5. Conclusions and future work
5.2 Future works: application in an industrial case study
In order to prove and validate the benefits of such an approach in practice, an industrial case study must be performed. Although theory is important, the verification of the results with the aid of practical cases and case studies is indispensable. In this final section, it is going to be described how to implement an asset management approach with predictive maintenance and a possible method to analyze the results. The
application and the conclusions extracted from this industrial case might enhance the conclusions obtained in this project.
The predictive maintenance technology is scalable, and can be applied on a few or several machines in a plant [44]. When implementing PdM, two facts must be considered. First, the equipment must incorporate in its design functions, IT architecture, and capabilities that provide predictive maintenance within the scope of the equipment hardware and software operation. Secondly, the equipment must generate and make data available on all of the equipment functions and operations as well as performance and health metrics.
Equipment PdM data
To meet the vision of PdM, equipment is supposed to generate, use, and make available a wide variety of data. The data must include all the sources of data that are available, as well as new data. The pant must make the effort of implementing a suitable IT platform and technologies to be sure data coming from multiple sources can be acquired, processed, cleansed and analyzed.
KPI
Choosing the most appropriate KPI to prove maintenance benefits in the industry plant is indispensable. Equipment data come from a variety of sources that produce data of different types. KPI should be generated at the lowest level. The communication of these data must use standardized via communication protocols and interfaces.
Prioritizing Equipment Implementation
“Equipment should be analyzed to determine the PdM capabilities and target subsystems or modules that will provide the greatest return and improvement to equipment predictability and productivity” [47]. It is strongly recommended to establish data-driven PdM implementation plan that includes demonstrating and quantifying results.
Factory Implementation
“PdM implementation at the plant’s systems level is expected to take a larger, systemic view of equipment predictability and use. The factory systems should consider the effects of process sensitivities or other factors outside the equipment on performance, predictability, and productivity” [44]. The factory systems should use the PdM data and health metrics from the equipment as one set of inputs to PdM systems and analysis.
References
[1] Production Logistics and Sustainability Cockpit. October 2010
[2] MIMOSA (Machinery Information Management Open Systems Alliance)
www.mimosa.org, last accessed June 2011.
[3] Kans M. and Ingwald A. “Common database for cost-effective improvement of
maintenance performance”. International Journal of production economics; 2008, 113, pp. 734-747.
[4] Campos J, “Development in the application of ICT in condition monitoring and
maintenance”. Computers in industry; 2009, 60, pp. 1-20.
[5] Braaksma A.J.J, Klingenberg W. and van Exel P. “A review of the use of asset
information standards for collaboration in the process industry”. Computers in industry;2011, 62, pp. 337-350.
[6] Kiritsis D., “Closed-loop PLM for intelligent products in the era of the internet of things”. Computer-Aided Design; 2011, 43, pp. 479-501.
[7] Emmanoulidis C., Jantunen E. and MacIntyre J, “Flexible software for condition
monitoring, incorporating novelty detection and diagnostics”. Computers in industry; 2006, 57, pp. 516-527.
[8] Niu G. and Yang B., “Intelligent condition monitoring and prognostics system based on data-fusion strategy”. Experts Systems with Applications; 2010, 37, pp. 8831-8840.
[9] Heng A., Tan A., Mathew J., Monthomery N, Banjevic D. and Jardine A., “Intelligent condition-based prediction of machinery reliability”. Mechanical Systems and Signal Processing; 2009, 23, pp. 1600-1614.
[10] Heng A., Zhang S., Tan A. and Mathew J., “Rotating machinery prognostics: State of the art, challenges and opportunities”. Mehcanical Systems and Signal Processing; 2009, 23, pp. 724-739.
[11] Niu G., Yang B. and Pecht M, “Development of an optimized condition-based maintenance system by data fusion and reliability-centered maintenance”. Reliability Engineering and System Safety; 2010, 95, pp. 786-796.
[12] Safari E. and Sadjadi S., “A hybrid method for flowshops scheduling with condition-based maintenance constraint and machines breakdown”. Expert Systems with Applications; 2011, 38, pp. 2020-2029.
[13] Jardine A., Lin D. and Banjevic D., “A review on machinery diagnostics and prognostics implementing condition-based maintenance”. Mechanical Systems and Signal Processing; 2006, 20, pp. 1483-1510.
[14] Carr M.J. and Wang W., “An approximate algorithm for prognostic modelling using condition monitoring information”. European Journal of Operation Research 2011, 211, pp. 90-96.
[15] Rachuri S., Subrahmanian E., Bouras A., Fenves S., Foufou S. and Sriram S., “Information sharing and exchange in the context of product lifecycle management: Role of standards”. Computer-Aided Design; 2008, 40, pp. 789- 800.
[16] Muller A., Márquez A. and Iung B., “On the concept of e-maintenance: Review
and current research”. Reliability Engineering and System Safety; 2008, 93, pp. 1165-1187.
[17] Catrinu M.D. and Nordgard D.E., “Integrating risk analysis and multi-criteria decision support under uncertainty in electricity distribution system asset management”. Reliability Engineering and System Safety; 2011, 96, pp. 663- 670.
[18] Andersen J., Crainic T. and Christiansen M., “Service network design with asset management: Formulations and comparative analyses”. Transportation Research Part C; 2009, 17, pp. 197-207.
[19] Vo C, Chilamkurti N., Loke S. and Torabi T., “RADIO-MAMA: An RFID
based business process framework for asset management”. Journal of Network and Computer Applications; 2011, 34, pp. 990-997.
[20] Schneider J., Gaul A.J., Neumann C., Hogräfer J., WellBow W., Schwan M. and
Schnettler A., “Asset management techniques”. Electrical Power and Energy Systems; 2006, 28, pp. 643–654.
[21] Abu-Elanien A. and Salama M., “Asset management techniques for
transformers”. Electric Power Systems Research; 2010, 80, pp. 456-464.
[22] Hoskins R.P., Brint A.T. and Strbac G., “A structured approach to Asset Management within the electricity industry”. Utilities Policy; 1998, 7, pp. 221– 232.
[23] Gustavsen B. and Rolfseng L., “Asset management of wood pole utility
structures”. Electrical Power and Energy Systems; 2005, 27, pp. 641–646.
[25] Sharma M., Ammons J. and Hartman J., “Asset management with reverse product flows and environmental considerations”. Computers & Operations Research; 2007, 34, pp. 464–486.
[26] Mitchell J. and H. Bond T., “Equipment Lifecycle management condition base maintenance and more!”. http://tecem.com.br/site/downloads/artigos/sisappr.pdf
Last accessed April 2011.
[27] International Society of Engineering Asset Management: ISEAM
www.iseam.org last accessed April 2011.
[28] Mathew A., Zhang L., Zhang S. and Ma L., “A review of the MIMOSA OSA- EAI database for condition monitoring systems”. In Proceedings World Congress on Engineering Asset Management, Gold Coast, Australia. October 2006.
[29] Condition Based Operations for Manufacturing. OpenO&M. For Manufacturing Joint Working Group. October 2006.
[30] Laszkiewicz M., “Plant floor optimization: asset management in the new
economy” http://www.isa.org/fmo/newsweb/pdf/plantfloor.pdf Last accessed
May 2011
[31] Salim M.D. and Timmerman A., “Software to Simulate and Optimize Asset Management in Construction and Manufacturing”. The journal of technology studies. 2008, 77, pp. 10-18
[32] LCE (Life Cycle Engineering) http://www.lce.com/ Last accessed May 2011
[33] March C., “The Five Biggest Risks to Effective Asset Management”
http://www.lce.com/The_Five_Biggest_Risks_to_Effective_Asset_Management _367-item.html. Last accessed May 2011
[34] “Asset management award” http://conferences.theiet.org Last accessed May 2011
[35] Smith C.D., Tvernier K., Zhao J. and McGrail A.J., “A Novel Approach to the
Condition Assessment of HV Plant incorporating On-Line, Remote Access Acoustic Emission and Electromagnetic Partial Discharge Sensing”, Proc. of 1st International Conference on Insulation Condition Monitoring of Electrical Plant, 24-26th September 2000, Wuhan China
[36] Ben-Menachem M., “Towards management of software as assets: A literature review with additional sources”. Information and software technology; 2008, 50, pp. 241-258
[37] Humphrey C., Tollefson T. and J., “Digital asset management”. Facial plastic surgery clinics of North America; 2010, 18, pp. 335-340
[38] Lau H.C.W. and Dwight R.A., “A fuzzy-based decision support model for engineering asset condition monitoring - a case study of examination of water pipelines”. Expert systems with applications; 2011, 18, pp. 1-31
[39] Osterweil L., Brown J.R. and Stucki L., “ASSET: a lifecycle verification and visibility system”.
[40] Taylor W., “The use of life cycle costing in acquiring physical assets”. Long range planning; 1981, 14, pp. 32-43
[41] “Life Cycle Costing Guideline”, Total Asset Management, September 2004.
http://www.treasury.nsw.gov.au/__data/assets/pdf_file/0005/5099/life_cycle_cos
tings.pdf. Last accessed May 2011.
[42] Total Asset Management. http://www.gamc.nsw.gov.au/tam/ Last accessed May
2011
[43] www.reliabilityweb.com / Last accessed June 2011
[44] Woodhouse J., “Asset Management: concepts and practices”, March 2006.
http://reliabilityweb.com/index.php/articles/asset_management_concepts_practic es/ Last accessed June 2011
[45] Toomey G., Freitas I., Oliveira V., “ AES’ Approach to a Proactive Maintenance
Programme to Meet the Plant’s Business Goals – Putting It All Together”, May Las
[46] Banerjhi R., “A world class approach to asset management”, November 2006.
http://www.allianceindia.co.in/newsite/whitepapers/An%20Approach%20to%20
WCAM%20Ver%201.4.pdf Last accessed June 2011
[47] Joubert A., “Predictive maintenance”,
http://vut.netd.ac.za/bitstream/10352/96/9/09%20Joubert,%20A.%20Chapter%2
08.pdf / Last accessed June 2011
[48] Podolosky J., “Predictive maintenance as part of an overall asset optimization strategy”, Process products, March 2004.
[49] “ABB solutions for asset management. The competitive advantage for every
industry”,www05.abb.com/global/scot/.../broch_assetmgmt_3bus094559_en_hi.
[50] Mathew, Avin and Zhang, Sheng and Ma, Lin and Earle, Tom and Hargreaves, “Reducing maintenance cost through effective prediction analysis and process integration.”, Advances in vibration engineering 5, 2006, 2, pp. 87-96
[51] “ISMI Consensus Preventive and Predictive Maintenance Vision”, May 2007,
http://www.sematech.org/docubase/document/4819ceng.pdf / Last accessed June 2011
[52] “Useful Key Performance Indicators for maintenance”, http://www.lifetime-
reliability.com/free-articles/maintenance
management/Useful_Key_Performance_Indicators_for_Maintenance.pdf
Last accessed June 2011
[53] Goly K., “A Business-Based Approach to Developing an Effective Program”,
http://reliabilityweb.com/index.php/articles/a_business-
based_approach_to_developing_an_effective_program/ Last accessed June 2011
[54] Wireman T., “Maintenance feature”, Getting the most from predictive
maintenance, http://www.enerchecksystems.com/articl02.html
[55] ”Asset management premier”, U.S Department of transportation
[56] www.wikipedia.org Last accessed April 2011
[57] “Overview of Machinery Information Management Open System Alliance
(MIMOSA)”, www.eng.uc.edu/icams/projects/oaicbm/mimosa.pdf Last
Accessed June 2011
[58] Biswal M., “An integrated approach for open e Maintenance: Opportunities and challenges”, The 1st international workshop and congress on eMaintenance 2010, 22-24 June, Luleå, Sweden