79 REFERENCES (1) Peng Z., Kessissoglou N., "An integrated approach to fault diagnosis of machinery using wear debris and vibration analysis", Wear Vol. 255 (2003), pp. 1221–1232. (2) Ebersbach S., Peng Z., Kessissoglou N. J., "The investigation of the condition and faults of a spur gearbox using vibration and wear debris analysis techniques", Wear Vol. 260 (2006), pp. 16–24. (3) Roylance B. J., Williams J. A., & Dwyer-Joyce R., “Wear debris and associated wear phenomena – fundamental research and practice”, Vol. 214 (2000), pp. 79-105. (4) Williams J. A., “Wear and wear particles – Some fundamentals”, Wear, Vol. 38 (2005), pp. 863- 870. (5) Seifert W. W., & Westcott V. C., “A method for the study of wear particles in lubricating oil,” Wear, Vol. 21 (1972), pp. 27- 42. (6) Zum Gahr K. H., “Modeling of two body abrasive wear,” Wear, Vol. 127 (1988), pp. 87- 103. (7) Anderson D.P., “Wear Particles Atlas,” Revised ed., Report NAEC, (1982), pp. 92-163. (8) Roayalance B. J., Albidewi I. A., Laghari M. S., Luxmoore A. R., & Deravi F., “Computer Aided Vison Engineering,(CAVE)- Quantification of wear particle morphology”, Vol. 50 (1993), pp. 111-116. (9) Barron T., “Engineering Condition Monitoring,” Addison-Wesley, Reading, MA, UK 1996. (10) Hunt T.M., “Handbook of Wear Debris Analysis and Particle Detection in Liquids”, Elsevier Science Publishers LTD., Essex, England, (1993). 80 (11) Neale M.J., and Woodley B.J., “A guide to the condition monitoring of machinery”. Report TRD 223 for the British Department of Industry (1978). (12) IEEE draft standard P1438/D1.5 “Guide for Applications of Plant Condition Monitoring for Hydroelectric Facilities”. Section 4.3 ‘Potential Benefits’ (1999). (13) McMillan D., and Ault G.W., “Condition monitoring benefit for onshore wind turbines sensitivity to operational parameters”. IET Renewable Power Generation, Vol. 2 (2008), pp. 60–72. (14) Wang L., Gao, Robert X., “Condition Monitoring and Control for Intelligent Manufacturing”, Springer, (2006). (15) Coverdell Andy., Noria Corporation, “Acid Number Test Reproducibility and Repeatability”, Practicing Oil Analysis, (2006). (16) Muszynska A., “Rotor dynamics”, CRC Press, (2005). (17) Carden Peter E., Fanning Paul, “Vibration Based Condition Monitoring”, SHM, Vol. 3, (2004), pp. 355-377. (18) Peng Z., Kessissoglou N.J., Cox M., “A study of the effect of contaminant particles in lubricants using wear debris and vibration condition monitoring techniques”, Wear Vol. 258, (2005), pp. 1651-1662. (19) Keith Mobley R., "An Introduction to Predictive Maintenance", Second Edition, Amsterdam; Boston: Elsevier/Butterworth Heinemann, (2002). (20) Peng Z., Kessissoglou N.J., Cox, M., “A study of the effect of contaminant particles in lubricants using wear debris and vibration condition monitoring techniques”, Wear Vol. 258, (2005), pp. 1651-1662. (21) Courrech J., “Examples of the Application of Gated Vibration Analysis for the Detection of Faults in Reciprocating Machines,” Noise and Vibration 89 Conference, Singapore, 16 th – 18 th August, 1989. 81 (22) Downham E., and Woods R., “The Rationale of Monitoring Vibration in Rotating Machinery in Continuously Operating Process Plant,” ASME paper no. 71, Vibration-96, (1971), pp. 54-59. (23) Bate A. H., “Vibration Diagnostics for Industrial Electric Motor-Drives,” Brüel and Kjaer application note. (24) Roylance B.J., and Hunt T.M., “The Wear Debris Analysis Handbook”. Coxmoor publishing Company, Oxford, UK (1999). (25) Parikka R., and Vaajoensuu E., Valon läpäisyyn perustuvat low cost- analysaattorit öljyjen käynninaikaiseen kunnonvalvontaan. Tribologia – Finnish Journal of Tribology Vol. 22, (2003), pp. 16–22. (26) Toms L.A., “Machinery Oil Analysis – Methods, Automation & Benefits”. Coastal Skills Training, Virginia Beach, USA (1998). (27) Rao BKN Handbook of Condition Monitoring. Elsevier Science Ltd, Oxford, UK (1996). (28) Hägg B., “The great profitability potential in manufacturing industry”. In: Lahdelma S., & Palokangas K., (eds) Proc of the 2nd Int Seminar of Maintenance, Condition Monitoring and Diagnostics, Oulu, Finland, 28th – 29th September 2005, pp. 7–16. (29) Maxwell H., Johnson B., “Vibration and lube oil analysis in an integrated predictive maintenance program”, in: Proceedings of the 21st Annual Meeting of the Vibration Institute (1997), pp. 117–124. (30) Ahlroos T Tribologia, voitelu ja ympäristöasiat. Tribologia – Finnish Journal of Tribology Vol. 22 (2003), pp. 23–29. (31) Hunt T., Evans J., Oil Analysis Handbook. Coxmoor publishing company, Oxford, UK (2004). (32) SKF Vibration Diagnostic Guide (www.skf.com/medialibrary/asset/0901d19680218bf8, 27 th September 2013) http://www.skf.com/medialibrary/asset/0901d19680218bf8 82 APPENDICES Features of vibration analyzer Appendix - A 83 84 85 86 SEPARATOR 500 Appendix - B Vibration results: - Point (A), Side of mid bearing of vertical shaft Vibration results: - Point (B), Front of mid bearing of vertical shaft Vibration results: - Point (C), Side of lower bearing of vertical shaft 87 Vibration Results: - Point (D), Axial of lower bearing of vertical shaft Vibration Results: - Point (E), Non driven end of the motor housing (Vertical) Vibration Results: - Point (F), Non driven end of the motor housing (Horizontal) 88 Vibration Results: - Point (G), Driven end of the motor housing (Vertical) Vibration Results: - Point (H), Driven end of the motor housing (Horizontal) Vibration Results: - Point (I), Driven end of the motor housing (Axial) 89 SEPARATOR 300 Vibration results: - Point (A), Side of mid bearing of vertical shaft Vibration results: - Point (B), Front of mid bearing of vertical shaft Vibration results: - Point (C), Side of lower bearing of vertical shaft 90 Vibration results: - Point (D), Axial of lower bearing of vertical shaft Vibration Results: - Point (E), Non driven end of the motor housing (Vertical) Vibration results: - Point (F), Non driven end of the motor housing (Horizontal) 91 Vibration results: - Point (G), Driven end of the motor housing (Vertical) Vibration results: - Point (H), Driven end of the motor housing (Horizontal) Vibration results: - Point (I), Driven end of the motor housing (Axial) 92 Properties of Rando 220 Appendix - C 93 Results of oil analysis Appendix - D 94