Feature Stories
Updates every hour. Last Updated: 10-Apr-2026 00:15 ET (10-Apr-2026 04:15 GMT/UTC)
Colorado’s first implanted brain computer interface surgery marks a new era in neurological research
University of Colorado AnschutzNeurosurgery experts with the University of Colorado Anschutz performed Colorado’s first implanted brain‑computer interface (BCI) surgery at UCHealth University of Colorado Hospital, marking a significant advance for patients with neurological injury or disease. Commonly known as BCIs, the implanted technology can restore lost motor and sensory function by translating brain signals into actions for people with paralysis or neurodegenerative movement disorders.
The 41-year-old UCHealth patient who underwent the groundbreaking surgery was in an accident approximately 10 years ago that paralyzed him from the neck down. Now, the implanted device will record and interpret his brain’s electrical signals, learning the relationship between the brain’s activity and his intended behavior. This will allow him to regain function and independence through external devices like controlling a robotic arm and using a computer. The research team will also stimulate sensory areas of his brain to restore sensation, aiming to help the patient feel his hand again for the first time since his injury.
What makes this surgery especially unique is where in the brain the device was placed. The physicians are among the first in the world to implant the technology in higher‑level areas of the brain that allow for more natural and complete sensory and motor control. This approach allows doctors to help restore function in a more complete way, and also allows for rare insight into how the brain turns thoughts into actions.
“This surgery is an important step forward not only for this patient but for neuroscience as a whole,” said Daniel Kramer, MD, assistant professor of neuroscience at the CU Anschutz School of Medicine and a neurosurgeon at UCHealth. “While most BCI procedures focus only on purely motor regions, implanting this device in higher‑level brain areas will offer new insights into how the human brain works during everyday thinking and movement.”
Collaboration key to tackling rare blood cancers
Weill Cornell MedicinePersonalized approaches have dramatically improved outcomes for many patients with non-Hodgkin B-cell lymphomas—blood cancers that arise in immune cells called B cells—yet the same is not true for patients with more rare lymphoma types that originate in immune cells called T cells.
Peripheral T-cell lymphomas comprise diverse blood cancers that have a distinct biology, and survival rates vary widely. Lymphoma specialist Dr. Jia Ruan, a professor of clinical medicine at Weill Cornell Medicine, and her collaborators are working to change that.
New shoots for an old building material
University of PittsburghEnabling 7-day continuous performance validation of domestic high power laser and optical components
National Research Council of Science & TechnologyDr. Jiyeon Choi, Principal Researcher at the Department of Laser & Electron Beam Technologies of the Research Institute of Autonomous Manufacturing at the Korea Institute of Machinery and Materials (KIMM, President Seog-Hyeon Ryu), under the National Research Council of Science and Technology (NST, Chairman Young-Shik Kim), has developed three types of testbeds, including two for real time monitoring of the performance of high power laser sources and optical lenses and one for evaluating the of optical coatings.
- Funder
- Ministry of Science and ICT
'Mini-brain' shines light on concussions
University of CincinnatiA biomedical engineering professor at the University of Cincinnati is doggedly pursuing answers to one of medicine’s black boxes: concussions.
Finding the future of eye care with frogs
University of Nevada, Las VegasUsing AI models to detect sinkhole trouble
University of FloridaUniversity of Florida researchers are developing AI models that combine satellite imagery, GPS, LiDAR and environmental data to detect early warning signs of sinkholes.
The state’s limestone geology makes it especially vulnerable, with thousands of sinkholes reported each year and damages costing hundreds of millions annually.
The NSF-funded project aims to produce open-source software that predicts sinkhole risk, helping planners and communities make safer infrastructure decisions.