粒子群最適化法を用いたLNG冷熱駆動熱音響エンジンの最適設計

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Published in日本機械学会論文集 Vol. 82; no. 844; p. 16-00248
Main Authors 秋澤, 淳, 田中, 信資, 上田, 祐樹
Format Journal Article
LanguageJapanese
Published 一般社団法人 日本機械学会 2016
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Online AccessGet full text
ISSN2187-9761
DOI10.1299/transjsme.16-00248

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Author 田中, 信資
上田, 祐樹
秋澤, 淳
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  fullname: 田中, 信資
  organization: 東京農工大学大学院生物システム応用科学府
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  fullname: 上田, 祐樹
  organization: 東京農工大学大学院工学研究院
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References Chaitou, H. and Nika, P., Exergetic optimization of a thermoacoustic engine using the particle swarm optimization method, Energy Conversion and Management, Vol.55 (2012), pp.71-80.
Kennedy, J. and Eberhart, R., Particle Swarm Optimization, Proceedings of IEEE International Conference on Neural Network (ICNN), iv (1995), pp.1942-1948.
Osaka gas, Power generation from the cold energy of LNG to contribute to reduction of energy consumption and CO2 emission, available from <https://www.osakagas.co.jp/company/efforts/rd/technical/1191168_3909.html>, (accessed on 19 March, 2016) (in Japanese).
Ueda, Y., Mehdi, B. M., Tsuji, K. and Akisawa, A., Optimization of the regenerator of a traveling-wave thermoacoustic refrigerator, Journal of Applied Physics, Vol.107, No.3 (2010), pp.034901_1-5.
Backhaus, S. and Swift, G. W., A thermoacoustic-Stirling heat engines: detailed study, Journal of Acoustical Society of America, Vol. 107 (2000), p.3148.
Ishigame, A. and Yasuda, K., Swarm Intelligence: Particle Swarm Optimization, Journal of Japan Society for Fuzzy Theory and Intelligent Informatics, Vol.20, No.6 (2008), pp.829-839 (in Japanese).
Rott, N., Damped and thermally driven acoustic oscillations, Zeitschrift für angewandte Mathematik und Physik, Vol.20 (1969), pp. 230-243.
Ueda, Y., Calculation method for the prediction of the performance of a traveling-wave thermoacoustic cooler, Journal of Power and Energy Systems, Vol.2, No.5 (2008), pp.1276-1282.
Ueda, Y., Method of Calculating the Performance of Thermoacoustic Devices using Thremoacoustic Theory, TEION KOGAKU, Vol.47, No.1 (2012), pp.3-10 (in Japanese).
Swift, G. W., Thermoacoustic engines, Journal of Acoustical Society of America, Vol.84 (1988), pp.1145-1180.
Ueda, Y. and Kato, C., Stability analysis for spontaneous gas oscillations thermally induced in straight and looped tubes, Journal of Acoustical Society of America, Vol.124 (2008), pp.851-858.
Yoshida, T., Nakagawa, J., Takiguchi, Y. and Ohshio, A., LNG Satellite Station Cold Energy Utilization, Kobe Steel Engineering Reports, Vol.53, No.2 (2003), pp.19-22 (in Japanese).
Backhaus, S. and Swift, G. W., A thermoacoustic Stirling engines, Nature, Vol.399 (1999), pp.335-338.
Tijani, M.E.H. and Spoelstra, S., Study of a coaxial thermoacoustic-Stirling cooler, Cryogenics, Vol.48, No.1-2 (2008), pp.77-82.
References_xml – reference: Ishigame, A. and Yasuda, K., Swarm Intelligence: Particle Swarm Optimization, Journal of Japan Society for Fuzzy Theory and Intelligent Informatics, Vol.20, No.6 (2008), pp.829-839 (in Japanese).
– reference: Ueda, Y. and Kato, C., Stability analysis for spontaneous gas oscillations thermally induced in straight and looped tubes, Journal of Acoustical Society of America, Vol.124 (2008), pp.851-858.
– reference: Backhaus, S. and Swift, G. W., A thermoacoustic-Stirling heat engines: detailed study, Journal of Acoustical Society of America, Vol. 107 (2000), p.3148.
– reference: Ueda, Y., Method of Calculating the Performance of Thermoacoustic Devices using Thremoacoustic Theory, TEION KOGAKU, Vol.47, No.1 (2012), pp.3-10 (in Japanese).
– reference: Yoshida, T., Nakagawa, J., Takiguchi, Y. and Ohshio, A., LNG Satellite Station Cold Energy Utilization, Kobe Steel Engineering Reports, Vol.53, No.2 (2003), pp.19-22 (in Japanese).
– reference: Rott, N., Damped and thermally driven acoustic oscillations, Zeitschrift für angewandte Mathematik und Physik, Vol.20 (1969), pp. 230-243.
– reference: Osaka gas, Power generation from the cold energy of LNG to contribute to reduction of energy consumption and CO2 emission, available from <https://www.osakagas.co.jp/company/efforts/rd/technical/1191168_3909.html>, (accessed on 19 March, 2016) (in Japanese).
– reference: Tijani, M.E.H. and Spoelstra, S., Study of a coaxial thermoacoustic-Stirling cooler, Cryogenics, Vol.48, No.1-2 (2008), pp.77-82.
– reference: Ueda, Y., Mehdi, B. M., Tsuji, K. and Akisawa, A., Optimization of the regenerator of a traveling-wave thermoacoustic refrigerator, Journal of Applied Physics, Vol.107, No.3 (2010), pp.034901_1-5.
– reference: Backhaus, S. and Swift, G. W., A thermoacoustic Stirling engines, Nature, Vol.399 (1999), pp.335-338.
– reference: Swift, G. W., Thermoacoustic engines, Journal of Acoustical Society of America, Vol.84 (1988), pp.1145-1180.
– reference: Chaitou, H. and Nika, P., Exergetic optimization of a thermoacoustic engine using the particle swarm optimization method, Energy Conversion and Management, Vol.55 (2012), pp.71-80.
– reference: Ueda, Y., Calculation method for the prediction of the performance of a traveling-wave thermoacoustic cooler, Journal of Power and Energy Systems, Vol.2, No.5 (2008), pp.1276-1282.
– reference: Kennedy, J. and Eberhart, R., Particle Swarm Optimization, Proceedings of IEEE International Conference on Neural Network (ICNN), iv (1995), pp.1942-1948.
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SubjectTerms Energy conversion
LNG
Optimal design
Particle Swarm Optimization
Thermoacoustic engine
Title 粒子群最適化法を用いたLNG冷熱駆動熱音響エンジンの最適設計
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