Heat Transfer Augmentation
##plugins.themes.bootstrap3.article.main##
This article presents a brief review of various methodologies applied for heat transfer enhancement in laminar flow convection regime. Experimental setup for laminar flow convection heat transfer enhancement using insertions has been explained along with the associated results. Nusselt’s number is found to be a key parameter for investigatigation in order to perceive the enhancement in heat transfer. Similarly, the magnetohydrodynamic mixed convection heat transfer enhancement technique has also been explored. The results of isotherms and fluid flow parameters are discussed which directly affect the heat transfer coefficient. This review article complements the literature in related field and thus will be helpful in order to carry out further experiments in heat transfer enhancement in future.
Downloads
References
-
Arsenyeva, O. P., Tovazhnyansky, L. L., Kapustenko, P. O., & Khavin, G. L. (2011). Optimal design of plate-andframe heat exchangers for efficient heat recovery in process industries. Energy, 36(8), 4588-4598.
Google Scholar
1
-
Vasiliev, L. L. (2005). Heat pipes in modern heat exchangers. Applied thermal engineering, 25(1), 1-19.
Google Scholar
2
-
Sunden, B. (2005, September). High temperature heat exchangers (HTHE). In Proceedings of the 5th International Conference on Science, Engineering and Technology, VIT University, Vellore, India.
Google Scholar
3
-
Balat, M. (2005). Current alternative engine fuels. Energy Sources, 27(6), 569-577.
Google Scholar
4
-
Murugesan, A., Umarani, C., Subramanian, R., & Nedunchezhian, N. (2009). Bio-diesel as an alternative fuel for diesel engines—a review. Renewable and sustainable energy reviews, 13(3), 653-662.
Google Scholar
5
-
Poudel, S., & Deb, D. Study of Modified Internal Combustion Engine to Run with Ethanol. International Journal of Engineering and Applied Sciences, 4(8).
Google Scholar
6
-
Gupta, K. K., Rehman, A., & Sarviya, R. M. (2010). Biofuels for the gas turbine: A review. Renewable and Sustainable Energy Reviews, 14(9), 2946-2955.
Google Scholar
7
-
Babrauskas, V. (2006). Effective heat of combustion for flaming combustion of conifers. Canadian Journal of Forest Research, 36(3), 659-663.
Google Scholar
8
-
Cartellieri, W., Chmela, F. G., Kapus, P. E., & Tatschl, R. M. (1994). Mechanisms leading to stable and efficient combustion in lean burn gas engines. In Proceedings of International Symposium COMODIA.
Google Scholar
9
-
Singh, S. (2001). U.S. Patent No. 6,237,579. Washington, DC: U.S. Patent and Trademark Office.
Google Scholar
10
-
Sarma, P. K., Subramanyam, T., Kishore, P. S., Rao, V. D., & Kakac, S. (2003). Laminar convective heat transfer with twisted tape inserts in a tube. International Journal of Thermal Sciences, 42(9), 821-828.
Google Scholar
11
-
Ahmed, M. A., Shuaib, N. H., Yusoff, M. Z., & Al-Falahi, A. H. (2011). Numerical investigations of flow and heat transfer enhancement in a corrugated channel using nanofluid. International Communications in Heat and Mass Transfer, 38(10), 1368-1375.
Google Scholar
12
-
Manglik, R. M., & Bergles, A. E. (1993). Heat transfer and pressure drop correlations for twisted-tape inserts in isothermal tubes: part I—laminar flows.
Google Scholar
13
-
Manglik, R. M., & Bergles, A. E. (1993). Heat transfer and pressure drop correlations for twisted-tape inserts in isothermal tubes: Part II—Transition and turbulent flows. Journal of Heat Transfer, 115(4), 890-896.
Google Scholar
14
-
Wang, L., & Sunden, B. (2002). Performance comparison of some tube inserts. International Communications in Heat and Mass Transfer, 29(1), 45-56.
Google Scholar
15
-
Thakur, R. K., Vial, C., Nigam, K. D. P., Nauman, E. B., & Djelveh, G. (2003). Static mixers in the process industries—a review. Chemical engineering research and design, 81(7), 787-826.
Google Scholar
16
-
Evans, L. B. (1962). The effect of axial turbulence promoters on heat transfer and pressure drop inside a tube.
Google Scholar
17
-
Deb, D., & Poudel, S. (2017). Investigation of Heat Transfer Enhancement in Laminar Flow through Circular Tube by using Combined Wire Coil and Wavy Strip with Central Clearance. IJEAT, 6, 158-164.
Google Scholar
18
-
Dipan Deb, Sajag Poudel, Abhishek Chakrabarti, 2017, Numerical Simulation of Hydromagnetic Convection in a Lid-driven Cavity Containing a Heat Conducting Elliptical Obstacle with Joule Heating, INTERNATIONAL JOURNAL OF ENGINEERING RESEARCH & TECHNOLOGY (IJERT) Volume 06, Issue 08 (August 2017)
Google Scholar
19
-
Dipan Deb, Sajag Poudel, Abhishek Chakrabarti, 2017, Numerical Simulation of Hydromagnetic Convection in a Lid-driven Cavity Containing a Heat Conducting Inclined Elliptical Obstacle with Joule Heating, INTERNATIONAL JOURNAL OF ENGINEERING RESEARCH & TECHNOLOGY (IJERT) Volume 06, Issue 10 (October 2017)
Google Scholar
20
-
Tong, L. S. (2018). Boiling heat transfer and two-phase flow. Routledge.
Google Scholar
21
-
Dahariya, S., Pai, A. J., Hwang, G., & Betz, A. R. (2019). POOL BOILING HEAT TRANSFER ENHANCEMENT USING SINTERED PARTICLE WICK STRUCTURE. In ASTFE Digital Library. Begel House Inc..
Google Scholar
22
-
Zou, A., Poudel, S., Raut, S. P., & Maroo, S. C. (2019). Pool boiling coupled with nanoscale evaporation using buried nanochannels. Langmuir, 35(39), 12689-12693.
Google Scholar
23
-
Agarwal, S., & Kumar, R. (2019). Advances in Boiling Heat Transfer Enhancement using Micro/Nano Structured Surfaces. European Journal of Engineering Research and Science, 4(11), 82-85.
Google Scholar
24
-
Rahimian, A., Kazeminejad, H., Khalafi, H., Akhavan, A., & Mirvakili, S. M. (2019). Boiling Heat Transfer and Critical Heat Flux Enhancement Using Electrophoretic Deposition of SiO2 Nanofluid. Science and Technology of Nuclear Installations, 2019.
Google Scholar
25
-
Chauhan, A., & Kandlikar, S. G. (2019, October). High Heat Flux Dissipation Using Symmetric Dual-Taper Manifold in Pool Boiling. In ASME 2019 17th International Conference on Nanochannels, Microchannels, and Minichannels. American Society of Mechanical Engineers Digital Collection.
Google Scholar
26