Articles tagged with Silicon Carbides
Research from Griffith University demonstrates silicon carbide's superiority as a semiconductor for high-performance sensors in various industries, including mining and aerospace. The compound's unique electronic structure provides mechanical strength, chemical inertness, thermal durability, and electrical stability.
The graphene-paved roadmap outlines the material's potential for transforming various industries, including electronics and medicine. With its unique properties, graphene is expected to play a crucial role in developing new technologies such as flexible devices, rollable e-paper, and high-speed wireless communications.
Researchers are developing silicon carbide microchips that can operate in harsh environments, enabling new applications like efficient lighting. The project aims to bring this technology closer to reality and engage with major international industry.
Engineers at Case Western Reserve University have developed integrated amplifier circuits that can operate under extreme temperatures, revolutionizing data collection in nuclear reactors and rocket engines. The silicon carbide amplifiers can improve signal strength and produce more reliable information.
Researchers will use a three-year, $1.38 million grant to study presolar grains in a sample of the Murchison meteorite. They aim to extract exceptionally large grains that came from supernovae, allowing them to make more comprehensive measurements and understand how elements were forged.
Researchers at Georgia Institute of Technology developed a new templated growth technique for fabricating nanometer-scale graphene devices. The method involves etching patterns into silicon carbide surfaces to direct graphene growth, resulting in smooth-edged nanoribbons with controlled widths.
Researchers at Newcastle University create a wireless sensor that can withstand extreme temperatures to monitor volcanic activity and collect real-time data. The device uses Silicon Carbide electronics, which also offers radiation tolerance for potential use in the nuclear industry.
Researchers investigated how defects in graphene affect its electronic properties. They found that surface quality plays a crucial role in controlling plasmons, which could be harnessed for future technical applications.
Researchers have provided unprecedented insight into the properties of super-hard ceramic materials, which exhibit unusual pliability and potential applications in fields like aerospace and medical implants. The study's findings could lead to the development of stronger materials with improved ductility and control over their properties.
Researchers developed a new method combining atomic force and scanning capacitance microscopes to measure semiconductor switching speeds, enabling quick scanning of wafers for defects. This technique has the potential to determine if missing atoms in semiconductors slow down electrical charge movement.