Scientists solved the Spallanzani's dilemma

Imagine losing an eye, an arm or even your spinal cord. When we are wounded, our bodies, and those of other mammals, generally respond by sealing the wound with scar tissue. The newt, however, has evolved unique strategies ...

Wearable modular device to facilitate walking rehabilitation

In collaboration with Suncall Corporation, and with support provided by the Japan Science and Technology Agency (JST) under the Center of Innovation (COI) Program, Professor Tadao Tsuboyama of the Graduate School of Medicine ...

FDA approves Indego exoskeleton for clinical and personal use

The U.S. Food and Drug Administration (FDA) has given clearance to market and sell the powered lower-limb exoskeleton created by a team of Vanderbilt engineers and commercialized by the Parker Hannifin Corporation for both ...

Scientists discover method to potentially repair nerve damage

Nerve damage from neurodegenerative disease and spinal cord injury has largely been considered irreversible, but Dartmouth researchers report progress in the effort to synthesize rare natural products that promote regeneration ...

Key benchtop testing planned for wireless brain sensor

An important step in the ongoing development and testing of the investigational BrainGate Neural Interface System is creating a wireless version so that future users will not have to be tethered to the system's computers ...

Signal replicas make a flexible sensor

Ludwig Maximilian University of Munich researchers have shown how signals from the spinal cord adjust the sensitivity of hair cells in the inner ear to accommodate shifts in head position associated with active locomotion—thus ...

Helping injured children walk, one step at a time

A University of Houston engineer has received funding to create a pediatric exoskeleton, designed to help children with spinal cord injuries and other mobility disorders walk.

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