Using Tesla turbine for waste heat recovery: Currents status and future directions

키워드

참고문헌 (49)

1. S. A. Hussain, "The per-spective of energy poverty and 1st energy crisis of green transition", Energy, 275, pp.127487~ (2023)[DOI]
2. P. A. Duong, "Energy and exergy analysis of an ammonia fuel cell integrated sys-tem for marine vessels", Energies, 15(9), pp.3331~ (2022)[DOI]
3. P. A. Duong, "Thermal eval-uation of a novel integrated system based on solid oxide fuel cells and combined heat and power production using ammo-nia as fuel", Applied Sciences, 12(12), pp.6287~ (2022)[DOI]
4. P. A. Duong, "Design, mod-elling, and thermodynamic analysis of a novel marine power system based on methanol solid oxide fuel cells, integrated proton exchange membrane fuel cells, and combined heat and power production", Sustainability, 14(19) (2022)[DOI]
5. L. Xiang, "Energy network dispatch optimization under emergency of local energy shortage with web tool for auto-matic large group decision-making", Energy, 120, pp.740~750 (2017)[DOI]
6. J. Song, "One-dimensional model analysis and performance assessment of Tesla turbine", Applied Thermal Engineer-ing, 134, pp.546~554 (2018)[DOI]
7. A. Guha, "The fluid dynamics of the rotat-ing flow in a Tesla disc turbine", European Journal of Me-chanics B, 2013, pp.37, 112~123
8. Y. Sheikhnejad, "Introducing Tesla turbine to enhance energy efficiency of refrigeration cycle", Energy Reports, 6, pp.358~363 (2020)[DOI]
9. S. Šarboh, "The patents of Nikola Tesla", World Patent In-formation, 32(4), pp.335~339 (2010)[DOI]
10. G. Manfrida, "An upgraded Tesla turbine concept for ORC applications", Energy, 158, pp.33~40 (2018)[DOI]
11. D. H. Alonso, "Topology optimization applied to the design of Tesla-type turbine devices", Ap-plied MathematicalModelling, 103, pp.764~791 (2022)[DOI]
12. A. Aghagoli, "CFD modelling and exergy analysis of a heat pump cycle with Tesla turbine using CO2as a working fluid", Applied Thermal Engineering, 178, pp.115587~ (2020)[DOI]
13. P. H. Niknam, "Nu-merical assessment of a two-phase Tesla turbine: Parametric analysis", Applied Thermal Engineering, 197, pp.117364~ (2021)[DOI]
14. L. Ciappi, "Com-putational investigation of the flow inside a Tesla turbine rotor", Energy, 173, pp.207~217 (2019)[DOI]
15. Y. Zhao, "Ex-pansion devices for organic Rankine cycle (ORC) using in low temperature heat recovery: A review", Energy Conver-sion Management, 199, pp.111944~ (2019)[DOI]
16. F. Ji, "Investigation on performance and implementa-tion of Tesla turbine in engine waste heat recovery", Energy Conversion Management, 179, pp.326~338 (2019)[DOI]
17. L. Talluri, "Geometry definition and performance assessment of Tesla turbines for ORC", Energy, 211, pp.118570~ (2020)[DOI]
18. L. Talluri, "Experimental investigation of an Organic Rankine Cycle Tesla turbine working with R1233zd(E)", Applied Thermal Engineering, 174, pp.115293~ (2020)[DOI]
19. Y. Sheikhnejad, "Energy har-vesting by a novel substitution for expansion valves: Special focus on city gate stations of high-pressure natural gas pipe-lines", Energies, 13(4), pp.956~ (2020)[DOI]
20. A. Aghagoli, "CFD modelling and exergy analysis of a heat pump cycle with Tesla turbine using CO2 as a working fluid", Applied Thermal Engineering, 178, pp.115587~ (2020)[DOI]
21. A. Mandal, "Performance analysis of a centi-meter scale Tesla turbine for micro-air vehicles", Proceed-ings of International Conference of Electronics, Communi-cation and Aerospace Technology, pp.62~67 (2017)
22. O. K. Onanuga, "Experimental and analytical analysis of a bladeless turbine of an incompressible fluid in a confined cylinder", Results in Engineering, 6 (2020)[DOI]
23. L. Talluri, "Design and optimization of a Tesla turbine for ORC applications", Appl. Energy, 226, pp.300~319 (2018)[DOI]
24. R. Li, "Experimental study on bladeless turbine using incompressible working medium", Advances in Mechanical Engineering, 9(1), pp.1~12 (2017)[DOI]
25. A. Ganguly, "Waste heat re-covery using Tesla turbines in Rankine cycle power plants: Thermofluid dynamic characterization, performance assess-ment and exergy analysis", Applied Thermal Engineering, 207, pp.118141~ (2022)[DOI]
26. T. W. Choon, "Tesla turbine for energy conversion: An automotive appli-cation", 2012 IEEE Colloquium on Humanities, Science and Engineering, pp.820~825 (2012)
27. Y. Galindo, "Effect of disc spacing and pressure flow on a modifiable Tesla turbine: Experimental and numerical analysis", Applied Thermal Engineering, 192, pp.116792~ (2021)[DOI]
28. M. Zuber, "The Tesla turbine - a comprehensive review", Journal of Advanced Research in Fluid Mechanics and Thermal Sciences, 62(1), pp.122~137 (2019)
29. V. D. Romanin, "Theory and Performance of Tesla Turbines", Ph. D, pp.2012
30. J. Song, "One-dimensional model analysis and performance assessment of Tesla turbine", Applied Thermal Engineer-ing, 134, pp.546~554 (2018)[DOI]
31. S. Sengupta, "Flow of a nanofluid in the mi-crospacing within co-rotating discs of a Tesla turbine", Applied Mathematical Modelling, 40(1), pp.485~499 (2016)[DOI]
32. K. Rusin, "Efficiency based optimization of a Tesla turbine", Energy, 236 (2021)[DOI]
33. R. S. R. Gorla, "Turbomachinery Design and Theory" (2003), Taylor & Francis Group
34. W. Qi, "Disc thickness and spacing distance impacts on flow characteris-tics of multichannel Tesla turbines", Energies, 12(1), pp.44~ (2019)[DOI]
35. G. Manfrida, "A revised Tesla tur-bine concept for ORC applications", Energy Procedia, 129, pp.1055~1062 (2017)[DOI]
36. M. U. S. Khan, "Proposed applications with implementation tech-niques of the upcoming renewable energy resource, the Tesla turbine", Journal of Physics : Conference Series, 439(1) (2013)[DOI]
37. A. Mahmoudi, "A recent review of waste heat recovery by Organic Rankine Cycle", Applied Thermal Engineering, 143, pp.660~675 (2018)[DOI]
38. Y. Zhang, "Thermodynamic analysis of Tesla turbine in Organic Ran-kine Cycle under two-phase flow conditions", Energy Con-version Management, 276, pp.116477~ (2023)[DOI]
39. A. L. R. Thomazoni, "Influence of operational param-eters on the performance of Tesla turbines: Experimental in-vestigation of a small-scale turbine", Energy, 261 (2022)[DOI]
40. L. Pacini, "Computational investigation of partial admis-sion effects on the flow field of a tesla turbine for ORC ap-plications", Energy, 212 (2020)[DOI]
41. A. T. Hoang, "Waste heat recovery from diesel engines based on Organic Rankine Cycle", Applied Energy, 231, pp.138~166 (2018)[DOI]
42. L. Talluri, "Experimental investigation of an Organic Rankine Cycle Tesla turbine working with R1233zd(E)", Applied Thermal Engineering, 174, pp.115293~ (2020)[DOI]
43. M. Sharma, "Exergo-economic environmen-tal analysis of organic Rankine cycle", Materialstoday Pro-ceedings, 46, pp.10368~10371 (2021)[DOI]
44. J. Song, "Performance estima-tion of Tesla turbine applied in small scale Organic Rankine Cycle (ORC) system", Applied Thermal Engineering, 110, pp.318~326 (2017)[DOI]
45. B. Peris, "Performance evaluation of an Organic Rankine Cycle (ORC) for power applications from low grade heat sources", Applied Thermal Engieering, 75, pp.763~769 (2015)[DOI]
46. R. Shi, "System design and control for waste heat recovery of automotive engines based on Organic Rankine Cycle", Energy, 102, pp.276~286 (2016)[DOI]
47. E. G. Engelbrecht, "Modelling phase change in a novel turbo expander for application to heat pumps and refrigera-tion cycles", E3S Web Conferences, 113, pp.1~8 (2019)
48. C. K. Kim, "Performance analysis of bladeless jet propulsion micro-steam turbine for micro-CHP (combined heat and power) systems utilizing low-grade heat sources", Energy, 101, pp.411~420 (2016)[DOI]
49. D. V. Singh, "A review of waste heat re-covery technologies for maritime applications", Energy Conversion Management, 111, pp.315~328 (2016)[DOI]

관련 논문AI추천