Theoretical proposition of control and data acquisition system for a test stand for single-cell testing of pem hydrogen fuel cells

Mikołaj Klekowicki

a:1:{s:5:"en_US";s:32:"Poznań University of Technology";}

Filip Szwajca

Poznań University of Technology

Grzegorz M. Szymański

Poznań University of Technology

Klaudia Strugarek

Poznań University of Technology

Aleksander Ludwiczak

Poznań University of Technology


Abstract

Accurate, traceable characterisation of proton-exchange membrane (PEM) fuel cells at the
single-cell level is pivotal for material screening, degradation studies and control-algorithm
development. However, commercial diagnostic benches typically cost €20,000-150,000, limiting access for many research and teaching laboratories. This paper introduces a fully open-hardware, modular test stand that delivers 0.1 mV voltage resolution and a 0-50 A current envelope for a bill of materials of only €14,000. The architecture is split into a measurement & regulation layer built around temperature-controlled shunts and a 12-bit delta-sigma ADC, a control & SCADA layer based on an ESP32-S3 micro-controller and CompactDAQ interface, and a hydrogen-supply layer equipped with SIL-2 safety instrumentation. A rigorously quantified Type-A/Type-B uncertainty budget, prepared in accordance with ISO/IEC Guide 98-3 and validated via a 10,000-run Monte-Carlo simulation, yields an expanded cell-voltage uncertainty of ±0.38 % (k = 2). A built-in
real-time digital twin couples an equivalent-circuit model with reduced-order CFD to enable
what-if analyses and predictive maintenance. Comparative benchmarking against the AVL E-Load 2 and ZSW single-cell rigs shows equal or better metrological performance at ≤ 25% of their cost. A proof-of-
-concept dynamic-load experiment confirms the stand’s fidelity, establishing a low-cost pathway towards scalable, open and safe PEM fuel-cell diagnostics.


Keywords:

hydrogen, PEM, fuel cell, digital twin, ESP32


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Published
2025-06-12

Cited by

Klekowicki, M., Szwajca, F., Szymański, G. M., Strugarek, K., & Ludwiczak, A. . (2025). Theoretical proposition of control and data acquisition system for a test stand for single-cell testing of pem hydrogen fuel cells. Technical Sciences, 28(28), 103–117. https://doi.org/10.31648/ts.11404

Mikołaj Klekowicki 
a:1:{s:5:"en_US";s:32:"Poznań University of Technology";}
Filip Szwajca 
Poznań University of Technology
Grzegorz M. Szymański 
Poznań University of Technology
Klaudia Strugarek 
Poznań University of Technology
Aleksander Ludwiczak 
Poznań University of Technology



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