[1] Dong, S., Zeng, C., Ariaratnam, S. T., Ma, B., Yan, X., Li, Z., Li, X. Experimental and performance analysis of reverse circulation reaming in horizontal directional drilling, Tunneling and Underground Space Technology, 95, 2019, 103128.
[2] Brendelberger, S., Von Storch, H., Bulfin, B., Sattler, C. Vacuum pumping options for application in solar thermochemical redox cycles – Assessment of mechanical-, jet- and thermochemical pumping systems, Sol. Energy, 141, 2017, 91–102.
[3] Xu, M., Ji, B., Zou, J., Long, X. Experimental investigation on the transport of different fish species in a jet fish pump, Aquac. Eng., 79, 2017, 42–48.
[4] Pellegrini, M., Preda, G., Saccani, C. Application of an innovative jet pump system for the sediment management in a port channel: Techno-economic assessment based on experimental measurements, J. Mar. Sci. Eng., 8, 2020, 686.
[5] Feng, J., Han, J., Hou, T., Peng, X. Performance analysis and parametric studies on the primary nozzle of ejectors in proton exchange membrane fuel cell systems, Energy Sources, Part A Recover. Util. Environ. Eff., 2020, 1–20, doi: 10.1080/15567036.2020.1804489.
[6] El-Sawaf, I.A., Halawa, M.A., Younes, M.A., Teaima, I.R. Study of the Different Parameters That Influence on the Performance of Water Jet Pump, Fifteenth Int. Water Technol. Conf. IWTC 15, 2011, 1–17.
[7] Zhu, Y., Jiang, P. Experimental and analytical studies on the shock wave length in convergent and convergent–divergent nozzle ejectors, Energy Conversion and Management, 88, 2014, 907–14.
[8] Chen, Z., Jin, X., Shimizu, A., Hihara, E., Dang, C. Effects of the nozzle configuration on solar-powered variable geometry ejectors, Solar Energy, 150, 2017, 75–86.
[9] Thongtip, T., Aphornratana S. An experimental analysis of the impact of primary nozzle geometries on the ejector performance used in R141b ejector. Refrigerator, Appl. Therm. Eng., 110, 2017, 89–101.
[10] Rao, S.M.V., Jagadeesh G. Novel supersonic nozzles for mixing enhancement in supersonic ejectors, Appl. Therm. Eng., 71, 2014, 62–71.
[11] Wang, L., Yan, J., Wang, C., Li, X. Numerical study on optimization of ejector primary nozzle geometries, International Journal of Refrigeration, 76, 2017, 219–229.
[12] Hakkaki-Fard, A., Aidoun, Z., Ouzzane, M. A computational methodology for ejector design and performance maximization, Energy Conversion Management, 105, 2015, 1291–1302.
[13] Hwang, J.C., Cho, W., Wu, C., Chiu, K., Lin, C. Numerical and experimental investigation into passive hydrogen recovery scheme using vacuum ejector, Journal of Power Sources, 275, 2015, 539–546.
[14] Wang, X., Xu, S., Xing, C. Numerical and experimental investigation on an ejector designed for an 80 Kw polymer electrolyte membrane fuel cell stack, Journal of Power Sources, 415, 2019, 25–32.
[15] Nikiforow, K., Koski, P., Karimäki, H., Ihonen, J., Alopaeus, V. Designing a hydrogen gas ejector for 5 kW stationary PEMFC system – CFD-modeling and experimental validation, International Journal of Hydrogen Energy, 41, 2016, 14952–14970.
[16] Orozco, W., Modelo matemático de una bomba chorro para la producción de 8 kPa que permita la destilación de etanol, MSc. Thesis, Instituto Tecnológico Metropolitano, Medellín, Colombia, 2013.
[17] Orozco, W., Destilación al vacío de etanol usando bomba chorro, TecnoLógicas, 25, 2010, 77–96.
[18] Orozco, W., Palacio, J.A., Patiño, I.D., Zapata, J.S., Hincapié, J.A. Analysis of a Jet Pump Performance under Different Primary Nozzle Positions and Inlet Pressures using two Approaches: One Dimensional Analytical Model and Three Dimensional CFD Simulations, J. Appl. Comput. Mech., 6, 2020, 1228-1244.
[19] Uyazán, A.M., Gil, I.D., Aguilar, J.L., Rodríguez, G., Caicedo, L.A., Deshidratación del etanol, Ing e Investig, 24, 2004, 49–59.
[20] Bianco, N., Iasiello, M., Mauro, G. M., Busiello, S. Finned heat sinks with phase change materials and metal foams: Pareto optimization to address cost and operation time, Applied Thermal Engineering, 197, 2021, 117436
[21] Bianco, N., Iasiello, M., Mauro, G.M., Pagano, L. Multi-objective optimization of finned metal foam heat sinks: Tradeoff between heat transfer and pressure drop, Applied Thermal Engineering, 182, 2021, 116058.
[22] Li, H., Xu, B., Lu, G., Du, C., Huang, N. Multi-objective optimization of PEM fuel cell by coupled significant variables recognition, surrogate models and a multi-objective genetic algorithm, Energy Conversion and Management, 236, 2021, 114-123.
[23] Chong, D., Hu, M., Chen, W., Wang, J., Liu, J., Yan, J. Experimental and numerical analysis of supersonic air ejector, Applied Energy, 130, 2014, 679–684.
[24] Hosseinzadeh, E., Rokni, M., Jabbari, M., Mortensen, H. Numerical analysis of transport phenomena for designing of ejector in PEM forklift system, International Journal of Hydrogen Energy, 39(12), 2014, 6664–6674.
[25] Mazzelli, F., Little, A.B., Garimella, S., Bartosiewicz, Y. Computational and experimental analysis of supersonic air ejector: Turbulence modeling and assessment of 3D effects, International Journal of Heat and Fluid Flow, 56, 2015, 305–316.
[26] Yin, Y., Fan M., Jiao K., Du Q., Qin Y. Numerical investigation of an ejector for anode recirculation in proton exchange membrane fuel cell system, Energy Conversion and Management, 126, 2016, 1106–1117.
[27] Shah, A., Chughtai, I.R., Inayat, M.H. Experimental and numerical analysis of steam jet pump, Int. J. Multiph. Flow, 37, 2011, 1305–1314.
[28] Song, X-G., Park, J-H., Kim, S-G., Park, Y-C. Performance comparison and erosion prediction of jet pumps by using a numerical method, Math. Comput. Model., 57, 2013, 245–253.
[29] Yapici, R., Aldas K. Optimization of water jet pumps using numerical simulation, Proc. Inst. Mech. Eng. Part A J. Power Energy, 227, 2013, 438–449.
[30] Zheng, P., Li, B., Qin, J. CFD simulation of two-phase ejector performance influenced by different operation conditions, Energy, 155, 2018, 1129–1145.
[31] Deng, X., Dong, J., Wang, Z., Tu, J. Numerical analysis of an annular water–air jet pump with self-induced oscillation mixing chamber, Journal of Computational Multiphase Flows, 9, 2017, 47-53.
[32] Momeni, H., Domagała, M. CFD simulation of transport solid particles by jet pumps, Czasopismo Techniczne, 7, 2016, 185-191.
[33] Fan, J., Eves, J., Thompson, H.M., Toropov, V.V., Kapur, N., Copley, D., et al. Computational fluid dynamic analysis and design optimization of jet pumps, Computers and Fluids, 46, 2011, 212–217.
[34] Wang, X.-D., Dong, J.-L., Numerical study on the performances of steam-jet vacuum pump at different operating conditions, Vacuum, 84, 2010, 1341– 1346.
[35] Wilcox, D. Turbulence Modeling for CFD, Third Edition, DCW Industries – California, 2006.
[36] Launder, B., Spalding, D.B. The Numerical Computation of Turbulent Flow Computer Methods, Computer Methods in Applied Mechanics and Engineering, 3(2), 1974, 269-289
[37] Varga, S., Oliveira, A.C., Ma, X., Omer, S.A., Zhang, W., Riffat, S.B. Experimental and numerical analysis of a variable area ratio steam ejector, Int. J. Refrig., 34, 2011, 1668–1675.
[38] Rusly, E., Aye, L., Charters, W.W.S., Ooi, A. CFD analysis of ejector in a combined ejector cooling system, Int. J. Refrig., 28, 2005, 1092–1101.
[39] Sriveerakul, T., Aphornratana, S., Chunnanond, K. Performance prediction of steam ejector using computational fluid dynamics: Part 1. Validation of the CFD result, Int. J. Therm. Sci., 46, 2007, 812–822.
[40] Huang, B.J., Chang, J.M. Empirical correlation for ejector design, Int. J. Refrig., 22, 1999, 379–388.
[41] Anaya, A., Gonzalez, E., Pérez, Ma., Robles, T., Pedro, E. Desarrollo de Tecnología de Diseño de Eyectores, Instituto Mexicano del Petróleo, 18, 1986, 65-77.
[42] Manrique, J. A., Termodinámica, Oxford University Press, Mexico, 2001.
[43] Huan, X., Li, M.J., He, Y.L., Tao, W.O. A graphical criterion for working fluid selection and thermodynamic system comparison in waste heat recovery, Applied Thermal Engineering, 89, 2015, 772-782.
[44] Alyssa, J.S., Stacy, M.N. Multi-objective optimization for coupled mechanics-dynamics analyses of composite structures, Sandia National Laboratories, Livermore, 73, 2018, 1-21.
[45] Aldas, K., Yapici, R. Investigation of effects of scale and surface roughness on efficiency of water jet pumps using CFD, Eng. Appl. Comput. Fluid Mech., 8, 2014, 14–25.
[46] Dong, J., Wang, X., Tu, J. Numerical research about the internal flow of steam-jet vacuum pump: evaluation of turbulence models and determination of the shock-mixing layer, Phys. Procedia, 32, 2012, 614–622.
[47] Masud, J., Imran, M. Turbulence Modeling for Realistic Computation of Internal Flow in Liquid Ejector Pumps, 54th AIAA Aerosp. Sci. Meet., Reston, Virginia: American Institute of Aeronautics and Astronautics, 2016.
[48] Maharana, P.S. Efficient Multi-site Statistical Downscaling Model for Climate Change, Ph.D. Thesis, Motilal Nehru National institute of Technology Allahabad Prayagraj–211004, India, 2018.
[49] Cengel, Y. Mecánica de fluidos, Mc Graw Hill – México, 2006.
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