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Installation: The dual 12cm radiator was a different story. The kit didn't include any mounting brackets for the radiator so a little improvisation was in order. I took four 1 and 3/8 screws that matched the threads in the radiator and used one of the four 12cm fans as a spacer of sorts to go between the radiator and back of the case. The screws were pushed through the back of the case, through the extra fan, and tightened in to the radiator. This turned out to be very secure and added one extra functional fan in case I needed it. The pump assembly is as simple as connecting the power supply and deciding where you want its placement. It can fit inside large enough cases or outside. The pump noise is around 15db or lower so outside is definitely an option. Asetek includes software to monitor temperatures and configure pump operations. Once in place, I finished cutting the tubing lengths from the blocks to the radiator and pump. With the tubing fully attached, it was time to fill and test the system for leaks. The USB cable included attaches to the back of the pump and then to your motherboard. This cable provides the connection needed for the software to detect the pump and then install. Among the pump accessories are sensors that plug in to three ports located next to the USB connection. Each sensor of course is placed in between the very edge of each processor die and water block. You do not want to place the sensor in the center as this would inhibit performance.
Once the kit was primed and a water tight system was confirmed, all power was
connected to the computer. The computer powered right up and the BIOS reported
much lower temperatures than any of the stock heat sinks. For the testing
purposes, the Asetek Control Panel software was installed which revealed
temperatures to each of the three blocks. Pump speeds made so very little noise
that it was left on full capacity. Test System:
Test Notes: Room and distilled water temperatures were kept to 75 degrees
Fahrenheit. Additives were not added due to the short use of the water cooling
system and to eliminate any possible performance hindrances. The kit was tested
with the fans at 7v and 12v speeds to confirm any benefits at full speed.
The channels in the water blocks do a good job of dissipating the heat from the copper. Many water blocks of old thought that causing water turbulence directly over the processors needing to be cooled was the best way to dissipate quickly. The channels allow the water to efficiently flow repeatedly over the hottest area of the copper block with more than one pass. When you think about it, the blocks are actually very simple in design but perform very well.
The NB01/P1 Chipset
water block kept the chipset very, very cool. The block's sheer size, surface
area, and water movement are definitely all working together well. Some longer
video cards may end up pressing against the water block, so keep that in mind as
you plan your system layout. As for the GPU block the
temps were also well within what one would expect since the video card GPU gets
very hot, especially with the endless benchmarks it has to endure.
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