You may have learned about the five senses in school but Dr. Eric Chudler sheds light on some of the many other lesser known senses.
Exploring uncharted territory, neuroscientists are making strides with human subjects who can "talk" directly by using their minds. Professor Rajesh Rao and Research Assistant Professor Andrea Stocco of the University of Washington are featured in the story
At one MIT lab, materials scientist Polina Anikeeva has hit on a way to manufacture what amounts to a brain-science Swiss Army knife. The neural probes she builds carry light while collecting and transmitting electricity, and they also have tiny channels through which to pump drugs.
Researchers from the University of Washington departments of Electrical Engineering, Neurological Surgery and Philosophy have teamed up with medical device manufacturer Medtronic to use the Activa® PC+S Deep Brain Stimulation system with people who have essential tremor.
Community members had the chance to engage their minds while learning more about how the organ works during a Brain Symposium at Mill Creek Middle School on March 19. Shannon Jephson-Hernandez, science teacher and CSNE RET alum, was one of the driving forces behind the symposium's creation.
The project will expand the College of Engineering by providing teaching, research and collaboration space that will allow SDSU to support interdisciplinary research. SDSU collaborates with the University of Washington and MIT in the National Science Foundation's Center for Sensorimotor Neural Engineering.
Many people have difficulty quickly identifying left and right. It is a complex process which involves several higher brain functions. A test to determine left-right discrimination, created by Dr. Eric Chudler, is included in this article.
Engineers at MIT, led by Polina Anikeeva, have developed a method to stimulate brain tissue using external magnetic fields and injected magnetic nanoparticles that resemble small bits of rust. This technique allows for direct stimulation of neurons, which could someday be an effective treatment for a variety of neurological diseases, and even further in the future, for severe, treatment-resistant psychiatric disorders like depression, without the need for highly invasive brain implants or external connections.
The inspiration to use magnets to control brain activity in mice first struck MIT materials scientist Polina Anikeeva while working in the lab of neuroscientist-engineer Karl Deisseroth at Stanford University in Palo Alto, California.
Plans to make transcranial direction current stimulation (tDCS) machines are available online and components can be bought at hobbyist stores. But that does not mean that using them is without risk, says Peter Reiner, co-founder of the National Core for Neuroethics at the University of British Columbia.
About 650 elementary students attended a Brain Awareness Week open house Tuesday at the University of Washington. The event helped students learn about the brain through hands-on stations and a lecture by Eric Chudler, Ph.D., a research associate professor in the UW Department of Bioengineering and executive director of the Center for Sensorimotor Neural Engineering.
Matthew D’Asaro, a doctoral student in the MIT Department of Electrical Engineering and Computer Science, dismantled his first electronic gadget as a toddler. He and his roommate have turned their dorm room into an engineering workshop.
vHAB won the Tech Sandbox competition last year at the UW’s Center for Sensorimotor Neural Engineering. A lot has happened since then, including a $40,000 commercialization grant for vHAB from the UW’s CoMotion program (formerly the Center for Commercialization).
It has been the holy grail of science fiction - an interface that allows us to plug our brain into a computer. Now, researchers at MIT have revealed new fibers less than a width of a hair that could make it a reality.
Stiff, steel microwires can damage tissue when implanted deep into patients' brains. Engineers at MIT have found a way around this problem with a flexible brain-implant technology.
Conventional neural probes are designed to record a single type of signaling, limiting the information that can be derived from the brain at any point in time. Now researchers at MIT may have found a way to change that.
vHAB is designed and engineered while keeping in mind the needs of neurologically injured people. This virtual rehabilitation system helps to stroke patients through rehabilitation in a tailored manner.
Fifteen students from three institutions competed in a hackathon sponsored by the Center for Sensorimotor Neural Engineering.
A line trailed down the Ave as students and community members waited to enter the Varsity Theatre for a screening of “Fixed: The Science/Fiction of Human Enhancement” Thursday night. The film, presented by the UW’s Center for Sensorimotor Neural Engineering, is about technologies with the potential to make us “better than human,” such as prosthetic feet tailored for mountain climbing
Elle O'Brien, graduate student at the University of Washington, won the local National Science Foundation Pitch Perfect competition and will move on to the national competition in October.
Students from several summer research programs, including participants from the Center for Sensorimotor Neural Engineering, discussed their work with visitors in Mary Gates Hall. Students from the UW, MIT, SDSU and other universities took part in CSNE summer programs.
"Brain Trust," a play written by Seattle playwright Rachel Atkins in collaboration with UW Professor Eberhard Fetz explores the question of what it means to change a person’s brain through a neural implant, using something called deep brain stimulation.
Researchers at the UW recently analyzed the functionality of non-invasive BCIs and raised questions about BCI security. While many neural engineering applications of BCIs are still under development, the privacy and safety of consumer brain-signal data may be at risk without further security measures.
The 10-percent brain myth started with a misquoting of Albert Einstein or misinterpretations of the work of brain researchers and psychologists, according to a website from University of Washington neuroscientist Eric Chudler.
CSNE's Howard Chizeck and Tamara Bonaci discuss their research into the privacy implications of brain-computer interfaces. The interview is also available on KIRO Radio.
Tech Sandbox allows students to create projects that demonstrate the core principles of neural engineering. The projects also work as educational demos.
Professor Sara Goering investigates ethical issues that are likely to develop from the use of neural technologies. Her team is currently comparing existing interventions for human bodies and brains to new technologies being developed.
The University of Washington is receiving a $31.2 million gift from Washington Research Foundation to boost entrepreneurship and support research that tackles some of society’s most crucial challenges.
$7.19 million of the gift will be used to establish an Institute for Neuroengineering, which will foster collaborative research across many disciplines to address current challenges in neural disorders and functions, and provide new technologies for people affected by neural disorders. The funding will also support nine postdoctoral researchers, nine graduate students, nine undergraduate students and nine high school student interns. In addition, it will support building renovations in the Department of Biology to house new research. Research will take place jointly with the Center for Sensorimotor Neural Engineering at the UW.
University of Washington students competed in April to create projects that demonstrate the core principles of neural engineering. This course, the Tech Sandbox Competition, will be replicated at MIT, San Diego State University and Morehouse College.
Graduate student Tyler Libey demonstrates vHAB, a product that he developed with a team of student researchers. Vhab is designed to help stroke victims recover and improve control over their movements through virtual reality games.
Over the last few years, researchers have made significant strides in decoding our thoughts based on brain activity. UW research from Professor Rajesh Rao and team is mentioned.
Team vHAB — including two graduate students in bioengineering, an undergraduate in bioengineering, and an undergraduate in neurobiology and behavior — created six games for stroke therapy patients. vHAB uses muscle activity sensors to measure and speed up patient motor recovery, and delivers the data into electronic medical records so doctors can measure stages of both clinical and at-home recovery.
The TechSandbox competition, coordinated by the University of Washington’s Center for Sensorimotor Neural Engineering in Seattle, was so successful in its inaugural year that the competition now takes place within the framework of a two-credit-hour course offered through the department of bioengineering.
Artificial intelligence shows signs of becoming the next big trend for tech start-ups in Silicon Valley. The University of Washington's online course "Computational Neuroscience," taught by Professors Rajesh Rao and Adrienne Fairhall, is mentioned in this article from The Washington Post.
The Washington Research Foundation, a private nonprofit group that funds research and initiatives to commercialize innovations in the state, is making a large, long-term grant to University of Washington efforts in data science, clean energy, protein design, and neuroengineering. UW Professors Tom Daniel and Adrienne Fairhall will serve as co-directors of the Institute of Neuroengineering.
Four University of Washington students who developed a virtual reality game that provides real-time feedback for patients undergoing stroke therapy came away victorious at a neural engineering competition March 13.
MIT’s graduate program in engineering has been ranked No. 1 in the country in U.S. News & World Report’s annual rankings — a spot the Institute has held since 1990, when the magazine first ranked graduate programs in engineering. UW ranked #26. MIT also ranked #1 in Computer Engineering; UW ranked #15 on that list.
Each March, scientists around the world host open houses to get people thinking about the brain. At the University of Washington, that means the mother of all science fairs in a room decked out with human brains, spinal cords, finch chirping and flying fruit flies.
The most popular hands-on exhibit at the University of Washington’s annual event for kids celebrating the human brain was, well, laying hands on a real human brain.
It would be impossible to measure the cost of noisy distractions, but companies with open offices surely pay it. Adrian K.C. Lee, assistant professor of speech and hearing sciences at the University of Washington, is quoted.
While the 1987 version of “RoboCop” spoke to the blurring line between man and machine and the moral responsibilities of science, the 2014 version more readily addresses those meaty cyberpunk themes, thanks in part to the science and technology being conducted today. Research by University of Washington scientists Rajesh Rao and Andrea Stocco is discussed.
A look at some of the best research institutions in the U.S., ranked by level of funding from the National Institutes of Health, the largest funder of biomedical research in the world. The University of Washington is number three.
The giant Consumer Electronics Show is known for glitzy, multi-story booths, showing off the next big products from some of the world’s largest technology companies. But GeekWire’s adventures included a visit to a much more modest booth — staffed by researchers from the Center for Sensorimotor Neural Engineering whose work could have much more profound implications for humanity, albeit much further in the future than the next holiday season.
The start of the movie awards season is only weeks away! Science Writer Christian Jarrett looks at cinema and the brain. The article mentions UW Biorobotics Lab’s involvement in the movie, “Ender’s Game.”
KPLU's most-clicked stories of 2013 include one about UW Engineering Professor Les Atlas's project to help cochlear implant users hear music.
From minimally invasive catheterization delivery to wireless power charging to overall miniaturization, the cardiovascular device field has seen plenty of advances in recent years.
Karen May-Newman, PhD, has been in the thick of it as the director of the bioengineering program at San Diego State University, where she designs and runs transparent heart simulators that game out how left ventricular assist devices (LVADs) are changing the flow of blood through the heart and its valves.