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Reddy, P. Nithish, Verma, Vikas, Kumar, Ashwani, Awasthi, Mukesh. (1402). CFD Simulation and Thermal Performance Optimization of Channel Flow with Multiple Baffles. نشریه هنرهای کاربردی, 10(2), 257-268. doi: 10.22075/jhmtr.2023.31108.1458
P. Nithish Reddy; Vikas Verma; Ashwani Kumar; Mukesh Kumar Awasthi. "CFD Simulation and Thermal Performance Optimization of Channel Flow with Multiple Baffles". نشریه هنرهای کاربردی, 10, 2, 1402, 257-268. doi: 10.22075/jhmtr.2023.31108.1458
Reddy, P. Nithish, Verma, Vikas, Kumar, Ashwani, Awasthi, Mukesh. (1402). 'CFD Simulation and Thermal Performance Optimization of Channel Flow with Multiple Baffles', نشریه هنرهای کاربردی, 10(2), pp. 257-268. doi: 10.22075/jhmtr.2023.31108.1458
Reddy, P. Nithish, Verma, Vikas, Kumar, Ashwani, Awasthi, Mukesh. CFD Simulation and Thermal Performance Optimization of Channel Flow with Multiple Baffles. نشریه هنرهای کاربردی, 1402; 10(2): 257-268. doi: 10.22075/jhmtr.2023.31108.1458

CFD Simulation and Thermal Performance Optimization of Channel Flow with Multiple Baffles

Journal of Heat and Mass Transfer Research
دوره 10، شماره 2 - شماره پیاپی 20، بهمن 2023، صفحه 257-268    اصل مقاله (1.03 M)
نوع مقاله: Full Length Research Article
شناسه دیجیتال (DOI): 10.22075/jhmtr.2023.31108.1458
نویسندگان
P. Nithish Reddy1؛ Vikas Verma2؛ Ashwani Kumar3؛ Mukesh Kumar Awasthi* 4
1Department of Mechanical Engineering, Sreenidhi Institute of Science and Technology, Hyderabad, 501301, India
2Department of Energy, Tezpur University, Assam, 784028, India
3Department of Mechanical Engineering, Technical Education Department Uttar Pradesh, Kanpur, 208024, India
4Department of Mathematics, Babasaheb Bhimrao Ambedkar University, Lucknow, 226001, India
تاریخ دریافت: 10 تیر 1402،  تاریخ بازنگری: 18 آبان 1402،  تاریخ پذیرش: 18 آبان 1402 
چکیده
Channel flow with baffles is a multifaceted phenomenon with wide-ranging applications. It plays a crucial role in enhancing mixing, heat transfer, and other fluid dynamics processes. The baffles' design and placement within the channel are crucial to achieving the desired heat transfer enhancement. Based on the specific application and fluid properties, such as baffle geometry, spacing, and orientation must be considered. This work aims to visualize, evaluate, and understand the effectiveness of baffles on heat transfer rates under various operating conditions and design parameters.  Computational Fluid Dynamic (CFD) investigations were carried out to examine the performance of channels for various geometrical configurations including Broken V-shaped, Circular, and triangular at wide operating conditions, and baffle number densities. Computational fluid dynamic (CFD) simulations were carried out for three different baffle shapes while the Reynolds number (Re) ranged from 1800 to 22000 and the no. of baffle sets(N), varied as N=15,20,30. At low Re conditions channel with 30 sets of Broken-V-shape baffles results in a higher Nusselt number due to effective turbulence enhancement and mixing in the channel. Although the thermal performance of a V-shaped baffles case is relatively good the friction factor is more for this case. Triangular baffles exhibited a lower friction factor. A maximum friction factor of 0.92 is observed for N=30 sets at Re= 1800 while the least of 0.76 is recorded for N=15.
کلیدواژه‌ها
CFD simulation؛ Rectangular channel؛ V-shaped baffles؛ Turbulence
مراجع
  1. Ameur, H., 2019. Effect of the baffle inclination on the flow and thermal fields in channel heat exchangers.Results in Engineering, 3,100021.
  2. Abrofarakh, M. and Moghadam, H., 2023. Numerical study on thermo-hydraulic performances of hybrid nanofluids flowing through a corrugated channel with metal foam. Journal of heat and mass transfer research, 10(1), pp.147-158.
  3. Rana, S., Kumar, A., 2018. FEA Based Design and Thermal Contact Conductance Analysis of Steel and Al Rough Surfaces. International Journal of Applied Engineering Research (IJAER), Volume 13, Number 16, pp. 12715-12724, ISSN 0973-4562.
  4. Kumar, A., Saini, R.P. and Saini, J.S. ,2012. Experimental investigation on heat transfer and fluid flow characteristics of airflow in a rectangular duct with Multi V-shaped rib with gap roughness on the heated plate. Solar Energy, 86, pp.1733–1749.
  5. Moon, M., Park, M. and Kim, K. ,2014. Evaluation of heat transfer performances of various rib shapes. Journal of Heat and Mass Transfer, 71, 275–284
  6. Ajibade, A. Ojeagbase, P.O., 2020. Effect of viscous dissipation on steady natural convection heat and mass transfer in a vertical channel with variable viscosity and thermal conductivity. Journal of Heat and Mass Transfer, 7(2),105-116.
  7. Mith, E., Arnut, P., Khwanchit, W., Monsak, P., Naoki, M. and Masafumi, H. ,2023. Thermal evaluation of flow channels with perforated-baffles.Energy Reports, 9, 525–532.
  8. Li, Z., Sun, S., Wang, C., Liang, C., Zeng, S., Zhong, T., Hu, W. and Feng, C. ,2022. The effect of trapezoidal baffles on heat and flow characteristics of a cross-corrugated triangular duct.Case Studies in Thermal Engineering, 33, p.101903.
  9. Dash, A.P., Alam, T., Siddiqui, M.I.H., Blecich, P., Kumar, M., Gupta, N.K., Ali, M.A. and Yadav, A.S., 2022. Impact on heat transfer rate due to an extended surface on the passage of microchannel using cylindrical ribs with varying sector angle. Energies, 15(21), p.8191.
  10. Raj, K., Ranchan, C., Muneesh, S. and Anil, K., 2017. Experimental study and correlation development for Nusselt number and friction factor for discretized broken V-pattern baffle solar air channel. International Journal of Thermal Sciences, 81, pp.56–75.
  11. Karima, B., Houari, A., Djamel, S. and Mohamed, , 2016. Effect of the perforation design on the fluid flow and heat transfer characteristics of a plate-fin heat exchanger.Experimental Thermal and Fluid Science, 126, pp. 0894–1777.
  12. Fawaz, H.E., Badawy, M.T.S., AbdRabbo, M.F. and Amr, , 2017. Numerical investigation of fully developed periodic turbulent flow in a square channel fitted with 450 in-line V-baffle turbulators pointing upstream. Alexandria Engineering Journal, 57(2), pp.633-642.
  13. Peng, W., Jiang, P.X., Wang, Y.P. and Wei, B.Y., 2011. Experimental and numerical investigation of convection heat transfer in channels with different types of ribs. Applied Thermal Engineering, 31(14-15), pp.2702-2708.
  14. Pongjet, P., Wayo, C., Sutapat, K. and Chinaruk, , 2011. Numerical heat transferstudy of turbulent square-duct flow through inline V-shaped discrete ribs. International Communications in Heat and Mass Transfer, 38, pp.1392–1399.
  15. Wen, J. and Li, Y., 2004. Study of flow distribution and its improvement on the header of plate- fin heatexchanger.Cryogenics, 44, pp. 823–831.
  16. Guo, D., Liu, M., Xie, L. and Wang, J., 2014. Optimization in plate-fin safety structureofheat exchanger using genetic and Monte Carlo algorithm.Applied Thermal Engineering, 70, pp.341–349.
  17. Taler, D. and Ocłoń, P., 2014. Thermal contact resistance in plate fin-and-tube heat exchangers, determined by experimental data and CFD simulations.International Journal of Thermal Sciences, 84, pp. 309–322.
  18. Li, J.L., Tang, H.W. and Yang, Y.T., 2018. Numerical simulation and thermal performance optimization of turbulent flow in a channel with multi V-shaped baffles. International Communications in Heat and Mass Transfer, 92, pp.39-50.
  19. Chai, L. and Wang, L., 2018. Thermal-hydraulic performance of interrupted microchannel heatsinks with different rib geometries in transverse microchambers.International Journal of Thermal Sciences, 127, pp. 201–212.
  20. Dogan, A., 2020. Thermohydraulic performance study of different square baffle angles in the cross-corrugated channel.Journal of Energy Storage, 28, p.101295.
  21. Ajeel, K., Salim, W.S.-I.W. and Hasnan, K., 2019. Influences of geometrical parameters on the heat transfer characteristics through symmetry trapezoidal-corrugated channel using SiO2-water nanofluid.International Communications in Heat and Mass Transfer, 101, pp. 1–9.
  22. Ajeel, K., Saiful-Islam, W., Sopian, K. and Yusoff, M.Z., 2020. Analysis of thermal-hydraulic performance and flow structures of nanofluids across various corrugated channels: An experimental and numerical study. Thermal Science and Engineering Progress, 19, p.100604.
  23. Ajeel, K., Sopian, K. and Zulkifli, R., 2021. A novel curved-corrugated channel model: Thermal-hydraulic performance and design parameters with nanofluid.International Communications in Heat and Mass Transfer, 120, pp. 105037.
  24. Ajeel, K., Sopian, K. and Zulkifli, R., 2021. Thermal-hydraulic performance and design parameters in a curved-corrugated channel with L-shaped baffles and nanofluid. Journal of Energy Storage, 34, p.101996.
  25. Ajeel, K., Zulkifli, R., Sopian, K., Fayyadh, S.N., Fazlizan, A. and Ibrahim, A., 2021. Numerical investigation of binary hybrid nanofluid in new configurations for curved-corrugated channel by thermal-hydraulic performance method. Powder Technology, 385, pp.144–159.
  26. Hamad, A.J. and Ajeel, R.K., 2022.Combined effect of obliqueribs and a nanofluid on the thermal-hydraulicperformance of a corrugatedchannel: Numerical study.Journal of Engineering Physics and Thermophysics, 95, pp. 970–978.
  27. Ajeel, K., Sopian, K., Zulkifli, R., Fayyadh, S.N. and Kareem Hilo, A.K., 2021. Assessment and analysis of binary hybrid nanofluid impact on new configurations for curved-corrugated channel. Advanced Powder Technology, 32, pp. 3869–3884.
  28. Ajeel, K., Salim, W.S.-I.W. and Hasnan, K., 2019. Design characteristics of symmetrical semicircle-corrugated channel on heat transfer enhancement with nanofluid.International Journal of Mechanical Sciences, 151, pp.236–250.
  29. Ajeel, K., Salim, W.S.-I., Sopian, K., Yusoff, M.Z., Hasnan, K., Ibrahim, A. and Al-Waeli, A.H.A., 2019. Turbulent convective heat transfer of silica oxide nanofluid through corrugated channels: An experimental and numerical study. International Journal of Heat and Mass Transfer, 145, p.118806.
  30. Promvonge, and Skullong, S., 2019. Heat transfer augmentation in solar receiver heat exchanger with hole-punched wings. Applied Thermal Engineering, 155, pp.59–69.
  31. Dogan, and Erzincan, S., 2023. Experimental investigation of thermal performance of novel type vortex generator in rectangular channel.International Communications in Heat and Mass Transfer, 144, p.106785.
  32. Demirağ, Z., Doğan, M. and İğci, A.A., 2023. The experimental and numerical investigation of novel type conic vortex generator on heat transfer enhancement.International Journal of Thermal Sciences, 191, p.108383.
  33. Sharma, V.R., S, S.S., N, M. and M S, M., 2022. Enhanced thermal performance of tubular heat exchanger using triangular wing vortex generator. Cogent Engineering, 9(1).
  34. Dutt, N., Hedau, A.J., Kumar, A., Awasthi, M.K., Singh, V.P. and Dwivedi, G., 2023. Thermo-hydraulic performance of solar air heater having discrete D-shaped ribs as artificial roughness. Environmental Science and Pollution Research, 1-22.
  35. Singh, V.P., Jain, S., Karn, A., Dwivedi, G., Alam, T. and Kumar, A., 2023. Experimental Assessment of Variation in Open Area Ratio on Thermohydraulic Performance of Parallel Flow Solar Air Heater. Arab J Sci Eng, 48, pp. 11695–11711.
  36. Singh, V.P., Jain, S., Karn, A., Dwivedi, G., Kumar, A., Mishra, S., Sharma, N.K., Bajaj, M., Zawbaa, H.M. and Kamel, S., 2022. Heat transfer and friction factor correlations development for double pass solar air heater artificially roughened with perforated multi-V ribs. Case Studies in Thermal Engineering, 39, p.102461.
  37. Singh, V.P., Jain, S., Kumar, A., Establishment of correlations for the thermo-hydraulic parameters due to perforation in a multi-V rib roughened single pass solar air heater. Experimental Heat Transfer,36(5), pp.597-616. 
  38. Dutt, N., Kumar, R. and Murugesan, K. 2023. Experimental Performance Analysis of Multi-Parabolic Flat Plate Solar Collector. In: Li, X., Rashidi, M.M., Lather, R.S., Raman, R. (eds) Emerging Trends in Mechanical and Industrial Engineering. Lecture Notes in Mechanical Engineering. Springer, Singapore.
  39. Singh, A.R., Solanki, A.K. and Dutt, N., 2023. Heat transfer and pressure drop penalty study in flattened micro-finned tubes. In Advances in Mathematical and Computational Modeling of Engineering Systems (pp. 279-293). CRC Press.
  40. Verma, V., 2021. Optimization of Multi-Parabolic Profile Flat-Plate Solar Collector for Space-Heating Application. In Advances in Energy Technology: Proceedings of ICAET 2020 (pp. 189-201). Springer Singapore. https://doi.org/10.1007/978-981-15-8700-9_18.
  41. Pachori, H., Baredar, P., Sheorey, T., Gupta, B., Verma, V., Hanamura, K. and Choudhary, T.,2023. Sustainable approaches for performance enhancement of the double pass solar air heater equipped with energy storage system: A comprehensive review, Journal of Energy Storage, 65, p.107358.
  42. Ajeel, K., Salim, W.S.-I.W. and Hasnan, K., 2019. Experimental and numerical investigations of convection heat transfer in corrugated channels using alumina nanofluid under a turbulent flow regime. Chemical Engineering Research and Design, 148, pp. 202–217.
  43. Ajeel, K., Salim, W.S.-I.W. and Hasnan, K., 2019. Thermal performance comparison of various corrugated channels using nanofluid: Numerical study.Alexandria Engineering Journal, 58, pp. 75–87.
  44. Eiamsa-ard, S., Phila, A., Wongcharee, K., Pimsarn, M., Maruyama, N. and Hirota, M., 2023. Thermal evaluation of flow channels with perforated-baffles. Energy Reports, 9, pp.525-532.
  45. Reddy, N. and Murugesan, K., 2018. Numerical Study of Vorticity and Heat Flow in Bottom Heated DDC Systems at Nominal Rayleigh Number. Journal of Applied Fluid Mechanics, 11(2), pp.309-322.
  46. Awasthi, M,K., Dutt, N., Kumar, A., Kumar, S., 2023. Electrohydrodynamic capillary instability of Rivlin–Ericksen viscoelastic fluid film with mass and heat transfer. Heat Transfer. pp.1‐19.
  47. Chandra, A. S., Reddy, P. N. and Rajan, H., 2022. Natural ventilation in a lege space with heat source: CFD visualization and taguchi optimization. Journal of Thermal Engineering, 8(5), pp.642-655.
  48. Awasthi, M. K., 2014. Nonlinear analysis of capillary instability with mass transfer through porous media. The European Physical Journal Plus, 129, pp.1-11.
  49. Yadav, D., Awasthi, M. K., Al-Siyabi, M., Al-Nadhairi, S., Al-Rahbi, A., Al-Subhi, M., Ragoju, R., and Bhattacharyya, K., 2022. Double diffusive convective motion in a reactive porous medium layer saturated by a non-Newtonian Kuvshiniski fluid. Physics of Fluids, 34(2).
  50. Saha, A.C., Verma, V., Tarodiya, R., Mahboob, M.R., Kumar, R., 2021. Analytical modeling of a radiant cooling system for thermal performance analysis. Materials Today: Proceedings, 47(10), pp. 2474-2480.
  51. Reddy, N., and Murugesan, K., 2016. Numerical Study of Double-Diffusive Convection in a Heated Lid-Driven Cavity with Mass Diffusive Side Walls. Computational Thermal Sciences: An International Journal, 8(4), pp.381-398.
  52. Reddy, N., Murugesan, K., 2017. Finite element study of DDNC in bottom heated enclosures with mass diffusive side walls. Frontiers in heat and mass transfer, 8, pp.1-11.
  53. Thangavel, S., Verma, V., Tarodiya, R., Kaliyaperumal, P., 2021. A study on optimization of horizontal ground heat exchanger parameters for space heating application. Materials Today: Proceedings, 47(10), pp. 2293-2298.
  54. Kumar, R., Kumar, S., Nadda, R., Kumar, K. and Goel, V., 2022. Thermo-hydraulic efficiency and correlation development of an indoor designed jet impingement solar thermal collector roughened with discrete multi-arc ribs. Renewable Energy, 189, pp. 1259-1277,
  55. Kumar, R., Nadda, R., Kumar, S., Saboor, S., C. Saleel, C., Abbas, M., Afzal, A. and Linul E., 2023. Convective heat transfer enhancement using impingement jets in channels and tubes: A comprehensive review. Alexandria Engineering Journal, 70, pp.349-376.
  56. Kumar, R., Nadda, R., Rana, A., Chauhan, R., Chandel, S.S., 2020. Performance investigation of a solar thermal collector provided with air jets impingement on multi V-shaped protrusion ribs absorber plate. Heat Mass Transfer 56, 913–930. https://doi.org/10.1007/s00231-019-02755-2.
  57. Kumar, R., Kumar, R., Kumar, S., Thapa, S., Sethi, M., Fekete, G. and Singh, T., 2022. Impact of artificial roughness variation on heat transfer and friction characteristics of solar air heating system. Alexandria Engineering Journal, 61(1), pp.481-491.
  58. Kumar R., Rahul Nadda, Kumar S., Razak A., Sharifpur M, Hikmet S. Aybar, C Ahamed S. and Asif A., 2022. Influence of artificial roughness parametric variation on thermal performance of solar thermal collector: An experimental study, response surface analysis and ANN modelling. Sustainable Energy Technologies and Assessments, 52, pp. 102047
  59. Singh, S., Behura, S.K., Kumar, A. and Verma, K. eds., 2022. Nanomanufacturing and Nanomaterials Design: Principles and Applications. CRC Press.
  60. Kumar, A., Kumar, A. and Kumar, A., 2023. Introduction to Optics and Laser-Based Manufacturing Technologies. In Laser-based Technologies for Sustainable Manufacturing (pp. 1-43). CRC Press.
  61. Dewangan, A.K., Moinuddin, S.Q., Cheepu, M., Sajjan, S.K., Kumar, A., 2023. Thermal Energy Storage: Opportunities, Challenges and Future Scope. In Thermal Energy Systems: Design, Computational Techniques and Applications (pp. 17-28). CRC Press.
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