Understanding how neurons communicate within deep brain regions has long been limited by tools that can either record electrical activity or manipulate specific cells, but not both at the same time. A new technology called “Neuropixels Opto” is addressing this […]
Neuropixels Opto Reveals How Deep Brain Circuits Operate With Unprecedented Precision Read More »
Glioblastoma remains one of the most difficult cancers to treat because its tumor cells adapt quickly and often survive even the most aggressive therapies. Researchers are developing new approaches that can deliver multiple drugs directly to the tumor site in
Nanofiber Based Multidrug Platform Offers New Strategy Against Recurrent Glioblastoma Read More »
Studying deep brain activity normally requires inserting rigid probes directly into neural tissue, a process that can cause inflammation, scarring, and long term disruption of the very circuits researchers hope to understand. Neuroscientists have long sought a way to record
Flexible Neural Sheet Reaches Deep Brain Regions Without Penetrating Tissue Read More »
Critically ill patients in intensive care units often face a hidden threat: oxygen deprivation in the brain that can lead to long term cognitive damage or even death. Traditional monitoring systems track heart rate, blood pressure, and blood oxygen levels,
Modern neuroscience depends heavily on optical tools that can read and control neural activity, yet these tools face a persistent accuracy problem. When researchers use infrared lasers to observe neurons, the same light can unintentionally activate nearby cells. This creates
Smart Laser Control System Improves Precision in Reading and Manipulating Brain Circuits Read More »
Understanding how the brain responds to injury or disease is one of the biggest challenges in neuroscience, yet most tools for monitoring neural activity are rigid, invasive, or poorly matched to the soft, curved surface of the brain. These limitations
3D Printed Brain Sensors Offer a New Path Toward Personalized Neural Monitoring Read More »
Many chronic conditions — from high blood pressure to diabetes — are now understood to involve miscommunication within the nervous system. As a result, neuromodulation, a technique that uses gentle electrical signals to rebalance nerve activity, is emerging as a
Shape‑Shifting Spinal Implant Uses Electricity to Treat Chronic Diseases More Safely Read More »
A recent breakthrough from researchers at Kiel University in Germany introduces an ultralight 3D aerohydrogel material that allows human brain cells to grow, connect, and exchange signals in ways that closely resemble real neural tissue. The team set out to
Scientists at Northwestern University have created a platform that merges living human brain organoids with advanced bioelectronic interfaces, enabling long‑term, high‑resolution recording of neural activity. The organoids, often described as miniature brains grown from stem cells, replicate key features of
Living Mini‑Brains Integrated With Next‑Generation Bioelectronics for Neural Research Read More »
Researchers at the Royal College of Surgeons in Ireland (RCSI) University of Medicine and Health Sciences have developed a 3D implant that delivers RNA‑carrying particles directly to damaged nerve cells to promote regeneration after spinal cord injury. The implant is
RNA‑Activated 3D Implant Stimulates Nerve Regrowth After Spinal Cord Injury Read More »
