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In this paper, we describe ongoing work to investigate the properties of theheat spreader, and its implication on architecture research. In specific, weconduct two experiments to quantify the heat distribution across the surface ofa spreader during normal operation. The first experiment uses T-typethermocouples, to find the temperature difference across different points onthe spreader. We observe about a 6 degree celsius temperature difference onaverage. In the second experiment, we try to capture the temperature gradientsusing an infrared camera. However, this experiment was inconclusive because ofsome practical constraints such as the low emissivity of the spreader. Weconclude that to properly model the spreader, it is necessary to conductdetailed finite element simulations. We describe a method to accurately measurethe thermal conductivity of the heat spreader such that it can be used tocompute the steady state temperature distribution across the spreader.

Three Experiments to Analyze the Nature of the Heat Spreader