Enhance the Efficiency of Heat Exchanger with Helical Baffle

Sagar KaduProfessor, Mechanical Engg Dept, SIES Graduate School of Technology, Nerul, Navi Mumbai-400706, IndiaMonash MhatreFinal Year B.E Student, Mechanical Engg Dept, SIES Graduate School of Technology, Nerul, Navi Mumbai-400706, IndiaAadhityasagarFinal Year B.E Student, Mechanical Engg Dept, SIES Graduate School of Technology, Nerul, Navi Mumbai-400706, IndiaAugussilvastarFinal Year B.E Student, Mechanical Engg Dept, SIES Graduate School of Technology, Nerul, Navi Mumbai-400706, IndiaSiddhart NagiFinal Year B.E Student, Mechanical Engg Dept, SIES Graduate School of Technology, Nerul, Navi Mumbai-400706, India

Vol 2 No 3 (2018): Volume 2, Issue 3, May 2018 | Pages: 15-26

International Research Journal of Innovations in Engineering and Technology

OPEN ACCESS | Research Article | Published Date: 04-05-2019

doi Logo

Abstract

In this project work the analyze of heat exchanger been done by ANSYS FLUENT. Shell and tube heat exchanger has been widely used in many industrial applications such an electric power generation, Refrigeration and environmental protection and Chemical Engineering. Baffle is a shell side component of shell and tube heat exchanger. Helical baffle have an effective performance of increasing heat transfer performance. The desirable features of heat exchanger obtain maximum heat transfer coefficient and a lower pressure drop. From the numerical experimentation results of heat exchanger is increased in helical baffle, which in turn decrease the time for cooling the product with lesser time.

Keywords

Heat Transfer Coefficient, Helical Baffle, Fluent Ansys


Citation of this Article
References
  1. Chueng, F, Limiting factors for external reactor vessel cooling. Nucl Technolgy, 145-161, 2005.
  2. al, L. C, Irreversible absorption heat-pump and its optimal performance. appl Energy, 55-71, 2005.
  3. al, S. I, Conceptual design and cooling blade development. American society of mechanical Engineers, 45-56, 2003.
  4. Gregorig, R, Film condensation of fine grooved surfaces with consideration of surface tension. ZAMP, 36-49, 1954.
  5. M.A Hafiz, B. A, Condensation heat transfer on pin-fins tubes. Application Therm Eng, 465-471, 2003.
  6. Salimpour, M, Heat transfer coefficient of shell and tube heat exchanger. Exp Thermal Sci, 203-207, 2008.
  7. Thomas, D, Enhancement of film condensation heat transfer rates on vertical tubes by vertical wires. Ind.Eng.Chem.Fundam, 97-103, 1967.
  8. Wang, Q, Numerical investigation on combined multiple pass shell and tube heat exchanger. Heat Mass Transfer, 1214-1222, 2009.
  9. Y.L An, L. Z, Study on heat transfer and flow resistance characteristics of spiral groove tube with staggered tube bundle. Therm Power Eng, 358-361, 2009.