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2019 | OriginalPaper | Chapter

9. Experimental and Analytical Approaches in a Virtual Shaker Testing Simulation Environment for Numerical Prediction of a Spacecraft Vibration Test

Authors : S. Waimer, S. Manzato, B. Peeters, M. Wagner, P. Guillaume

Published in: Sensors and Instrumentation, Aircraft/Aerospace and Energy Harvesting , Volume 8

Publisher: Springer International Publishing

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Abstract

A spacecraft is exposed to a variety of extreme dynamical loads during launch. As a result, spacecraft are tested on ground in a vibration test campaign to ensure and verify the global integrity of the structure and to screen the flight hardware for workmanship errors since safety and security are top priorities. Additionally, the gathered experimental test data can be used to validate and correlate mathematical models. During these tests especially in fixed-base sinusoidal vibration testing of large spacecraft, the dynamical interaction between the test specimen, the vibration controller and test facility is a critical issue affecting the closed-loop vibration control performance, the quality of subsequent numerical model validations or even damaging the entire testing setup. In order to assess the occurrence of such issues and to minimise their influence by adapting control parameters, virtual shaker testing intends to numerically replicate the entire vibration test chain. To successfully predict the actual experimental conditions, validated and reliable models need to be developed, replicating the control strategy as well as the shaker and test specimen dynamic behaviour as accurately as possible. In practice, such models are usually not available or accessible to the test engineer or analyst. Therefore, this paper reviews the current status of the work combining experimental and physical methodologies to numerically predict a sine vibration test. Two approaches are presented: (1) a purely experimental data driven approach based on measured data only, e.g. from system self-check data and (2) a hybrid data driven approach considering numerical shaker facility and structural dynamic test specimen models. Subsequently, the corresponding sine control closed-loop simulation results are correlated to real physical test data and consequently their advantages and disadvantages are discussed.

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Literature
1.
NASA: Technical handbook, Spacecraft dynamic environments testing, NASA-HDBK-7008, (2014)
2.
ESA-ESTEC, European Cooperation for Space Standardization: Space engineering, Spacecraft mechanical loads analysis handbook, ECSS-E-HB-32-26A, Noordwijk, The Netherlands, (2013)
3.
Bettacchioli, A.: Simulation of satellite vibration test. Proceedings of the 13th European Conference on Spacecraft Structure, Materials and Environmental Testing, Brunswick, April 2014
4.
Nali, P., Bettacchioli, A.: Beating phenomena in spacecraft sine tests and an attempt to include the sine sweep rate effect in the test-prediction. Proceedings of the 13th European Conference on Spacecraft Structure, Materials and Environmental Testing, Brunswick, April 2014
5.
Bettacchioli, A., Nali, P.: Common issues in S/C sine vibration testing and a methodology to predict the sine test responses from very low level run. Proceedings of the 29th Aerospace Testing Seminar, Los Angeles, October 2015
6.
Bettacchioli, A.: Feasibility study of the beating cancellation during the satellite vibration test. Proceedings of the 14th European Conference on Spacecraft Structures, Materials and Environmental Testing, Toulouse, September 2016
7.
Appolloni, M., Cozzani, A.: Virtual testing simulation tool for the new quad head expander electrodynamic shaker. Proceedings 6th International Symposium on Environmental Testing for Space Programmes, ESA-ESTEC, June 2007
8.
Appolloni, M., Cozzani, A., et al.: Multi-Degrees-Of-Freedom vibration platform with MIMO Controller for future spacecraft testing: an application case for virtual shaker testing. Proceedings of the 29th Aerospace Testing Seminar, Los Angeles, October 2015
9.
Remedia, M., Aglietti, G., Kiley, A.: Vibration testing: post-test correlation approach based on virtual testing. Proceedings of the 29th Aerospace Testing Seminar, Los Angeles, October 2015
10.
Remedia, M., Aglietti, G., Appolloni, M., Cozzani, A., Kiley, A.: A virtual testing approach for spacecraft structures post-correlation purposes. Proceedings of the 14th European Conference on Spacecraft Structures, Materials and Environmental Testing, Toulouse, September 2016
11.
Remedia, M., Aglietti, G., Appolloni, M., Cozzani, A., Kiley, A.: Virtual testing: a pre- and post-test tool for base-driven spacecraft testing. Proceedings of the 30th Aerospace Testing Seminar, Los Angeles, March 2017
12.
Ricci, S., Peeters, B., Fetter, R., Boland, D., Debille, J.: Virtual shaker testing for predicting and improving vibration test performance, Proc. IMAC 2009, Orlando, February 2009
13.
ESA-ESTEC study, TN-3: assessment of the shaker performance in presence of non-linear dynamic effects, LMS International in framework of ESA study advancement of mechanical verification methods for non-linear spacecraft structures. TEC-MCS/2007/1558/ln/AN
14.
Nali, P., Augello, G., Bettacchioli, A., Landi, G., Gnoffo, M.: A virtual shaker testing experience: modeling, computational methodology and preliminary results. Proceedings of the 14th European Conference on Spacecraft Structures, Materials and Environmental Testing, Toulouse, September 2016
15.
Waimer, S., Manzato, S., Peeters, B., Wagner, M., Guillaume, P.: Modelling and experimental validation of a coupled electrodynamic shaker and test structure simulation model, Proceedings of the 27th International Conference on Noise and Vibration Engineering, Leuven, September 2016
16.
Waimer, S., Manzato, S., Peeters, B., Wagner, M., Guillaume, P.: Numerical modelling and simulation of a closed-loop electrodynamic shaker and test structure model for spacecraft vibration testing, Proceedings of the 14th European Conference on Spacecraft Structures, Materials and Environmental Testing, Toulouse, September 2016
17.
Waimer, S., Manzato, S., Peeters, B., Wagner, M., Guillaume, P., Overview of coupling methodologies for reliable sine vibration test simulation and prediction, Proceedings of the 30th Aerospace Testing Seminar, Los Angeles, USA, March 2017
18.
Peeters, B., Auweraer, H.V.D., Guillaume, P., Leuridan, J.: The PolyMAX frequency-domain method: a new standard for modal parameter estimation. Shock. Vib. 11, 395–409 (2004)CrossRef
19.
El-Kafafy, M., De Troyer, T., Peeters, B., Guillaume, P.: Fast maximum-likelihood identification of modal parameters with uncertainty intervals: a modal model-based formulation. Mech. Syst. Signal Process. 37, 422–439 (2013)CrossRef
20.
El-kafafy, M., Accardo, G., Peeters, B., Janssens, K., De Troyer, T., Guillaume, P.: A fast maximum likelihood-based estimation of a modal model. In: Mains M. (eds) Topics in modal analysis, volume 10. Conference Proceedings of the Society for Experimental Mechanics Series. Springer, Cham (2015). https://​doi.​org/​10.​1007/​978-3-319-15251-6_​15
21.
Fox Lang, G., Snyder, D.: Understanding the physics of electrodynamic shaker performance. Sound Vib. 35, 24–26 (2001)
22.
Waimer, S., Manzato, S., Peeters, B., Wagner, M., Guillaume, P.: Derivation and implementation of an electrodynamic shaker model for virtual shaker testing based on experimental data, Proceedings of the 29th Aerospace Testing Seminar, Los Angeles, October 2015
23.
Waimer, S., Manzato, S., Peeters, B., Wagner, M., Guillaume, P.: A multiphysical modelling approach for virtual shaker testing correlated with experimental test results, Proceedings of the 34th International Modal Analysis Conference IMAC, Orlando, January 2016
24.
Manzato, S., Bucciarelli, F., Arras, M., Coppotelli, G., Peeters, B., Carrella, A., Validation of a Virtual Shaker Testing approach for improving environmental testing performance, Proceedings of the 26th International Conference on Noise and Vibration Engineering, Leuven, September 2014
Metadata
Title
Experimental and Analytical Approaches in a Virtual Shaker Testing Simulation Environment for Numerical Prediction of a Spacecraft Vibration Test
Authors
S. Waimer
S. Manzato
B. Peeters
M. Wagner
P. Guillaume
Copyright Year
2019
Book
Sensors and Instrumentation, Aircraft/Aerospace and Energy Harvesting , Volume 8

Print ISBN: 978-3-319-74641-8

Electronic ISBN: 978-3-319-74642-5

Copyright Year: 2019

DOI
https://doi.org/10.1007/978-3-319-74642-5_9

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