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Design, experimentation, and simulation of dynamic pressure sensor inserts: towards reducing oscillations in measurements

Design, experimentation, and simulation of dynamic pressure sensor inserts: towards reducing oscillations in measurements
Design, experimentation, and simulation of dynamic pressure sensor inserts: towards reducing oscillations in measurements
Dynamic pressure measurements are crucial for accurately monitoring and optimizing the performance of high-speed screw compressor systems. However, high sensor sensitivity combined with dynamic pressure effects can lead to nonphysical oscillations, distorting test results and compromising data reliability. This study addresses these challenges by using a lumped parameter model to analyse the pressure oscillations, identifying key factors that influence the system’s response. Experimental validation demonstrates that the optimized sensor insert design significantly reduces oscillations, thereby improving the stability of pressure measurements and mitigating nonphysical signal distortions. An additional comparative analysis is conducted between experimental results and analytical lumped model derived from sensor inserts. This integrated approach provides a comprehensive framework to improve the dynamic pressure assessment in high-speed screw compressors.
0888-3270
Hassani, Vahid
8c648514-5b99-494e-afd0-6df033fa1303
Barzamini, Roohollah
1cac00c3-c656-487a-8d0d-2aee8423287a
Hassani, Vahid
8c648514-5b99-494e-afd0-6df033fa1303
Barzamini, Roohollah
1cac00c3-c656-487a-8d0d-2aee8423287a

Hassani, Vahid and Barzamini, Roohollah (2025) Design, experimentation, and simulation of dynamic pressure sensor inserts: towards reducing oscillations in measurements. Mechanical Systems and Signal Processing, 237 (2025), [113140]. (doi:10.1016/j.ymssp.2025.113140).

Record type: Article

Abstract

Dynamic pressure measurements are crucial for accurately monitoring and optimizing the performance of high-speed screw compressor systems. However, high sensor sensitivity combined with dynamic pressure effects can lead to nonphysical oscillations, distorting test results and compromising data reliability. This study addresses these challenges by using a lumped parameter model to analyse the pressure oscillations, identifying key factors that influence the system’s response. Experimental validation demonstrates that the optimized sensor insert design significantly reduces oscillations, thereby improving the stability of pressure measurements and mitigating nonphysical signal distortions. An additional comparative analysis is conducted between experimental results and analytical lumped model derived from sensor inserts. This integrated approach provides a comprehensive framework to improve the dynamic pressure assessment in high-speed screw compressors.

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Accepted/In Press date: 21 July 2025
e-pub ahead of print date: 22 July 2025
Published date: 22 July 2025

Identifiers

Local EPrints ID: 509157
URI: http://eprints.soton.ac.uk/id/eprint/509157
ISSN: 0888-3270
PURE UUID: b2a46102-3ffe-442e-86b5-2aeeb2766af6

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Date deposited: 11 Feb 2026 18:07
Last modified: 11 Feb 2026 18:07

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Contributors

Author: Vahid Hassani
Author: Roohollah Barzamini

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