NO-CONTACT DIAGNOSTICS IN THE FUNCTION OF RISK-BASED MAINTENANCE ON A WIND GENERATOR MODEL
Abstract
When it comes to risk-based maintenance of technical systems, selecting a diagnostic procedure is the weakest link in the chain of steps that guarantee the system's availability, sustainability, and safe operation while utilizing its working characteristics.
The model of a wind generator, which by virtue of its technological structure represents an increasingly widespread system in the geographical and topographical sense, was used to examine diagnostics based on non-contact, remote collection of pertinent information, which is essential for assessing the state of the technical system. In addition, the fact that the system is not physically accessible to the maintenance teams emphasizes the necessity of taking prompt action to rectify work in order to preserve production capacity and the security of the exploitation process.
When applied to the wind generator model, proactive maintenance based on risk allows for enhanced interconnected machine efficiency, optimal maintenance process planning, and real-time production process control. These factors contribute to the advancement and refinement of the contemporary 4K industry philosophy.
The concept of remote diagnostics in complex technological structures is of interest to the authors. The goal is to process information about the condition through the lens of risk, paying particular attention to the diagnostic method's reliability and improving prediction accuracy in the maintenance of industrial plant machinery.
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https://wwindea.org/wwea-half-year-report-2023-additional-momentum-for-windpower-in-2023/ [13.12.2023]
Learney, V. C., Sharpe, D. J. and Infield, D., Condition monitoring technique for optimization of wind farm performance, International Journal of COMADEM,1999, 2(1), 5–13.
Wilkinson, M. R. and Tavner, P. J. Extracting condition monitoring information from a wind turbine drive train, Proceedings of the 39th International Universities Power Engineering Conference, IEEE Cat. No. 04EX858, 2004, 1(1), 591–595
Caselitz, P., Giebhardt, J. and Mevenkamp., Application of condition monitoring system in wind energy converters, Proceedings of European Wind Energy Council, Dublin, 1997, 579–582
D. Barr, Modern Wind Turbines: A Lubrication Challenge, Machinery Lubrication, SeptemberOctober 2002, 36-45
Rademakers, L. W. and Verbruggen, T., Maintenance manager to control operation and maintenance of offshore wind farms, International Journal of Environment and sustainable Development, 2002, 1(4), 370–378.
Conover, K., Vanden Bosche, J., Rhoads, H. and Smith, B., Review of operation and maintenance experience in the DOE-EPRI wind turbine verification program, Proceedings of American Wind Energy Association’s Wind Power 2000, NREL/CP-500-28620.
Verbruggen, T. Wind turbine operation and maintenance based on condition monitoring WT & OMEGA; final report, Technical Report, ECN-C–03-047, 2003, Energy Centre Netherlands.
Thorpe, C., Condition-Based Maintenance for CVN-21and DD, Empfasis, 2005, URL: http://www.empf.org/empfasis/july05/cbm705.htm [ August 2022].
Arthur, N. and Dunn, M., Effective Condition Based Maintenance of reciprocating compressors on an offshore oil and gas installation, IMechE International Conference on Compressor and their system, 2001.
Saranga, H. and Knezevic, J., Reliability prediction for Condition-Based maintained systems, Reliability Engineering and System Safety, 2001, 71, 219–224.
Moubray, J., Reliability-Centred Maintenance II, Butter-Heinemann, 1991
Clayton, B. R., Dutton, A. G., Aftab, N., Bond, L., Lipman, N. H. and Irving, A. D., Development of structural condition monitoring techniques for composite wind turbine blades, Proceedings of European Community Wind Energy Conference, 1990, 10–14.
Philippidis, T. P. and Vassilopoulos, A. P., Life prediction methodology for GFRP laminates under spectrum loading, Renewable Energy, 2004, 35, 657–666.
Learney, V. C., Sharpe, D. J. and Infield, D., Condition monitoring technique for optimisation of wind farm performance, International Journal of COMADEM,1999, 2(1), 5–13
H. Stiesdal, The Wind Turbine Components and Operation, Bonus Energy A/S newsletter, 1999, Web site: www.bonus.dk
Dinmohammadi F, Shafiee M. A fuzzy-FMEA risk assessment approach for offshore wind turbines. IJPHM Special Issue on Wind Turbine PHM (Color); 2013:59
F. P. G. Márquez, A. M. Tobias, J. M. Pinar Pérez, M. Papaelias; Condition monitoring of wind turbines: Techniques and methods. Renewable Energy 46 (2012) 169-178
R. Errichello, J. Muller, Oil Cleanliness in WindTurbine Gearboxes, Machinery Lubrication, July-August 2002
Wouter, E.; Obdam, T.; Savenije, F. Current Developments in Wind—2009; Technical Report for Energy Research Centre of The Netherlands: Petten, The Netherlands, 2009.
Chou, J.-S.; Tu, W-T. Failure analysis and risk management of a collapsed large wind turbine tower. Eng. Fail. Anal. 2011, 18, 295–313.
DOI: https://doi.org/10.22190/FUWLEP231201004C
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