UO was founded in 1876 and graduated its first class two years later. The Carnegie Foundation classifies the University of Oregon as a Tier 1 RU/VH (very high research activity) university. It is one of 108 universities to have such a designation. Additionally, the UO is one of only two Association of American Universities members in the Pacific Northwest.
As a flagship university of the Oregon University System, the UO is one of the nation’s many public teaching and research universities. The current UO student body is composed of students from all 50 of the United States, the District of Columbia, two U.S. territories, and 89 countries around the world. As of Fall 2012, UO offers 269 degree programs, including highly nationally-ranked graduate programs in Biology, Business, Education, Environmental Law, Geological Sciences, Physics, Psychology, Sports Marketing, and Sustainable Design.
University of Oregon research articles from Innovation Toronto
- Breakthrough in study of aluminum should yield new technological advances
- Oregon lab changes game for synthesizing new materials
- Cows fed flaxseed produce more nutritious dairy products
- Amazon deforestation brings loss of microbial communities
- Cooled coal emissions would clean air and lower health and climate-change costs
- Fractal nanoflowers could restore sight to blind
- When Our Brains Short-Circuit
The addition of sound waves offers the potential to better manipulate qubit communications within a quantum system, researchers say
University of Oregon physicists have combined light and sound to control electron states in an atom-like system, providing a new tool in efforts to move toward quantum-computing systems.
The work was done on diamond topped with a layer of zinc oxide containing electrical conductors and performed at a temperature of 8 degrees Kelvin (-445.27 Fahrenheit, -265.15 Celsius) — just above absolute zero.
Using sound waves known as surface acoustic waves to change electron states could foster data transfer between quantum bits, the researcher said. The interaction of qubits, as is the case with binary bits in current computing, is seen as vital in building advanced systems.
The research is detailed in a paper placed online April 7 by the journal Physical Review Letters.
“Computer chips in today’s systems are based on electrical circuits,” said Hailin Wang, a professor in the UO Department of Physics and member of the Oregon Center for Optical, Molecular and Quantum Science. “What we have accomplished could lead to a new architecture — a new way — to design a computer chip. Instead of using electrical circuits we incorporate sound waves on a chip, with our eyes on acoustic circuits and also on potential applications in tomorrow’s quantum computers.”