Abstract
Energy and materials saving considerations, as well as economic incentives, have led to efforts to produce more efficient heat exchange equipment. Common thermal-hydraulic goals are to reduce the size of a heat exchanger required for a specified heat duty, to upgrade the capacity of an existing heat exchanger, to reduce the approach temperature difference for the process streams, or to reduce the pumping power. The first two objectives translate to an increase in the average heat flux of the heat exchanger, or the encouragement of high heat fluxes. In the case of systems with a specified heat dissipation, the goal is to cool the device, or accommodate a high heat flux, at moderate temperature difference. Implicit in these objectives, energy reduction (improvement of first law efficiency) and temperature difference reduction (improvement of second law efficiency) are important to global environmental protection.
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References
Bergles, A.E., Jensen, K., and Shome, B., Bibliography on Enhancement of Convective Heat and Mass Transfer, RPI Heat Transfer Laboratory Report HTL-23 (1995).
Bergles, A.E., Techniques to Augment Heat Transfer, Handbook of Heat Transfer Applications (Eds. W. M. Rohsenow, J. P. Harnett, and E. N. Ganic) McGraw-Hill, New York, NY, 3-1–3-80, (1985).
Bergles, A.E., Heat Transfer Enhancement — The Encouragement and Accommodation of High Heat Fluxes, Journal of Heat Transfer, 119, (1997), 8–19.
Thome, J.R., Enhanced Boiling Heat Transfer, Hemisphere, New York, NY, (1990).
Webb, R.L., Principles of Enhanced Heat Transfer, Wiley, New York, NY, (1994).
Bergles, A..E., Survey and Evaluation of Techniques to Augment Convective Heat and Mass Transfer, Progress in Heat and Mass Transfer, 1, Pergamon, Oxford, England, (1969).
Bergles, A.E., Blumenkrantz, A.R., and Taborek, J., Performance Evaluation Criteria for Enhanced Heat Transfer Surfaces, Heat Transfer 1974, The Japan Society of Mechanical Engineers, Tokyo, II, (1974), 234–238.
Ravigururajan, T.S. and Bergles, A.E., General Correlations for Pressure Drop and Heat Transfer for Single-Phase Turbulent Flow in Internally Ribbed Tubes, Augmentation of Heat Transfer in Energy Systems, ASME, New York, HTD-52 (1985), 9–20.
Carnavos, T.C., Heat Transfer performance of Internally Finned Tubes in Turbulent Flow, Advances in Advanced Heat Transfer, ASME, New York, (1979), 61–67.
Champagne, P.R. and Bergles, A.E., A Novel, Variable Roughness Techhnique to Enhance, on Demand, Heat Transfer in a Single-phase Heat Exchanger, to be presented at the 11th Int. Heat Transf. Conf., Kyongju, Korea, August 1998.
Pate, M.B., Ayub, Z.H., and Kohler, J., Heat Exchangers for the Air-Conditioning and Refrigeration Industry: State-of-the-Art Design and Technology, Compact Heat Exchangers, Hemisphere, New York, NY (1990), 567–590.
Tong, W., Bergles, A.E., and Jensen, M.K., Critical Heat Flux and Pressure Drop of Subcooled Flow Boiling in Small-Diameter Tubes with Twisted-Tape Inserts, Journal of Enhanced Heat Transfer, 3, (1996), 95–108.
Mori, Y., Hijikata, K., Hirasawa, S, and Nakayama, W., Optimized Performance of Condensers with Outside Condensing Surfaces, Journal of Heat Transfer 103 (1981), 96–102.
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© 1999 Springer Science+Business Media Dordrecht
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Bergles, A.E. (1999). Advanced Enhancement for Heat Exchangers. In: Bejan, A., Vadász, P., Kröger, D.G. (eds) Energy and the Environment. Environmental Science and Technology Library, vol 15. Springer, Dordrecht. https://doi.org/10.1007/978-94-011-4593-0_3
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DOI: https://doi.org/10.1007/978-94-011-4593-0_3
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