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Field
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, programmable OpenFlow/P4 switches and AI‑Boxes for fast inference, together with NetFPGA/DAG hardware for sub‑millisecond failure detection and a Timeseries‑DB/Grafana monitoring platform for closed‑loop testing
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The rapid electrification and digitalisation of society are creating increasingly complex electromagnetic environments. Fast-switching power electronics in vehicles, buildings, hospitals and farms
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We are working on creating a new type of Radio-Frequency Integrated Circuit technology based on optically induced plasmas in silicon to create photo-conductive switches. This combines low-cost
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of society are creating increasingly complex electromagnetic environments. Fast-switching power electronics in vehicles, buildings, hospitals and farms can generate electromagnetic interference (EMI
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, electric mobility, industrial electrification and modern power grids. New wide-bandgap semiconductor devices based on silicon carbide (SiC) and gallium nitride (GaN) can switch faster and reduce conversion
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infection context from hundreds of thousands scientific publications, with comparative bacterial genomics, to identify molecular signatures of host switches. Integrating these complementary approaches will
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. Electromagnetic Management The use of wide-bandgap semiconductor devices can significantly reduce the size of passive components within power electronic converters. However, their high switching speeds can
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electrification and modern power grids. New wide-bandgap semiconductor devices based on silicon carbide (SiC) and gallium nitride (GaN) can switch faster and reduce conversion losses, but their performance is
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contracts, leaving organizations unable to switch providers, access their own data, or modify systems without significant cost or disruption. Addressing these challenges requires new expertise, assessment
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Management The use of wide-bandgap semiconductor devices can significantly reduce the size of passive components within power electronic converters. However, their high switching speeds can introduce