A Novel Approach for Testing the Robustness of Networked Components in Vehicles Against Dynamic Power Supply Faults

Future automobiles will be characterized by automated driving features which demand an outstanding reliability of safety critical components. To ensure the needed safety in operation of the automated driving systems, the power supply must support a basic functionality in the case of a supply component failure. Typical component tests regarding the supply system are simplified and cannot consider the propagation of voltage pulses or drops along the power supply system and faulty system interactions. A new testing approach has been developed which considers these effects. The propagation of power supply system faults in a supply network are simulated first, and the time dependent voltage profiles are calculated for each attached electronic component individually. In a second step, voltage profiles gained from simulations are supplied by a highly dynamic voltage source to the electronic components and possible interactions are analyzed in this setup. The test method is presented and analyzed. In an exemplary automotive setup two redundant electronic components are interacting via the CAN communication bus. It is discussed how highly dynamic power supply system faults can lead to unexpected system interactions, not considered in today's testing approaches.

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Publication Details

Journal
IEEE Transactions on Industry Applications
Published
2025-04-25
DOI
https://doi.org/10.1109/tia.2025.3564550
Primary Topic
Advanced Battery Technologies Research
Type
article
Field-Weighted Citation Impact
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article

A Novel Approach for Testing the Robustness of Networked Components in Vehicles Against Dynamic Power Supply Faults

Stephan Frei, Marvin Rübartsch
IEEE Transactions on Industry Applications
Advanced Battery Technologies Research
article

A Novel Approach for Testing the Robustness of Networked Components in Vehicles Against Dynamic Power Supply Faults

Stephan Frei, Marvin Rübartsch
article en

Abstract

Future automobiles will be characterized by automated driving features which demand an outstanding reliability of safety critical components. To ensure the needed safety in operation of the automated driving systems, the power supply must support a basic functionality in the case of a supply component failure. Typical component tests regarding the supply system are simplified and cannot consider the propagation of voltage pulses or drops along the power supply system and faulty system interactions. A new testing approach has been developed which considers these effects. The propagation of power supply system faults in a supply network are simulated first, and the time dependent voltage profiles are calculated for each attached electronic component individually. In a second step, voltage profiles gained from simulations are supplied by a highly dynamic voltage source to the electronic components and possible interactions are analyzed in this setup. The test method is presented and analyzed. In an exemplary automotive setup two redundant electronic components are interacting via the CAN communication bus. It is discussed how highly dynamic power supply system faults can lead to unexpected system interactions, not considered in today's testing approaches.

IEEE Transactions on Industry ApplicationsVol. 61(5)
TU Dortmund University (DE)
Affordable and clean energy
Openalex Percentile: Top 92%
Advanced Battery Technologies Research
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