Many amputees struggle with prosthetic devices that cannot provide meaningful sensory feedback, leaving them unable to feel temperature, pressure, or texture during everyday tasks. Existing electronic skins attempt to address this gap, but they are often expensive, difficult to customize, […]
Electronic Skin System Enables Prosthetics To Sense Temperature and Pressure Read More »
Spinal cord injuries often lead to permanent loss of movement, sensation, and autonomic control because damaged neural pathways can no longer carry signals between the brain and the body. Current technologies typically focus on restoring only one function at a
Flexible Spinal‑Cord Interface Bypasses Injury to Restore Multiple Lost Functions Read More »
Severe spinal cord injuries often leave people without any ability to move or feel below the level of damage, and current treatments offer limited recovery. Researchers at the Feinstein Institutes for Medical Research have developed a double neural bypass system
Double Neural Bypass Helps Restore Movement and Touch After Complete Paralysis Read More »
Soft robots often struggle to generate strong, fast movements because their flexible materials cannot store and release energy as efficiently as rigid mechanical systems. Scientists at the University of Bristol have developed a new approach that allows soft robotic structures
Breakthrough in Soft Robotics May Enhance Assistive and Rehabilitation Devices Read More »
Chronic pain and movement disorders remain difficult to treat because many therapies require invasive surgery, implanted hardware, or long term medication that may not provide consistent relief. Researchers at NYU Abu Dhabi and Cleveland Clinic Abu Dhabi have developed an
Stroke survivors often struggle to regain hand function because traditional rehabilitation tools cannot capture how the hand is used in daily life. Researchers at the University of Houston have developed wearable sensors that measure hand movement continuously, providing clinicians with
Wearable Hand Sensors Improve Stroke Rehabilitation by Tracking Real World Recovery Read More »
Bone reconstruction remains difficult when large defects occur, because current implants often fail to match the mechanical behavior and biological complexity of natural bone. Researchers at Tampere University in Finland are working to solve this problem by developing 3D printed
Soft robots and biomedical devices often struggle to achieve the complex, coordinated motions that biological muscles perform with ease. Traditional synthetic actuators can contract or expand, but they rarely bend, twist, and coil in controlled ways. Researchers at Harvard University’s
3D Printed Artificial Muscles Bend and Twist on Demand Using Nature Inspired Design Read More »
Bone fractures often leave clinicians waiting weeks before the first X‑ray reveals whether healing is on track, which means the earliest and most critical phase of recovery goes unmonitored. During this period, a fracture may fail to stabilize or may
Smart Implants Use Micro Actuators to Monitor and Actively Support Bone Healing Read More »
Knee replacements are meant to last a lifetime, yet many patients still face complications like joint loosening or imbalance that often go unnoticed until the damage is severe. With nearly 800,000 knee replacements performed each year in the United States
