Load Regulation
| Test | 12V | 5V | 3.3V | 5VSB | DC/AC (Watts) | Efficiency | Fan Speed (RPM) | PSU Noise (dB[A]) | Temps (In/Out) | PF/AC Volts |
| 10% | 5.245A | 1.981A | 1.96A | 0.979A | 85.005 | 87.367% | 0 | <6.0 | 44.42C | 0.947 |
| 12.088V | 5.049V | 3.366V | 5.109V | 97.296 | 40.17C | 114.82V | ||||
| 20% | 11.504A | 2.971A | 2.94A | 1.177A | 169.939 | 91.069% | 0 | <6.0 | 45.39C | 0.977 |
| 12.086V | 5.049V | 3.367V | 5.1V | 186.605 | 40.83C | 114.79V | ||||
| 30% | 18.114A | 3.465A | 3.43A | 1.375A | 254.942 | 92.054% | 0 | <6.0 | 46.17C | 0.988 |
| 12.084V | 5.05V | 3.368V | 5.091V | 276.98 | 41.16C | 114.77V | ||||
| 40% | 24.726A | 3.96A | 3.919A | 1.575A | 340.026 | 92.344% | 371 | <6.0 | 41.89C | 0.992 |
| 12.085V | 5.05V | 3.368V | 5.081V | 368.222 | 47.45C | 114.73V | ||||
| 50% | 30.972A | 4.951A | 4.9A | 1.775A | 424.804 | 92.241% | 371 | <6.0 | 42.18C | 0.994 |
| 12.085V | 5.049V | 3.368V | 5.072V | 460.546 | 48.25C | 114.72V | ||||
| 60% | 37.196A | 5.943A | 5.88A | 1.975A | 509.346 | 91.749% | 736 | 25.4 | 42.81C | 0.995 |
| 12.086V | 5.048V | 3.367V | 5.063V | 555.192 | 49.36C | 114.68V | ||||
| 70% | 43.485A | 6.936A | 6.861A | 2.176A | 594.672 | 91.315% | 962 | 33.0 | 43.07C | 0.996 |
| 12.086V | 5.047V | 3.367V | 5.054V | 651.217 | 50.13C | 114.65V | ||||
| 80% | 49.775A | 7.927A | 7.841A | 2.279A | 679.493 | 90.669% | 1221 | 41.8 | 43.68C | 0.996 |
| 12.086V | 5.045V | 3.367V | 5.047V | 749.406 | 51.68C | 114.63V | ||||
| 90% | 56.462A | 8.424A | 8.316A | 2.381A | 764.921 | 90.068% | 1461 | 46.6 | 44.72C | 0.997 |
| 12.087V | 5.045V | 3.367V | 5.039V | 849.274 | 53.80C | 114.59V | ||||
| 100% | 63.079A | 8.919A | 8.821A | 2.484A | 849.638 | 89.424% | 1669 | 48.0 | 45.68C | 0.997 |
| 12.087V | 5.045V | 3.367V | 5.031V | 950.153 | 55.79C | 114.57V | ||||
| 110% | 69.428A | 9.911A | 9.889A | 2.488A | 935.015 | 88.697% | 1850 | 51.9 | 46.53C | 0.997 |
| 12.088V | 5.045V | 3.367V | 5.025V | 1054.195 | 57.40C | 114.53V | ||||
| CL1 | 0.115A | 11.942A | 11.796A | 0A | 101.293 | 83.644% | 683 | 22.8 | 40.81C | 0.96 |
| 12.091V | 5.041V | 3.366V | 5.119V | 121.117 | 48.19C | 114.8V | ||||
| CL2 | 0.114A | 19.834A | 0A | 0A | 101.346 | 82.696% | 629 | 19.8 | 40.57C | 0.961 |
| 12.090V | 5.04V | 3.369V | 5.118V | 122.591 | 48.23C | 114.8V | ||||
| CL3 | 0.114A | 0A | 19.594A | 0A | 67.38 | 77.158% | 791 | 27.8 | 40.50C | 0.948 |
| 12.091V | 5.051V | 3.368V | 5.122V | 87.315 | 45.36C | 114.81V | ||||
| CL4 | 70.303A | 0A | 0A | 0A | 849.477 | 90.362% | 1423 | 44.9 | 45.99C | 0.997 |
| 12.083V | 5.053V | 3.371V | 5.08V | 940.096 | 53.10C | 114.57V |
Load regulation is super tight!
Ripple Suppression
| Test | 12V | 5V | 3.3V | 5VSB | Pass/Fail |
| 10% Load | 19.7 mV | 16.6 mV | 15.4 mV | 12.0 mV | Pass |
| 20% Load | 21.0 mV | 17.8 mV | 18.5 mV | 12.2 mV | Pass |
| 30% Load | 22.0 mV | 17.9 mV | 17.8 mV | 11.6 mV | Pass |
| 40% Load | 22.5 mV | 18.8 mV | 18.1 mV | 11.3 mV | Pass |
| 50% Load | 25.4 mV | 18.7 mV | 20.2 mV | 11.4 mV | Pass |
| 60% Load | 27.5 mV | 21.4 mV | 20.9 mV | 12.7 mV | Pass |
| 70% Load | 26.8 mV | 20.8 mV | 21.2 mV | 12.9 mV | Pass |
| 80% Load | 28.7 mV | 22.8 mV | 23.2 mV | 14.4 mV | Pass |
| 90% Load | 29.6 mV | 23.3 mV | 24.6 mV | 13.0 mV | Pass |
| 100% Load | 38.0 mV | 25.3 mV | 25.7 mV | 16.2 mV | Pass |
| 110% Load | 39.2 mV | 26.5 mV | 28.1 mV | 17.8 mV | Pass |
| Crossload 1 | 27.4 mV | 17.7 mV | 20.2 mV | 30.5 mV | Pass |
| Crossload 2 | 23.9 mV | 22.3 mV | 17.4 mV | 23.9 mV | Pass |
| Crossload 3 | 19.9 mV | 16.6 mV | 19.9 mV | 19.9 mV | Pass |
| Crossload 4 | 39.1 mV | 24.2 mV | 24.2 mV | 25.9 mV | Pass |
Ripple suppression is not the best in this category, but you cannot call it mediocre.
Pages:
Regarding the high inrush current
will the high inrush current damage both the PSU and external voltage stabilizer in the long run? I currently use this PSU alongside a 1000 VA stabilizer.
everything is affected, but note, high inrush currents exist ONLY if the bulk cap is completely drained, something not that easy.
I’m not really familiar with electricity,
does turning the PC off for days completely drain off the bulk capacitor?
Also, will you still rate leadex vii pro as good as leadex vii XG?
I was going to buy leadex vii XG since you rated it as the best overall performance, but it was out of stock in my country, so I bought the leadex vii pro
Usually not. The bulk cap usually keeps a charge unless the PSU is off for a significant period, week, or even months. The XG seems to have slightly higher performance but you won’t notice it. You made a very good choice to buy the Pro, no worries.
Is the only difference between this line and the XG line 3.0 vs 3.1 compatability?
they have hardware differences.
Hello, are these manufacturing differences for better or worse? in my country the leadex XG 850 and the leadex XP Pro 850 cost the same, after reviewing both and seeing the problems with the Pro, which one would you choose? Do you plan to review the leadex vii xp 1200 Pro?
The XP model. This 1200W model if they send it yes.