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Written by Jeff_Tom
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Sunday, 26 July 2009 17:37 |
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I've posted my review Thermaltake's ISGC-100 heatsink which is near silent in operation and a good choice for anyone looking for a non-massive heatsink replacement. |
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AMD Phenom II Efficiency and Cooler Selection |
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Written by Chris Tom
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Tuesday, 14 April 2009 18:53 |
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ixbt looks at good coolers for the Phenon II. Apparently the Coolermaster Hyper Z600 did the best. You can pick it up here starting at $40. The Phenom II series, especially processors with the TDP of 95W, is really power efficient. On the one hand, there is no real need to replace the stock cooler in the typical mode, because it copes with its task at the lowest noise level. On the other hand, you have an opportunity for various experiments with low-noise and even passive cooling. Or you can overclock the system to impressive frequencies, and cooler selection still won't be a headache. However, we've already noted that installing more powerful air coolers (or liquid coolers) in the overclocked mode does not pursue the goal of lowering temperatures to recommended (acceptable) values, for it does not require any drastic measures. It's done to get temperatures below the recommended values. It often helps to expand the overclocking potential significantly -- overclock a Phenom II to 4GHz and higher, for example. But that's another story that has to do with overclocking sports (that has interesting peculiarities, by the way). For example, if you have a powerful cooling system, it makes more sense to buy a top processor from the 900 series with the TDP of 125W instead of a 95W CPU. The former won't be much hotter in practice, but it will better respond to raising voltage above 1.5V -- by improving its overclocking potential. |
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AMD TFE 2008: Heatpipes and Vapor Chambers |
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Written by Chris Tom
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Friday, 31 October 2008 10:14 |
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The Inquirer is at AMD's TFE 2008. Today they are talking heatpipes and vapor chamber technology they are seeing there. The water boils, moves down the tube, hits a cool spot, and then condenses. The heat is transferred by the vapor from the hot spot, usually a CPU or a GPU, to the cool spot, the fins or heatsink. Simple so far, but how does the water get back from the cool spot where it condenses to the hot spot where it is needed? If you are thinking gravity, you are only partially right, it can work via gravity, but that is a minor portion of the flow. Also, if you rely on gravity, make sure the geek installing your heatpipe doesn't angle the computer wrong or things get very ugly. |
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