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Tweaking Optimizing Windows.pdf - GEGeek

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5.0x 500Mhz 560Mhz 620Mhz 665Mhz<br />

5.5x 550Mhz 616Mhz 682Mhz 731Mhz<br />

6.0x 600Mhz 672Mhz 744Mhz 798Mhz<br />

6.5x 650Mhz 728Mhz 806Mhz 865Mhz<br />

7.0x 700Mhz 784Mhz 868Mhz 931Mhz<br />

7.5x 750Mhz 840Mhz 930Mhz 997Mhz<br />

8.0x 800Mhz 896Mhz 992Mhz 1.06Ghz<br />

8.5x 850Mhz 952Mhz 1.05Ghz 1.13Ghz<br />

9.0x 900Mhz 1.008Ghz 1.11Ghz 1.19Ghz<br />

9.5x 950Mhz 1.06Ghz 1.17Ghz 1.26Ghz<br />

10.0x 1Ghz 1.12Ghz 1.24Ghz 1.33Ghz<br />

10.5x 1.05Ghz 1.17Ghz 1.30Ghz 1.39Ghz<br />

11.0x 1.10Ghz 1.23Ghz 1.36Ghz 1.46Ghz<br />

COOLING<br />

is the MOST important factor in successful overclocking, running a stable system and keeping your CPU in good shape. If your<br />

overclocked CPU operates at a higher than specs temperature, it will shorten its life and electro migration will eventually occur.<br />

Other side effects of overheating can be random crashes and unstable system. Generally, today's processors are designed to work<br />

between 25 and 100 degrees Celsius ( 77 to 212 Fahrenheit ) and anything outside the temperature range would result in more<br />

unstable system and possible damaging of the CPU. Keep this in mind, cooler is better, try to cool your CPU as much as you can,<br />

put a big fat heatsink on it with a big fan to help. Other, somewhat more extreme cooling options are using a Peltier (drains a lot of<br />

power, active cooling solution), or water cooling kit. Just remember the better cooling solution you choose, the better chances for<br />

successful overclocking you have.<br />

There are many types of cooling systems out there for your CPU. They are usually purchased in the form of Heatsink/Fan combos.<br />

There are combos for Socket A platforms, FCPGA platforms and the regular SECC1 and SECC2 Slot 1 and Slot 2 platforms. They<br />

range in types of huge golden orbs to big square copper or aluminum heatsinks and fans.<br />

One of the most publicized issues with overclocking is the heat. Increasing the clock speed of a CPU will just about always result in<br />

more heat. And increasing the voltage does the same... so increasing the clock speed and voltage can lead to insane heat levels, far<br />

beyond what the CPU is normally used to dealing with. But that shouldn't be too much of an issue for mild overclocking, since<br />

generally, CPUs run at far below their maximum stable temperature. In general, a CPU should be relatively stable so long as the<br />

temperature is below 115ºF. Anything over that could lead to instability on certain CPUs. Some systems can be fine way up to 140<br />

or even 160ºF, but for the most part, try to keep the CPU below 115ºF.<br />

Cool room = cool pc technique<br />

If you live in a house with air conditioning that's constantly being run or your room temperature is far lower than your system's<br />

temperature, you can probably rid most of your heat problems by removing the side panels to your case. If your room is 70ºF, the<br />

air outside your case is probably much cooler than the air inside your case. So remove the panels and you can probably drop the<br />

temperature signficantly. Also, try to keep the PC's area well ventilated. No matter how good your CPU fan, or fans are, the air they<br />

blow onto your CPU can only be as cold as the air in your case. This might sound obvious, but the heat dissipation from your cooler<br />

can be severely disrupted by rising temperatures inside your case. The ATX specification states that air must be drawn into the<br />

case, circulated and then expelled. Although fine in principle, in reality the single fan solutions to be found in most cases means that<br />

the hot air is not exhausted properly and the case temperature continues to rise. You can reduce your case temperature<br />

considerably by simply reversing the direction that your fan works in. In my case I disassembled my power supply, unscrewed the<br />

fan,reversed the direction so that the fan "pointed" outwards, and reassembled. In this way the hot air is drawn out of the case by<br />

the PSU fan, to be replace by cooler air. You can help this process by installing an extra fan to the front or rear of the case, drawing<br />

cool air in. It is well worth installing a secondary fan to draw air in. Positioned near the bottom of the case this will get a nice air<br />

rotation going, and will avoid "hot spots" from building up in the corners! Fans stripped from old PSU's are particularly useful for this<br />

purpose.<br />

Expel hot air at the top ------><br />

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