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Dissipation of Heat by Radiation
Transactions of the American Institute of Electrical Engineers, 1930Heat dissipation is an ever-present factor affecting the design and operation of many kinds of electrical equipment. Usually, the problem is to get rid of heat due to losses. Sometimes the problem is how to conserve heat. Radiation, or convection, or conduction, or combinations of these, enter into all cases.
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Dissipative heating in shear plow of the asthenosphere
Fluid Dynamics, 1985zbMATH Open Web Interface contents unavailable due to conflicting licenses.
Maron, V. I., Nikolaevskij, V. N.
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A heat dissipation tutorial for wearable computers
Digest of Papers. Second International Symposium on Wearable Computers (Cat. No.98EX215), 2002Wearable computing brings computation much closer to the user for everyday tasks and may be worn during most of the day. However, with CPU and wireless network intensive applications, higher power microprocessors and radio links are necessary resulting in increased heat generation.
Thad Starner, Yael Maguire
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HEAT DISSIPATION OF PRIMARY AND SECONDARY BATTERIES
Unmanned Spacecraft Meeting 1965, 1965Calorimetric data are given for the heat generated in a 30-Ah nickel-cadmium battery and a 360-Ah silver--zinc battery. Equations are also given to calculate the amount of heat generated. Heat dissipation in the silver(II) oxide region is about 20% less than in the silver(I) oxide region; also for silver--zinc cells, heat dissipation above 21 C ...
M. G. GANDEL, R. H. KINSEY
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The dissipation of frictional heat
Applied Scientific Research, 1955The load-carrying or power-transmitting capacity of many machine parts is decisively affected by the maximum temperatures that occur in the source of frictional heat. In controlling these temperatures, and thus the performance limits concerned, two types of dissipation of frictional heat, which act in series, have to be accounted for: 1.
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MR gradient coil heat dissipation
Magnetic Resonance in Medicine, 1995AbstractThe temperature responses of five different gradient coil designs were modeled using simplified engineering equations and measured. The model predicts that the coil temperature approaches a maximum as an inverse exponential, where the maximum temperature is governed by two parameters: a local power density and a cooling term.
K C, Chu, B K, Rutt
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Heat dissipation at a graphene–substrate interface
Journal of Physics: Condensed Matter, 2012The development of nanoelectronics faces severe challenges from Joule heating, leading to high power density and spatial localization of heat, which nucleates thermal hot spots, limits the maximum current density and potentially causes catastrophic materials failure.
Zhiping, Xu, Markus J, Buehler
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Heat Generation and Dissipation
2013The adverse impact of temperature on device/material reliability has been emphasized often in this book. The degradation rate for most devices/materials tends to accelerate exponentially with increasing temperature. Therefore, for reliability reasons, lower temperature device operation is usually preferred.
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Coronal Heating by Dissipation of Magnetic Structure
Space Science Reviews, 1994Coronal loops are heated by the release of stored magnetic energy and by the dissipation of MHD waves. Both of these processes rely on the presence of internal structure in the loop. Tangled or sheared fields dissipate wave energy more efficiently than smooth fields.
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