Reliability Considerations and Fault-Handling Strategies for Multi-MW Modular Drive Systems

Shunt-interleaved electrical drive systems consisting of several parallel medium-voltage back-to-back converters enable power ratings of tens of MVA, low current distortions, and a very smooth air-gap torque. To meet stringent reliability and availability goals despite the large parts count, the mod...

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Veröffentlicht in:IEEE transactions on industry applications 2010-11, Vol.46 (6), p.2442-2451
Hauptverfasser: Geyer, Tobias, Schröder, Stefan
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Schröder, Stefan
description Shunt-interleaved electrical drive systems consisting of several parallel medium-voltage back-to-back converters enable power ratings of tens of MVA, low current distortions, and a very smooth air-gap torque. To meet stringent reliability and availability goals despite the large parts count, the modularity of the drive system needs to be exploited and a suitable fault-handling strategy that allows the exclusion and isolation of faulted threads is required. This avoids the shutdown of the complete system and enables the drive system to continue operation. If full power capability is also required in degraded mode operation, redundancy on a thread level needs to be added. Experimental results confirm that thread exclusion allows the isolation of the majority of faults without affecting the mechanical load. As the drive system continues to run, faulted threads can be repaired and then added on-the-fly to the running system by thread inclusion. As a result, the downtime of such a modular drive system is expected to not exceed a few hours per year.
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To meet stringent reliability and availability goals despite the large parts count, the modularity of the drive system needs to be exploited and a suitable fault-handling strategy that allows the exclusion and isolation of faulted threads is required. This avoids the shutdown of the complete system and enables the drive system to continue operation. If full power capability is also required in degraded mode operation, redundancy on a thread level needs to be added. Experimental results confirm that thread exclusion allows the isolation of the majority of faults without affecting the mechanical load. As the drive system continues to run, faulted threads can be repaired and then added on-the-fly to the running system by thread inclusion. 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subjects Circuit breakers
Converters
Degradation
Downtime
Electric power generation
Electrical drive
fault handling
Inclusions
Inductors
Inverters
medium-voltage drive
Message systems
Modular
modular drive system
Motors
multilevel converter
Power rating
Product design
Redundancy
reliability
Strategy
title Reliability Considerations and Fault-Handling Strategies for Multi-MW Modular Drive Systems
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