Model-based Approach to Automated Calculation of Key Performance Indicators for Industrial Turbines



Gulnar Mehdi Davood Naderi Giuseppe Ceschini Alexey Fishkin Sebastian Brandt Stuart Watson Mikhail Roshchin


In recent years, the service business of the global turbo- machinery industry has undergone important changes. Many of these changes have been motivated by an increased demand for dedicated and systematic approaches to process safety, reliability, asset integrity and the overall health of the system. This has strengthened the role of key performance indicators (KPIs) as a means of providing guidance for the system’s health state and improve risk management. In order to provide trustable and accurate calculations of these performance indicators in an automated fashion, we argue for a model-based solution that deals with the complexity of diverse configurations and interdependences between system components. This paper presents a solution for calculating KPIs by a semi-automated process based on post-data processing from the site and specific system models. The models consist of a combination of system descriptions in terms of ontologies and complex event processing models. By virtue of our models, state indicator rules for KPI calculations can be formulated at different levels, identifying performance gaps and indicating precisely where action should be taken by the service engineers. With the adopted solution, we discuss the practical implementation and present results of our success story at Siemens AG for the Industrial Gas Turbines.

How to Cite

Mehdi, G. ., Naderi, D. ., Ceschini, G. ., Fishkin, A. ., Brandt, S., Watson, S. ., & Roshchin, M. . (2015). Model-based Approach to Automated Calculation of Key Performance Indicators for Industrial Turbines. Annual Conference of the PHM Society, 7(1).
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complex systems, gas turbines, model-based methods, performance analysis, complex event processing, ontology, key performance indicators

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