Advances in Chemical Engineering and Science

Volume 6, Issue 2 (April 2016)

ISSN Print: 2160-0392   ISSN Online: 2160-0406

Google-based Impact Factor: 1.41  Citations  h5-index & Ranking

Design and Construction of a Spiral Heat Exchanger

HTML  XML Download Download as PDF (Size: 2303KB)  PP. 201-208  
DOI: 10.4236/aces.2016.62021    7,649 Downloads   17,011 Views  Citations

ABSTRACT

In this article, the performance and applications of a Spiral Plate Heat Exchanger are demonstrated. Also, governing equation of heat transfer phenomena in such heat exchangers is discussed. Regarding the governing equations, a LAB-sized model of this type of heat exchanger was designed and constructed. Galvanized Iron sheets were used as the heat transfer surfaces. Two Galvanized Iron sheets were rolled together around a central core and, as a result, two separated channels were made. Also, a predesign simulation of the heat exchanger was done using the Fluent software to predict the performance of the heat exchanger. First the geometry was made using Gambit software environment then the model was analyzed through Fluent. Because of less fouling, easier cleaning and high heat transfer coefficient, Spiral Heat Exchanger is a good alternative to the other types of heat exchangers, especially when it’s going to handle high fouling flows or highly viscous fluids. Low fouling rate of the heat exchanger, reduces the need of cleaning and therefore the out of service will be decreased. In the constructed heat exchanger, Nusselt number increases as the mass flow rate increases. Average Nusselt number is about 100 that is very good.

Share and Cite:

Khorshidi, J. and Heidari, S. (2016) Design and Construction of a Spiral Heat Exchanger. Advances in Chemical Engineering and Science, 6, 201-208. doi: 10.4236/aces.2016.62021.

Cited by

[1] Comprehensive review of spiral heat exchanger for diverse applications
Materials Today …, 2022
[2] Effect of design parameters on passive control of heat transfer enhancement phenomenon in heat exchangers–A brief review
Khaled, M Hussain, T Labidi… - Case Studies in Thermal …, 2022
[3] Energy and exergy analysis of spiral turns in optimum design spiral plate heat exchangers
Heat Transfer, 2022
[4] Numerical investigation on thermal-hydraulic performance of a spiral plate heat exchanger
International Communications in Heat and Mass …, 2022
[5] Operator & Fractional Order Based Nonlinear Robust Control for a Spiral Counter-Flow Heat Exchanger with Uncertainties and Disturbances
Machines, 2022
[6] Operator-Based Fractional-Order Nonlinear Robust Control for the Spiral Heat Exchanger Identified by Particle Swarm Optimization
Electronics, 2022
[7] Effect of copper oxide nano fluids as coolant on thermal performance of spiral heat exchanger
IOP Conference …, 2021
[8] GPU Based Modelling and Analysis for Parallel Fractional Order Derivative Model of the Spiral-Plate Heat Exchanger. Axioms 2021, 10, 344
Fractional Calculus, 2021
[9] Analisis Perpindahan Panas pada Kondensor dengan Metode Lmtd pada Proses Pirolisis Ampas Kelapa
2021
[10] EVALUASIPERFORMASPIRALHEATEXCHANGERHE-201 PADAUNITDEMONOMERISASI
DISTILAT: JURNAL …, 2021
[11] Thermal–hydraulic efficiency management of spiral heat exchanger filled with Cu–ZnO/water hybrid nanofluid.
2021
[12] Energy, exergy, and hydrodynamic performance of a spiral heat exchanger: Process intensification by a nanofluid containing different particle shapes
2021
[13] Review on Thermal Performance Enhancement Techniques of Latent Heat Thermal Energy Storage (LHTES) System for Solar and Waste Heat Recovery Applications
2021
[14] EVALUASI PERFORMA SPIRAL HEAT EXCHANGER HE-201 PADA UNIT DEMONOMERISASI
2021
[15] GPU Based Modelling and Analysis for Parallel Fractional Order Derivative Model of the Spiral-Plate Heat Exchanger
Axioms, 2021
[16] Effects of Temperature Differences in Optimization of Spiral Plate Heat Exchangers
2020
[17] Improving the efficiency of spiral heat exchanger based on pressure drop
2020
[18] Computational Fluid Dynamic Studies of Autothermal Spiral Reactor
2020
[19] Thermal–hydraulic efficiency management of spiral heat exchanger filled with Cu–ZnO/water hybrid nanofluid
2020
[20] Qualifying the TIG orbital welding technology of titanium pipes with a perforated bottom
2020
[21] Enhancement the performance of swirl heat exchanger by using vortices and NanoAluminume
2019
[22] Orbital TIG Welding of Titanium Tubes with Perforated Bottom Made of Titanium-Clad Steel
2019
[23] Designing Spiral Plate Heat Exchangers to Extend Its Service and Enhance the Thermal and Hydraulic Performance
2019
[24] Experimental Analysis of Spiral Heat Exchanger: Evaluation of Reynolds Number and Nusselt Number for Acetic Acid–Water System
2018
[25] Power generation alternatives for small scale concentrated solar power plants with energy storage based on Calcium-Looping
2018
[26] THERMAL DESIGN OF SPIRAL PLATE HEAT EXCHANGER THROUGH NUMERICAL MODELLING
International Journal of Mechanical Engineering and Technology, 2018
[27] Thermohydraulic performance analysis of a spiral heat exchanger operated with water–alumina nanofluid: Effects of geometry and adding nanoparticles
Energy Conversion and Management, 2018
[28] Analysis of the Effects of Corrosion in Marine Heat Exchanger Performance in Two Media
2017
[29] Review on heat transfer in spiral heat exchanger
international Journal of scientific and Research …, 2015
[30] Effects of Nanoparticle Size on properties of Nanofluid and Heat Transfer Enhancement in Spiral Exchanger Using Turbulators

Copyright © 2024 by authors and Scientific Research Publishing Inc.

Creative Commons License

This work and the related PDF file are licensed under a Creative Commons Attribution 4.0 International License.