We plan to hold several Brain Data Bank Competitions to demonstrate data usability and Big Data analytics in 2017.
Special Report on IEEE Brain
How the human brain functions remains a mystery, despite advances in neuroscience. Nevertheless, many experts—in IEEE and elsewhere—say technology is the key to new treatments for brain-related disorders…
Welcome to BrainInsight
R. Chavarriaga
Welcome to the inaugural issue of BrainInsight, a quarterly online publication of the IEEE brain initiative. This is a space for the IEEE Brain community to share technical information and forward-looking commentary on brain-related research and technologies.
A Long Path Towards Restoring Locomotion After Spinal Cord Injury
RESEARCH
M. Capogrosso, T. Milekovic, G. Courtine
A century of research in spinal cord physiology has demonstrated that the circuits embedded in the lumbar spinal cord of mammals can autonomously produce repetitive patterns of motor activity resembling locomotion [1]. After a spinal cord injury (SCI), however, the neural pathways carrying information between the brain and these spinal circuits, usually located below the injury, are partly or completely interrupted. While the lumbar circuits are intact, this interruption disrupts or abolishes volitional leg movements.
Next Generation Neural Interfaces: Research on Emerging Technologies at Imperial College London
RESEARCH
D. Y. Barsakcioglu, S. Luan, L. Grand, T. G. Constandinou
The era of bioelectronic healthcare is dawning upon us. As electronic systems shrink in size and improve in functionality, we see more and more emerging devices that can track vital signs, such as heart rate and blood pressure, realising the grand vision of highly connected sensor nodes monitoring patients’ health beyond the hospital doors. The real revolution in digital healthcare, however, lies in bringing not only the diagnostics but also the therapy to the patient which requires interfacing the world of electronics with biology.
Network Data on the Statistical Testbench
A New Method for Generating Realistic Null Data Exploiting Underlying Graph Structure with Application to EEG
METHODS
E. Pirondini, A. Vybornova, M. Coscia, and D. Van De Ville
Technological and computational advances are making available large amounts of high-dimensional and rich-structured biomedical data, including brain images and signals. Acknowledging the network structure in our analyses opens a multitude of avenues in investigating “systems level” properties. For instance, computational neuroscience has boosted the interest in modeling and analyzing large datasets using concepts normally applied in networks and graph theories.
On the Need of Standards for Brain-Machine Interface Systems
OPINION
R. Chavarriaga, C. Carey, C. Tom, B. Ash
The field of Brain-Machine Interfacing (BMI) is going through a very exciting period where the state-of- the-art in research is currently being tested on its intended end-users. Evidently, this translation from laboratory proof-of concepts to viable clinical and assistive solutions entails a large set of challenges. Furthermore, the possibility of deploying and commercializing BMI-based solutions requires researchers, manufacturers, and regulatory agencies to ensure these devices comply with well-defined criteria on their safety and effectiveness. In consequence, there is an increased interest on development of appropriate standards for BMI systems.
IEEE Technology Time Machine 2016 – Making the Future Brain Panel: The Future of Brain-machine Interfaces
Moderator Paul Sadja introduces the Brain Panel, which covers the future of brain-machine interfaces from technological challenges to philosophical consequences. Panelists include Jack Gallant, James Kozlowski, and Jan Rabaey. Presentations follow.
IBM Neuroscience – Computing, Brain Health, and Cogniton
James Kozloski, Ph.D., Research Staff Member, Master Inventor, IBM Research Division, Thomas J. Watson Research Center, speaks about the Future of Neuroscience: Converging Trends in Methods in his talk entitled, “Computing, Brain Health and Cognition”.
What the Ultimate Brain-Machine Interface Looks Like
Jack Gallant, Chancellor’s Professor of Psychology at the University of California, Berkeley, explores what the ultimate brain-machine interface (BMI) looks like while drawing on history as inspiration. Discussing the quality and accuracy of measurements versus computer power lays the basis of Gallant’s perspective on coding and decoding the data.