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Directed energy technology is becoming an increasingly important area of research within modern defence and aerospace electronics. Unlike conventional systems that rely on a physical projectile, directed energy systems use concentrated electromagnetic energy to interact with a target. Behind these very sophisticated systems is an equally important field of engineering: high-voltage power electronics. Applications involving

As industries demand higher efficiency, greater power density, and more reliable electronic systems, Silicon Carbide (SiC) power technology is becoming increasingly important. From electric vehicles and renewable energy systems to industrial equipment and high-voltage power supplies, SiC devices offer significant advantages over conventional silicon components. However, engineers, purchasing teams, and businesses evaluating this technology often

Power electronics are fundamental to modern industry. From renewable energy and electric transportation to industrial motor drives, charging infrastructure and high-voltage power conversion, engineers are continually searching for semiconductor technologies that can deliver higher efficiency, greater power density and improved reliability. The Insulated Gate Bipolar Transistor (IGBT) has played a major role in this development.

The aerospace and defence industries demand electronic systems capable of performing flawlessly in some of the world’s most challenging environments. Whether operating at extreme altitudes, in space, or on military platforms exposed to harsh conditions, electronic components must deliver exceptional reliability, efficiency, and durability. Traditional silicon-based power devices have served these industries for decades, but

The transition toward renewable energy is reshaping the global power industry. As solar farms, wind turbines, and battery energy storage systems become increasingly widespread, the demand for more efficient power conversion technologies continues to grow. At the heart of these systems are advanced renewable energy semiconductors, particularly the High Voltage MOSFET, which enables efficient switching,

The very rapid growth of electric vehicles (EVs) has created an equally urgent demand for faster, more reliable, and energy-efficient charging systems. Whether powering passenger vehicles, commercial fleets, or public charging stations, modern charging infrastructure depends on advanced power electronics to deliver electricity safely and efficiently. At the heart of these systems are SiC Schottky

For decades, traditional silicon has been the foundation of modern electronics. From consumer devices to industrial equipment, silicon-based components have powered innovation across countless industries. However, as technology continues to evolve, so do the demands placed on power electronics. Electric vehicles, renewable energy systems, AI data centres, industrial automation and aerospace applications all require faster,

As power electronics continue to evolve, manufacturers are constantly searching for components that deliver greater efficiency, higher power density, and improved thermal performance. One of the key technologies driving this advancement is the high voltage bare die. A high voltage bare die is a semiconductor chip that has not yet been enclosed in a protective

Custom SiC diode specifications shape efficiency, thermal margin and system cost. Learn which parameters matter most in high-voltage designs.

Choosing a SiC wafer manufacturer affects yield, switching efficiency and system cost. Here is what engineers and buyers should assess first.