Thibault Duchemin grew up as the only hearing person in a family of four. He has always understood the communication challenges that were a daily part of their lives. Now, he’s developed Transcense – a mobile app that aims to end some of the professional and social isolation caused by hearing loss.
Sixteen faculty members from UC Berkeley’s Bakar Fellows Program recently took their research ideas to Sand Hill Road — the heart of Silicon Valley’s venture capital community — for a coveted meeting with some of the nation’s top angel investors.
Imagine feeling a slimy jellyfish, a prickly cactus or map directions on your iPad display. Virtual textured touchscreens are where tactile technology is headed. New research has found that people are faster at navigating tactile technology when using both hands and several fingers. Moreover, blind people in the study outmaneuvered their sighted counterparts.
The annual Big Ideas@Berkeley competition continues to spur Berkeley students to change the world via life-changing innovations. Last week, the program honored this year’s winning projects with an awards celebration at the Blum Center for Developing Economies.
Backed by a vibrant startup culture that serves as the engine of economic growth for much of the Bay Area, UC Berkeley has established several new programs that support the translation of university research into real-world solutions.
Academic research sponsored by industry has a strong track record of leading to innovative patents and licenses, challenging assumptions that corporate support skews science toward inventions that are less accessible.
Ashok Gadgil set out to solve an insidious public health problem afflicting South Asia, arsenic contamination of groundwater. He knew the hard part would not just be inventing the technology but also ensuring a way to sustain its long-term use on a large scale.
Dr. Ashok Gadgil is inducted into the National Inventors Hall of Fame (NIHF) for his water disinfecting device. The NIHF honors those who are responsible for the great technological advances that make human, social and economic progress possible.
Feng Wang is studying how electrical fields modulate the optical properties of a number of materials. The flip of a light switch – a nano-scale light switch – may some day dramatically boost the speed of data transmission, from streaming movies to accelerating the most data-intense computation.
Felix Fischer and fellow researchers are fabricating strips of carbon only one-atom thick and less than 15 atoms wide, the aim is to create molecular-scale “wires” capable of carrying information thousands of times faster than is possible today.
Lydia Sohn is developing a new technique based on microtechnology to distinguish between different types of circulating tumor cells also known as CTC’s . She hopes this more sensitive approach will help clinicians learn which CTC’s are most prone to lead to metastasis.
Bioengineers at UC Berkeley see inspiration in turkeys for a new type of biosensor that changes color when exposed to chemical vapors. This feature makes the sensors valuable detectors of toxins or airborne pathogens.
In the atrium of Sutardja Dai Hall, a screen displayed real-time results as audience members texted votes they based on what they’d just seen on stage. The audience was voting on favorites from a spate of innovative, environmentally friendly energy technologies being developed and refined through Cleantech to Market (C2M), a unique collaboration of UC Berkeley and the Lawrence Berkeley National Laboratory.
New work by researchers at UC Berkeley could soon transform the building blocks of modern electronics by making nanomagnetic switches a viable replacement for the conventional transistors found in all computers.
Jennifer Doudna, Howard Hughes Investigator and Professor of Biochemistry, Biophysics and Structural Biology at UC Berkeley was recently featured in the Independent for her work on Crispr, which has taken the world of genetics by storm.
Researchers at Berkeley Engineering and UC Davis are developing a tiny chip that uses ultrasound waves to detect a slew of gestures in three dimensions. The technology, called Chirp, could eventually be used in everything from helmet cams to smart watches.
USA Today reports that scientists at the UCSF-UC Berkeley Center for Neural Engineering and Prostheses are among many teams nationwide working on brain-machine interfaces, promising bionic limbs controlled by users' thoughts.