Book contents
- Vibration Protection Systems
- Vibration Protection Systems
- Copyright page
- Contents
- Preface
- Acknowledgments
- Glossary
- 1 Vibrations Destroying Human–Machine Systems Inside and Outside
- 2 Vibration Protection Systems with Negative and Quasi-Zero Stiffness
- 3 Modeling of Elastic Postbuckling in Large and Dimensioning the Mechanisms with Negative Stiffness
- 4 The Type and Number Synthesis of Function-Generating Mechanisms
- 5 Dynamics of Systems with Sign-Changing Stiffness
- 6 Dynamics of Systems with Sign-Changing Stiffness
- 7 Dynamics of Systems with Sign-Changing Stiffness
- 8 Methods of Experimental Study of Vibration Protection Systems with Negative and Quasi-Zero Stiffness
- 9 In Harmony with Conventional Vibration Protection Systems
- 10 Development and Use of Vibration Protection Systems with Negative and Quasi-Zero Stiffness
- Index
- References
1 - Vibrations Destroying Human–Machine Systems Inside and Outside
Published online by Cambridge University Press: 29 October 2021
Book contents
- Vibration Protection Systems
- Vibration Protection Systems
- Copyright page
- Contents
- Preface
- Acknowledgments
- Glossary
- 1 Vibrations Destroying Human–Machine Systems Inside and Outside
- 2 Vibration Protection Systems with Negative and Quasi-Zero Stiffness
- 3 Modeling of Elastic Postbuckling in Large and Dimensioning the Mechanisms with Negative Stiffness
- 4 The Type and Number Synthesis of Function-Generating Mechanisms
- 5 Dynamics of Systems with Sign-Changing Stiffness
- 6 Dynamics of Systems with Sign-Changing Stiffness
- 7 Dynamics of Systems with Sign-Changing Stiffness
- 8 Methods of Experimental Study of Vibration Protection Systems with Negative and Quasi-Zero Stiffness
- 9 In Harmony with Conventional Vibration Protection Systems
- 10 Development and Use of Vibration Protection Systems with Negative and Quasi-Zero Stiffness
- Index
- References
Summary
The infra-low-frequency vibrations are most dangerous and harmful for humans. They affect a person as an operator or passenger of the vehicles and other vibrating machines, and his environment the rest of a day and night. These are longtime and thus devastating effects since human natural frequencies dramatically coincide with forced vibrations of the machines in the same spectra, resulting in permanent broadband resonances. The general and industrial standards regulate exposure time of vibration impacts to humans, since conventional vibration protection systems, to put it mildly, do not quite cope with the functions assigned to them. Moreover, they operate as vibration amplifiers rather than vibration systems just in these frequency spectra. Besides, new potentially hazard vibrations, for example, in the near-zero frequencies appear with advent of the machines of next generation under intensive development, such as high-speed railroad trains for long distances and multiple-purpose helicopters. Fundamentally other design methods and proper technology are required to provide the infra-low-frequency vibration protection of humans inside and outside operating transport vehicles, construction equipment, and other machines, especially since a gap increases between efficiency of the conventional systems and vibration limits required for health, activity, and comfort of humans
- Type
- Chapter
- Information
- Vibration Protection SystemsNegative and Quasi-Zero Stiffness, pp. 1 - 24Publisher: Cambridge University PressPrint publication year: 2021
References
Sim, C.-S., Sung, J.-H., Cheon, S.-H., Lee, C.-M., Lee, J.-W., and Lee, J.-H., The effects of different noise types on heart rate variability in men. Yonsei Medical Journal, 1 (2015), 235−243.Google Scholar
Lee, C.-M. and Goverdovskiy, V.N., Alternative vibration protecting systems for men-operators of transport machines: modern level and prospects. Journal of Sound and Vibration, 249 (2002), 635–647.CrossRefGoogle Scholar
Hirabayashi, T., McCaa, D.J., Rebandt, R.G., Rusch, P., and Saha, P., Automotive noise and vibration control treatments. Journal of Sound and Vibration, 33 (1999), 22‒32.Google Scholar
Batsuren, A., Hatamura, T., Masui, H., and Cho, M., Laboratory test of vibration of micro/nano satellite for environment test standardization. Proceedings of the 5th Nano‐Satellite Symposium, November 20‒23, 2013, Tokyo, Japan.Google Scholar
Hanson, C.E., Towers, D.A., and Meister, L.D., Transit noise and vibration impact assessment, Research Report FTA-VA-90-1003-06, NTIS, Springfield, VA, 2006. Available at www.ntis.gov.Google Scholar
RTCA, Inc., Environmental conditions and test procedures for airborne equipment, RTCA/D0–160D, Washington, DC, 2014.Google Scholar
Rao, K.R., Kim, D.N., and Hwang, J.J., Fast Fourier Transform – Algorithms and Applications (Signals and Communication Technology) (London: Springer, 2010).CrossRefGoogle Scholar
Hung, W., Brunello, L., and Bunker, J., Critical issues of high-speed rail development in China, 2014. Available at www.ucdenver.edu.Google Scholar
Utah Foundation, High-speed rail around the world: A survey and comparison of existing systems, Research Report 694, 2010.Google Scholar
European Committee for Standardization, Railway applications: Ride comfort for passengers – measurement and evaluation, CSNEN 12299, Brussels, Belgium, 2009.Google Scholar
Wang, Q., Zeng, J., Wei, L., and Zhu, B., Carbody vibrations of high-speed train caused by dynamic unbalance of underframe suspended equipment. Advances in Mechanical Engineering, 12 (2018), 1–13.Google Scholar
Kece, E., Reikalas, V., DeBold, R., Ho, C.L., Robertson, I., and Forde, M.C., Evaluating ground vibrations induced by high-speed trains. Transportation Geotechnics, 20 (2019), 100236.CrossRefGoogle Scholar
Iwnicki, S., Handbook of Railway Vehicle Dynamics (New York: Taylor and Francis, 2006).CrossRefGoogle Scholar
Orvnäs, A., On active secondary suspension in rail vehicles to improve ride comfort, doctoral thesis, KTH Royal Institute of Technology, 2011.Google Scholar
Pakhomov, M.P., Design, Computation and Operation of the Car Truck Spring Hanger with the Element under Post-Buckling (Omsk, Russia: Omsk Transport University, 1983). In Russian.Google Scholar
Sugahara, Y., Kazato, A., Kogan, R., and Nakaura, S., Suppression of vertical bending and rigid-body-mode vibration in railway vehicle car body by primary and secondary suspension control: Results of simulations and running tests using Shinkansen vehicle. Journal of Rail and Rapid Transit, 223 (2009), 517−531.Google Scholar
Ma, W., Song, R., Xu, J., Zang, Y., and Luo, S., A coupling vibration test bench and the simulation research of a maglev vehicle. Shock and Vibration, 2015 (2014). Available at www.hindawi.com.Google Scholar
Narain, S., Punia, A., and Yadav, A., Effect of vibrations on various systems of helicopter and its maintenance implications. International Research Journal of Engineering and Technology (IRJET), 8 (2019), 1199–1208.Google Scholar
Newton, A., Human vibration, lecture notes, Brüel & Kjær sound and vibration measurement, 2002. Available at www.slideplayer.com.Google Scholar
Bramwell, A.R.S., Done, G.T.S., and Balmford, D., Helicopter Dynamics, 2nd ed. (Oxford: Butterworth-Heinemann, 2001).Google Scholar
Welsh, W.A., Chapter 27 – Helicopter vibration reduction. Morphing Wing Technologies: Large Commercial Aircraft and Civil Helicopters, (2018), 865–892.Google Scholar
Lee, C.-M., Goverdovskiy, V.N., and Sotenko, A.V., Helicopter vibration isolation: Design approach and test results. Journal of Sound and Vibration, 366 (2016), 15‒26.Google Scholar
Konstanzer, P., Enenkl, B., Anbourg, P.A., and Cranga, P., Recent advances in Eurocopter’s passive and active vibration control, in Proceedings the 64th Forum of American Helicopter Society (Montreal, Canada, 2008), 75–93.Google Scholar
Camille, R.G. and Jonathan, M.T., Device for reducing vibrations in a helicopter pilot’s seat, EP Patent 2502782, 2014.Google Scholar
Robins, M., Vibration identification and minimization. Aviation Today (2010). Available at www.aviationtoday.com.Google Scholar
Chen, J.-S., Vibration reduction in electric bus during acceleration and gear shifting. Advances in Mechanical Engineering, Special Issue (2015), 1–16.Google Scholar
Hua, X. and Gandee, E., Vibration and dynamics analysis of electric vehicle drivetrains. Journal of Low Frequency Noise, Vibration and Active Control, 1 (2021), 1–11.Google Scholar
Chonhenchob, V., Singh, S.P., Singh, J.J., Stallings, J., and Grewal, G., Measurement and analysis of vehicle vibration for delivering packages in small-sized and medium-sized trucks and automobiles, report, 2011. Available at http://onlinelibrary.wiley.com.Google Scholar
Hartwig, T., Evaluation of transportation vibration associated with relocation of work in process as part of KCRIMS, Final Report KCP-613-9161, Honeywell, USA, 2013.Google Scholar
Granlund, J., Vehicle and human vibration due to road conditions, ROADEX “Implementing Accessibility” Project, Sweden, 2012.Google Scholar
Krejcir, O., Pneumaticka vibroizolace, Doctorska Disertacna Prace, Liberec, Czech Republic, 1986. In Czech.Google Scholar
Synev, A.V., Methods of analysis and design of vibration protection systems for a man-operator, doctoral thesis, Research Institute of Machines Science, Russian Academy of Sciences, 1979. In Russian.Google Scholar
Alabuzhev, P.M., Grytchine, A.A., Kim, L.I., Migirenko, G.S., Chon, V.F., and Stepanov, P.T., Vibration Protecting and Measuring Systems with Quasi-Zero Stiffness (New York: Taylor and Francis, 1989).Google Scholar
Solovyev, V.S., Selection of optimum laws of active control in the vehicle suspensions, doctoral thesis, Novosibirsk State Technical University, 1991. In Russian.Google Scholar
Andreytchikov, A.V., Computer modeling of creative procedures for synthesis a new in principle vibration protecting systems. Problems in Mechanical Engineering and Reliability of Machines, 5 (1995), 89‒96. In Russian.Google Scholar
Wan, Y. and Schimmenls, J.M., Optimal seat suspension design based on minimum “simulated subjective response.” Journal of Biomechanical Engineering, 119 (1997), 409‒416.Google Scholar
Goverdovskiy, V.N., Gyzatulline, B.S., and Petrov, V.A., A method of vibration isolating of a man-operator of a transport-technological machine, Russia Patent 2115570, 1998.Google Scholar
McManus, S.J., Clair, K.A.ST., Boileau, P.É., Boutin, J., and Rakheja, S., Evaluation of vibration and shock attenuation performance of a suspension seat with a semi-active magnetorheological fluid damper. Journal of Sound and Vibration, 253 (2002), 313–327.Google Scholar
Sun, J.Q., Jolly, M.R., and Norris, M.A., Passive, adaptive and active tuned vibration absorbers: A survey. Transactions of ASME, 117 (1995), 234–242.Google Scholar
Rybak, L., Synev, A., and Pashkov, A., Synthesis of Active Vibration Isolating Systems for Space Engineering (Moscow: Janus-K, 1997). In Russian.Google Scholar
Liu, Y., Matsuhisa, H., and Utsuno, H., Semi-active vibration isolation system with variable stiffness and damping control. Journal of Sound and Vibration, 313 (2008), 16–28.Google Scholar
Maciejewski, I., Meyer, L., and Krzyzynski, T., The vibration damping effectiveness of an active seat suspension and its robustness to varying mass loading. Journal of Sound and Vibration, 329 (2010), 3898–3914.Google Scholar
Sun, W.C., Gao, H.J., and Okyay, K.N., Finite frequency H-∞ control for vehicle active suspension systems. IEEE Transaction Control System Technology, 19 (2011), 416–422.Google Scholar
Sun, W., Gao, H., and Kaynak, O., Finite frequency H–N control for vehicle active suspension systems. IEEE Transactions on Control Systems Technology, 2 (2011), 416–422.Google Scholar