News
Nandan Reddy Muthangi, an M.Eng. student in Cornell’s Department of Materials Science and Engineering, is partnering with a company to develop new methods for building semiconductor test chips that improve manufacturing reliability.
A $9.5 million investment in the Cornell NanoScale Science and Technology Facility from Duffield Engineering will position the facility for its next era of leadership in semiconductor research, education and workforce training.
Cornell researchers have observed a quantum property of the material for the first time, an advance that could expand its technological reach.
A Cornell-led collaboration used high-resolution 3D imaging to detect, for the first time, the atomic-scale defects in computer chips that can sabotage their performance.
Several New York–based technology companies are accelerating next-generation semiconductor manufacturing with support from the NY THRIVE Innovation Voucher program, including projects in collaboration with Cornell University’s world-class research facilities.
High school seniors from Tompkins-Seneca-Tioga BOCES stepped into the cleanroom at Cornell’s Cornell NanoScale Science and Technology Facility this January, trading classroom labs for hands-on experience in one of the nation’s most advanced university nanofabrication facilities.
Cornell researchers have developed a new transistor architecture that could reshape how high-power wireless electronics are engineered, while also addressing supply chain vulnerabilities for a critical semiconductor material.
A custom-built, metal-organic chemical vapor deposition system in Duffield Hall will help forge new directions for nitride semiconductors, materials best known for enabling LEDs and 5G communications.
Cornell researchers have built a programmable optical chip that can change the color of light by merging photons, without requiring a new chip for new colors – technology that could potentially be used for classical and quantum communications networks.
Cornell researchers have demonstrated that, by zapping a thin film with ultrafast pulses of low-frequency infrared light, they can cause its lattice to atomically expand and contract billions of times per second, potentially switching its electronic, magnetic or optical properties on and off.
A new innovation from Cornell researchers lowers the energy use needed to power artificial intelligence – a step toward shrinking the carbon footprints of data centers and AI infrastructure.
