Development of a CFD model for simulation of a traveling-wave thermoacoustic engine using an impedance matching boundary condition (original) (raw)

References (30)

• P. H. Ceperley, A pistonless stirling engine the traveling wave heat engine, Journal of the Acoustical Society of America 66 (1979) 1508-1513.
• T. Yazaki, A. Iwata, T. Maekawa, A. Tominaga, Traveling wave thermoacoustic engine in a looped tube, Physical Review Letters 81 (1998) 3128-3131.
• G. Petculescu, L. A. Wilena, High-amplitude thermoacoustic effects in a single pore, Journal of the Acoustical Society of America 109(3) (2001) 942-948.
• N. Rott, Damped and thermally driven acoustic oscillations in wide and narrow tubes, Journal of Applied Mathematics and Physics 20 (1969) 230-243.
• A. Tominaga, Thermodynamic aspects of thermoacoustic theory, Cryogenics 35(7) (1995) 427-440.
• J. C. Wheatley, T. Hofler, G. W. Swift, A. Migliori, An intrinsically irreversible thermoacoustic engine, Journal of the Acoustical Society of America 74 (1983) 153-170.
• G. W. Swift, Analysis and performance of a large thermoacoustic engine, Journal of the Acoustical Society of America 92 (1992) 1551-1563.
• M.E. Poese, Performance measurements on a thermoacoustic refrigerator driven at high amplitudes, Master's thesis, The Pennsylvania State University, United States, 1998.
• S. Backhaus, G.W. Swift, A thermoacoustic stirling heat engine: Detailed study, Journal of the Acoustical Society of America 107 (2000) 3148-3166.
• M.M. Emam, Experimental investigations on a standing-wave thermoacoustic engine, Master's thesis, Cairo University, Egypt, 2013.
• X. Mao, A study of fluid flow phenomena around parallel-plate stacks in a standing wave thermoacoustic device, PhD thesis, The University of Manchester, England, 2011.
• B. Asgharian, K. I. Mateev, Numerical modeling of thermoacoustic no-stack heat pumps and prime movers, Engineering Applications of Computational Fluid Mechanics 6(3) (2012) 346-355.
• F. Zink, J. Vipperman, L. Schaefer, CFD simulation of thermoacoustic engine with coiled resonator, International Journal of Heat and Mass Transfer 37(3) (2010) 226-229.
• N.M Hariharan, P. Sivashanmugam, S. Kasthurirengan, Influence of stack geometry and resonator length on the performance of thermoacoustic engine, Applied Acoustics 73 (2012) 1052-1058.
• C.C. Hantschk, D. Vortmeyer, Numerical simulation of self-excited thermoacoustic instabilities in a Rijke tube, Journal of Sound and Vibration, 277(3) (1999) 511-522.
• J. L. Nijeholt, M. E. H. Tijani, S. Spoelstra, Simulation of a traveling-wave thermoacoustic engine using computational fluid dynamics, Journal of the Acoustical Society of America 118(4) (2005) 2265-2270.
• C. Scalo, S. K. Lele , L. Hesselink, Numerical investigation of a traveling-wave thermoacoustic stirling heat engine, Center for Turbulence Research Annual Research Briefs, 2013.pp. 165-178.
• M. Skariaa, K. K. A. Rasheed, K. A. Shafi, S. Kasthurirengan, U. Behera, Simulation studies on the standing and traveling wave thermoacoustic prime movers, AIP Conference Proceedings 1573 (2014) 760-767.
• B. Ward, J. Clark, G.W. Swift, Design environment for low-amplitude thermoacoustic energy conversion, Version 6.2. Users Guide, 2008.
• A. Jaworski, A. Piccolo, Heat transfer processes in parallel-plate heat exchangers of thermoacoustic devices -numerical and experimental approaches, Applied Thermal Engineering 42 (2012) 145-153.
• A. Toffolo, M. Masi, A. Lazzaretto, Low computational cost CFD analysis of thermoacoustic oscillations, Applied Thermal Engineering 30 (2010) 544-552.
• S. Takahashi, S. Hasegawa, T. Nonomura, Numerical simulation of a thermoacoustic engine by compressible Navier-Stokes equations, 46th Fluid Dynamics Conference / 32nd Aerospace Numerical Simulation Symposium, Japan, (2014).
• M. Senga, S. Hasegawa, Design and experimental verification of a cascade traveling-wave thermoacoustic amplifier, Journal of Applied Physics 119 (2016) 204906.
• H. Hatori, T. Biwa, T. Yazaki, How to build a loaded thermoacoustic engine, Journal of Applied Physics 111 (2012) 074905.
• K. Wang, J. Zhang, N. Zhang, D. Sun, K. Luo, J. Zou, L. Qiu , Acoustic matching of a traveling-wave thermoacoustic electric generator, Applied Thermal Engineering 102 (2016) 272-282.
• A. M. Fusco, W.C. Ward, G, W. Swift, Two-sensor power measurements in lossy ducts, Journal of the Acoustical Society of America 91 (1992) 2229-2235.
• S. Hasegawa, T. Yamaguchi, Y. Oshinoya, A thermoacoustic refrigerator driven by a low temperature differential, high-efficiency multistage thermoacoustic engine, Applied Thermal Engineering 58 (2013)394-399.
• S. Takahashi, T. Nonomura, K. Fukuda, A Numerical scheme based on an immersed boundary method for compressible turbulent flows with shocks, Journal of Applied Mathematics 2014(2014), Article ID 252478, pp. 1-21.
• D. Noreland, Technical Report, Impedance boundary conditions for acoustic waves in a duct with a step discontinuity, Uppsala University, Sweden, 2003, pp. 1-35.
• S. V. Tsynkov, Numerical solution of problems on unbounded domains, Applied Numerical Mathematics 27 (1998) 465-532.