrical safety tester instrument.

The leakage current test is conducted at 110% of the DUT's rated voltage input (so for a 230-240V device, we should conduct the test with 253-264V input). The maximum acceptable limit of a leakage current is 3.5 mA and it is defined by the IEC-60950-1 regulation, ensuring that the current is low and will not harm any person coming in contact with the power supply's chassis.

(Image credit: Tom's Hardware)

Leakage current is way below the 3.5mA limit. 

10-110% Load Tests

These tests reveal the PSU's load regulation and efficiency levels under high ambient temperatures. They also show how the fan speed profile behaves under increased operating temperatures.

Swipe to scroll horizontally
Test 12V 5V 3.3V 5VSB DC/AC (Watts) Efficiency Fan Speed (RPM) PSU Noise (dB[A]) Temps (In/Out) PF/AC Volts
10% 6.496A 1.982A 1.997A 0.994A 100.009 84.327% 0 <6.0 45.01°C 0.861
Row 2 - Cell 0 12.070V 5.047V 3.306V 5.029V 118.284 Row 2 - Cell 6 Row 2 - Cell 7 Row 2 - Cell 8 40.79°C 115.14V
20% 14.020A 2.975A 2.997A 1.195A 199.964 90.502% 0 <6.0 46.19°C 0.992
Row 4 - Cell 0 12.058V 5.044V 3.303V 5.023V 220.978 Row 4 - Cell 6 Row 4 - Cell 7 Row 4 - Cell 8 41.68°C 115.1V
30% 21.919A 3.472A 3.499A 1.396A 300.022 91.474% 0 <6.0 46.64°C 0.996
Row 6 - Cell 0 12.042V 5.041V 3.301V 5.017V 328.106 Row 6 - Cell 6 Row 6 - Cell 7 Row 6 - Cell 8 41.82°C 115.07V
40% 29.810A 3.971A 4.001A 1.597A 399.737 91.88% 0 <6.0 47.47°C 0.996
Row 8 - Cell 0 12.027V 5.038V 3.299V 5.011V 435.011 Row 8 - Cell 6 Row 8 - Cell 7 Row 8 - Cell 8 42.4°C 115.04V
50% 37.373A 4.966A 5.005A 1.799A 499.465 92.004% 0 <6.0 48.47°C 0.997
Row 10 - Cell 0 12.013V 5.035V 3.297V 5.005V 542.887 Row 10 - Cell 6 Row 10 - Cell 7 Row 10 - Cell 8 42.83°C 115.02V
60% 45.039A 5.966A 6.013A 2.001A 600.021 91.466% 929 16.2 43.48°C 0.997
Row 12 - Cell 0 11.994V 5.03V 3.293V 4.997V 656.029 Row 12 - Cell 6 Row 12 - Cell 7 Row 12 - Cell 8 49.58°C 114.99V
70% 52.641A 6.967A 7.023A 2.205A 699.769 90.798% 1207 24.2 43.92°C 0.997
Row 14 - Cell 0 11.980V 5.025V 3.29V 4.989V 770.621 Row 14 - Cell 6 Row 14 - Cell 7 Row 14 - Cell 8 50.76°C 114.96V
80% 60.342A 7.97A 8.032A 2.308A 799.822 90.291% 1520 30.2 44.23°C 0.998
Row 16 - Cell 0 11.963V 5.021V 3.287V 4.984V 885.962 Row 16 - Cell 6 Row 16 - Cell 7 Row 16 - Cell 8 52.05°C 114.94V
90% 68.388A 8.474A 8.526A 2.411A 899.596 89.569% 1794 35.5 44.84°C 0.999
Row 18 - Cell 0 11.948V 5.016V 3.284V 4.978V 1004.185 Row 18 - Cell 6 Row 18 - Cell 7 Row 18 - Cell 8 53.4°C 114.92V
100% 76.274A 8.978A 9.052A 3.024A 999.64 88.835% 2016 38.5 45.46°C 0.998
Row 20 - Cell 0 11.930V 5.013V 3.281V 4.961V 1125.218 Row 20 - Cell 6 Row 20 - Cell 7 Row 20 - Cell 8 55.04°C 114.89V
110% 84.115A 9.983A 10.158A 3.026A 1100.265 88.152% 2196 40.9 46.83°C 0.998
Row 22 - Cell 0 11.911V 5.009V 3.278V 4.958V 1248.338 Row 22 - Cell 6 Row 22 - Cell 7 Row 22 - Cell 8 57.55°C 114.86V
CL1 0.116A 14.304A 14.452A 0A 121.311 80.854% 0 <6.0 53.72°C 0.878
Row 24 - Cell 0 12.051V 5.048V 3.3V 5.071V 150.132 Row 24 - Cell 6 Row 24 - Cell 7 Row 24 - Cell 8 48.15°C 115.13V
CL2 0.116A 21.755A 0A 0A 111.399 79.795% 925 15.7 42.65°C 0.873
Row 26 - Cell 0 12.058V 5.056V 3.302V 5.1V 139.586 Row 26 - Cell 6 Row 26 - Cell 7 Row 26 - Cell 8 50.19°C 115.13V
CL3 0.116A 0A 21.955A 0A 73.994 73.495% 923 15.7 41.46°C 0.785
Row 28 - Cell 0 12.057V 5.053V 3.307V 5.045V 100.664 Row 28 - Cell 6 Row 28 - Cell 7 Row 28 - Cell 8 51.02°C 115.15V
CL4 83.740A 0A 0A 0A 1000.131 89.337% 2185 40.7 46.99°C 0.998
Row 30 - Cell 0 11.943V 5.021V 3.29V 5.027V 1118.937 Row 30 - Cell 6 Row 30 - Cell 7 Row 30 - Cell 8 58.3°C 114.89V

The PSU can easily handle harsh conditions, delivering 110% of its max-rated capacity even at 47 degrees Celsius for prolonged periods. You should not push it so hard, exceed its official rating, and expect it to outlive the provided warranty. 

20-80W Load Tests

In the following tests, we measure the PSU's efficiency at loads significantly lower than 10% of its maximum capacity (the lowest load the 80 PLUS standard measures). This is important for representing when a PC is idle with power-saving features turned on.

Swipe to scroll horizontally
Test 12V 5V 3.3V 5VSB DC/AC (Watts) Efficiency Fan Speed (RPM) PSU Noise (dB[A]) Temps (In/Out) PF/AC Volts
20W 1.228A 0.495A 0.499A 0.198A 20 67.441% 0 <6.0 39.78°C 0.663
Row 2 - Cell 0 12.086V 5.048V 3.307V 5.046V 29.856 Row 2 - Cell 6 Row 2 - Cell 7 Row 2 - Cell 8 36.71°C 115.14V
40W 2.706A 0.693A 0.699A 0.298A 39.999 76.257% 0 <6.0 40.57°C 0.735
Row 4 - Cell 0 12.082V 5.048V 3.307V 5.043V 52.499 Row 4 - Cell 6 Row 4 - Cell 7 Row 4 - Cell 8 37.27°C 115.14V
60W 4.184A 0.892A 0.898A 0.397A 59.998 80.508% 0 <6.0 41.84°C 0.767
Row 6 - Cell 0 12.078V 5.048V 3.307V 5.042V 74.463 Row 6 - Cell 6 Row 6 - Cell 7 Row 6 - Cell 8 38.09°C 115.14V
80W 5.658A 1.09A 1.098A 0.496A 79.956 82.812% 0 <6.0 44.42°C 0.833
Row 8 - Cell 0 12.074V 5.048V 3.307V 5.04V 96.402 Row 8 - Cell 6 Row 8 - Cell 7 Row 8 - Cell 8 40.34°C 115.13V

The PSU's fan doesn't need to spin at light loads, even with close to 40 degrees Celsius ambient. 

2% or 10W Load Test

From July 2020, the ATX spec requires 70% and higher efficiency with 115V input. The applied load is only 10W for PSUs with 500W and lower capacities, while for stronger units, we dial 2% of their max-rated capacity.

Swipe to scroll horizontally
12V 5V 3.3V 5VSB DC/AC (Watts) Efficiency Fan Speed (RPM) PSU Noise (dB[A]) Temps (In/Out) PF/AC Volts
1.472A 0.255A 0.255A 0.053A 20.181 66.799% 0 <6.0 17.83°C 0.661
12.092V 5.036V 3.299V 5.037V 30.503 Row 2 - Cell 5 Row 2 - Cell 6 Row 2 - Cell 7 15.6°C 115.1V

The 60% efficiency mark, which is an ATX requirement, is passed with a 2% load. It would be nice to see over 70%. 

Efficiency and Power Factor

Next, we plotted a chart showing the PSU's efficiency at low loads and loads from 10 to 110% of its maximum rated capacity. The higher a PSU’s efficiency, the less energy goes wasted, leading to a reduced carbon footprint and lower electricity bills. The same goes for Power Factor.

With normal loads, the average efficiency is high. The problem is with light loads, where the platform needs tuning for higher efficiency. We would also like to see higher PF readings with 230V input.

5VSB Efficiency

Swipe to scroll horizontally
Test # 5VSB DC/AC (Watts) Efficiency PF/AC Volts
1 0.1A 0.499W 75.264% 0.052
Row 2 - Cell 0 Row 2 - Cell 1 4.989V 0.663W 115.14V
2 0.25A 1.247W 78.399% 0.121
Row 4 - Cell 0 Row 4 - Cell 1 4.985V 1.591W 115.15V
3 0.55A 2.74W 79.34% 0.233
Row 6 - Cell 0 Row 6 - Cell 1 4.98V 3.453W 115.14V
4 1A 4.973W 79.035% 0.343
Row 8 - Cell 0 Row 8 - Cell 1 4.972V 6.291W 115.14V
5 1.5A 7.447W 79.252% 0.407
Row 10 - Cell 0 Row 10 - Cell 1 4.963V 9.397W 115.14V
6 3A 14.811W 78.22% 0.491
Row 12 - Cell 0 Row 12 - Cell 1 4.937V 18.936W 115.13V

The 5VSB rail has high enough efficiency.

Power Consumption In Idle And Standby

Swipe to scroll horizontally
Mode 12V 5V 3.3V 5VSB Watts PF/AC Volts
Idle 12.098V 5.028V 3.294V 5.029V 6.005 0.292
Row 2 - Cell 0 Row 2 - Cell 1 Row 2 - Cell 2 Row 2 - Cell 3 Row 2 - Cell 4 Row 2 - Cell 5 115.09V
Standby Row 3 - Cell 1 Row 3 - Cell 2 Row 3 - Cell 3 Row 3 - Cell 4 0.045 0.004
Row 4 - Cell 0 Row 4 - Cell 1 Row 4 - Cell 2 Row 4 - Cell 3 Row 4 - Cell 4 Row 4 - Cell 5 115.09V

Vampire power is low, with 115V and 230V input. 

Fan RPM, Delta Temperature and Output Noise

All results are obtained between an ambient temperature of 37 to 47 degrees Celsius (98.6 to 116.6 degrees Fahrenheit).

(Image credit: Tom's Hardware)

(Image credit: Tom's Hardware)

The fan speed profile is not aggressive, even under high operating temperature, since as you can see in the graphs above, it increases linearly and up to 500W load, the PSU's fan doesn't spin. 

The following results were obtained at 30 to 32 degrees Celsius (86 to 89.6 degrees Fahrenheit) ambient temperature.       

(Image credit: Tom's Hardware)

(Image credit: Tom's Hardware)

At average operating temperatures, close to 30 degrees Celsius, the PSU is dead silent with up to 540W load combinations. It remains in the 6-30 dBA zone with up to 725W loads, and it exceeds 35 dBA with more than 820W. 

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Aris Mpitziopoulos
Contributing Editor

Aris Mpitziopoulos is a contributing editor at Tom's Hardware, covering PSUs.