ELIMINATING CONDENSATION IN SOCKET MOTHER BOARDS AND ADAPTERS

Step 1. Fill the socket cavity approximately half way with silicone II (made by GE).

Step 1(continued). Notice that we put slightly more compound in the center.

Step 2.  Place the neoprene patch and rub it gently to smooth the compound underneath. Be careful not to press too hard to prevent making a dip into the compound. You want a nice flat surface.

Step 3. Seal the base of the socket with a bead of silicone. Be careful to fill all the interstices.  Smooth the silicone with your wet finger (saliva works great).

Step 3 (continued) .  Here is how it looks like when this step is completed.

Step 3 (continued) - Another look at this step on a socket adapter. Notice that we put less silicone under the locking arm otherwise it wouldn't lock in place once the compound is dry. Also notice that the space under the tabs has been completely filled. This only  applies if  you will be using the adapter  with one of our MC1001, MC2001 or MCW2000 coolers.  For socket coolers, such as the MC370 and the MCW370 water block, the silicone under the tabs should be removed to allow the straps to properly grab the tab, as shown in step 4.

Step 4. Remove the excess silicone under the center tabs. We use one of the straps that comes with our cooler. It fits perfectly and removes only what is necessary. Don't forget to clean up the strap once done!

Step 4 (continued). This is how it looks once the silicone has been removed from under the tab. 

Step 5. Now is time to relax, and let the silicone cure. The amount of time depends on the type of product you use, and you should follow the manufacturer's instructions in this respect. It is important to be patient here, otherwise the socket will leak if the silicone has not cured enough.

Step 6. CPU preparation - We also lightly coat the components underneath Intel® CPU's. This area is particularly sensitive to shorts. It is critical to keep the coating as thin as possible, otherwise the CPU will not sit flat in the socket once the silicone has dried up it will interfere with the neoprene gasket 

Step 7.  To prevent condensation to occur inside the socket pin holes, we fill it out with dielectric grease. This flushes out the air inside the pin holes. It does not interfere with the contacts between the CPU pins and the  socket. 

Step 7 (continued) - Push the grease inside the holes with your finger 

 

Step 8 - Insert the CPU, and finish off sealing it to the socket with a bead of silicone all around the edge.  Notice how the locking arm is now completely encased in silicone. 

Step 9  - This last image shows the  MCW370 water block installed in an Asus A7V motherboard. The entire base of the cooler is completely encased in a generous coat of silicone compound. Overkill ? not if you consider that we have measured temperatures of -25C on Intel® CPU's at idle. Over a prolonged period of time, the edge of the CPU which is normally exposed to air would be covered with condensation, which could eventually drip down onto the motherboard. We need to emphasize that this final step is not necessary for our MC370-3 and -4 coolers. They do not generate enough cold to create condensation on the edge of the CPU. Only the water block has sufficient cooling power to justify such extreme measures. An alternative solution to siliconing the edge of the CPU is to install a mini blower on the chipset, with the air flowing towards the  the base of the socket. 

Step 10 - Consists in spraying the back of the motherboard with a generous coat of conformal coating. Again, this step is only warranted if you use our MCW370 water block. We spray approximately 3 inches all around the back of the socket area. Cold will travel through the socket and spread to the motherboard. This ensures that any condensation that might form there will not cause any damage.

Step 11 and final - Once the conformal coating has cured, stick the neoprene patch provided with our cooler immediately behind the socket. This will insulate completely the back of the socket area, which is most exposed to cold and  therefore subject to condensation.