Articles tagged with Semiconductors
T. Don Tilley receives the 2002 Award in Organometallic Chemistry for developing new ways to make chemicals, including flexible semiconductors and reactive building blocks. His research aims to improve semiconductor materials and create new properties through polysilene technology.
A new method for producing ultraviolet (UV) light has been patented by Rutgers researchers, providing a more energy-efficient source with higher power and lower maintenance. The technology has broad industrial and commercial applications in the semiconductor, printing, and lighting industries.
Patricia B. Smith has developed a hydrogen-based plasma process that effectively removes residues from pure copper interconnected layers, enabling the manufacture of state-of-the-art semiconductor devices. This breakthrough technology will also be used for future generations of smaller device technologies.
The UC-SMART program is allocating $1.5 million over four years to support cutting-edge semiconductor research at the University of California, Santa Barbara. Researchers will focus on developing novel materials and devices for optical and electronic applications, including organic chromophores, nanoparticle patterning, self-assembled ...
Arthur Gossard, a professor at UCSB, has received the James C. McGroddy Prize for his contributions to molecular beam epitaxy, a key technology for compound semiconductors used in wireless and fiber-optic devices. The prize honors his work on device applications and physical understanding of low-dimensional structures.
Researchers at Cornell University have developed a technique to grow pure, defect-free single crystals of almost any material on any substrate by bonding thin films at a misaligned angle. The new method has the potential to revolutionize electronics manufacturing by overcoming current limitations.
A Dartmouth physicist has discovered that applying a small electric voltage across an ice-metal interface can break the bond between ice and metal surfaces, potentially preventing or reducing icing on airplane wings. The effect of the voltage can be reversed to increase ice adhesion, which could improve traction on icy roads.
Scientists at the Weizmann Institute successfully created uniformly oriented crystals of varying sizes by fine-tuning the small remaining mismatch between two materials. The method, using a technique called electrodeposition, holds promise for developing tiny semiconductors with new optoelectronic properties.
UB physicists have developed the first single-crystal, semiconducting nanomaterials that can bend without breaking. The new semiconductors retain structural integrity and optical properties, making them suitable for future advances in optical computing.