Platform Performance Suite (PPS): A Framework for Performance Analysis & Diagnosis of Complex Cyber-physical Systems

The performance of cyber-physical systems (CPS) is a determining factor for their success and often needs to be guaranteed. When performance issues occur, their analysis and the identification of the root-cause should be fast. Typically, the analysis requires the association of system observations (i.e., tracing) to design and implementation artifacts. For this association, multidisciplinary domain knowledge is required, which typically resigns in the workforce but is unmanageable due to the immense and continuously increasing system complexity.This paper proposes a model-based method, the Platform Performance Suite (PPS), supported by corresponding tooling. PPS enables automated analysis for the identification of the root-cause when performance issues, like system throughput loss, occur. The cornerstone of the approach is the Lifecycle Software Architecture model which captures the domain knowledge in models by modeling all the relationships among the system artifacts from specification up to the runtime phase. The performance analysis at runtime phase is carried out on TMSC models guaranteeing the generic applicability of the method, while the connection to the other lifecycle phases enables the automated identification of the root-cause by pinpointing specific artifacts. The evaluation of the method has been carried out on a world-leading complex and high-performing CPS, the ASML TWINSCAN system, where a throughput loss needs to be addressed promptly. PPS has shown remarkable speed-up in the identification of the root-cause compared to the state-of-practice method.

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Published
2025-05-03
DOI
https://doi.org/10.1145/3676151.3719356
Primary Topic
Software System Performance and Reliability
Type
article
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article

Platform Performance Suite (PPS): A Framework for Performance Analysis & Diagnosis of Complex Cyber-physical Systems

Jos Hegge, Yuri Blankenstein, Sobhan Niknam, Konstantinos Triantafyllidis
Software System Performance and Reliability
article

Platform Performance Suite (PPS): A Framework for Performance Analysis & Diagnosis of Complex Cyber-physical Systems

Jos Hegge, Yuri Blankenstein, Sobhan Niknam, Konstantinos Triantafyllidis
article en

Abstract

The performance of cyber-physical systems (CPS) is a determining factor for their success and often needs to be guaranteed. When performance issues occur, their analysis and the identification of the root-cause should be fast. Typically, the analysis requires the association of system observations (i.e., tracing) to design and implementation artifacts. For this association, multidisciplinary domain knowledge is required, which typically resigns in the workforce but is unmanageable due to the immense and continuously increasing system complexity.This paper proposes a model-based method, the Platform Performance Suite (PPS), supported by corresponding tooling. PPS enables automated analysis for the identification of the root-cause when performance issues, like system throughput loss, occur. The cornerstone of the approach is the Lifecycle Software Architecture model which captures the domain knowledge in models by modeling all the relationships among the system artifacts from specification up to the runtime phase. The performance analysis at runtime phase is carried out on TMSC models guaranteeing the generic applicability of the method, while the connection to the other lifecycle phases enables the automated identification of the root-cause by pinpointing specific artifacts. The evaluation of the method has been carried out on a world-leading complex and high-performing CPS, the ASML TWINSCAN system, where a throughput loss needs to be addressed promptly. PPS has shown remarkable speed-up in the identification of the root-cause compared to the state-of-practice method.

ASML (Netherlands) (NL)
Openalex Percentile: Top 91%
Software System Performance and Reliability
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