Kyushu University Academic Staff Educational and Research Activities Database
List of Papers
ISHIKAWA Satoshi Last modified date:2018.06.05

Associate Professor / Dynamics of Mechanical Systems / Department of Mechanical Engineering / Faculty of Engineering


Papers
1. Active noise control for a moving evaluation point considering the change of acoustic transfer function.
2. Satoshi ISHIKAWA, Ataru Matsuo, Yuta Akayama, Shinya Kijimoto, Coupled analysis of two-dimensional acoustic and membrane vibration by concentrated mass model: Proposal of spurious mode elimination model, Advances in Mechanical Engineering, 10.1177/1687814017746512, 9, 12, 1-13, 2017.12.
3. Active noise control for two dimensional acoustic space by concentrated mass model.
4. Wang Xun, Yosuke KOBA, Satoshi ISHIKAWA, Shinya Kijimoto, Hybrid actice noise barrier with sound masking in open-plan offices, Noise Control Engineering Journal, 64, 3, 403-415, 2016.05.
5. Sloshing phenomenon analysis by using concentrated mass model
(1st Report, Proposition of linear analytical model for small amplitude wave and free vibration analysis).
6. Modeling of magnetic damper composed of ring magnet and coaxially and relatively moving conducting disk considering skin effect.
7. Coupled analysis of two-dimensional acoustic and membrane vibration by concentrated mass model.
8. Noise barrier using hybrid ANC system
(Proposal and application of an adaptive robust feedback ANC system).
9. Satoshi ISHIKAWA, Takahiro KONDOU, Kenichiro MATSUZAKI, Satoshi YAMAMURA, Analysis of nonlinear shallow water waves in a tank by concentrated mass model, Journal of Sound and Vibration, 371, 171-182, 2016.03.
10. Wang Xun, Yosuke KOBA, Satoshi ISHIKAWA, Shinya Kijimoto, An adaptive method for designing a robust IMC structured feedback active noise controller, Noise Control Engineering Journal, 63, 6, 496-507, 2015.11.
11. Noise barrier using hybrid ANC system.
12. Development of measurement technique of living body flexibility by indentation test using concentrated mass model.
13. Active noise control based on state feedback by concentrated mass model
(Model based control for one-dimensional acoustic space and loudspeaker).
14. Analysis of pressure wave in gas-liquid two-phase flows by concentrated mass model.
15. A noise barrier using hybrid ANC system.
16. Analysis of Pulse Wave in Blood Vessel by Concentrated Mass Model.
17. Two-Dimensional Acoustic Analysis by Concentrated Mass Model.
18. Active Noise Control for a Moving Evaluation Point Using Stepsize Vector and Interpolation of Secondary Path.
19. Nonlinear Shallow Water Wave Analysis by Concentrated Mass Model.
20. Satoshi ISHIKAWA, Takahiro KONDOU, Kenichiro MATSUZAKI, and Shota NAGANO, Nonlinear Pressure Wave Analysis by Concentrated Mass Model
(4th Report, Modeling of Elastic Pipe Element), Journal of System Design and Dynamics, 5, 6, 1388-1401, 2011.09.
21. Nonlinear Pressure Wave Analysis by Concentrated Mass Model.
22. Satoshi ISHIKAWA, Takahiro KONDOU and Kenichiro MATSUZAKI, Nonlinear Pressure Wave Analysis by Concentrated Mass Model
(3rd Report, Modeling of Enlargement and Contraction Element), Journal of System Design and Dynamics, 5, 1, 204-218, 2011.01.
23. Satoshi ISHIKAWA, Takahiro KONDOU and Kenichiro MATSUZAKI, Nonlinear Pressure Wave Analysis by Concentrated Mass Model
(2nd Report, Modeling and Validity Verification of Branch Element), Journal of System Design and Dynamics, 4, 4, 646-659, 2010.08.
24. Nonlinear Pressure Wave Analysis by Concentrated Mass Model.
25. Nonlinear Pressure Wave Analysis by Concentrated Mass Model.
26. Satoshi ISHIKAWA, Takahiro KONDOU and Kenichiro MATSUZAKI, Nonlinear Pressure Wave Analysis by Concentrated Mass Model
(1st Report, Suggestion and Validity Verification of Analytic Model), Journal of System Design and Dynamics, 3, 5, 827-840, 2009.10.
27. Nonlinear Pressure Wave Analysis by Concentrated Mass Model.
28. Self-Synchronized Phenomena Generated in Pendulum-Type Oscillators : 1st Report, Analysis for Self-Synchronized Phenomena between Two Metronomes by Using Improved Shooting Method.