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A spinal cord injury in most vertebrates likely inhibits locomotion and induces paralysis—not so in eels. They not only ...
Eel movement involves stretch and pressure signals, enabling swimming, crawling, and recovery after spinal injury.
Even with our reassurances about safety, people readily imagined hazards: humanoids could trip, stumble, or tip over; they ...
A spinal cord injury in most vertebrates likely inhibits locomotion and induces paralysis. Not eels. They not only possess ...
It was found that eels use sensory signals from their bodies, such as stretch and pressure, to adapt to their environment.
An international research team has developed an innovative model that explains how elongated amphibious animals—such as ...
A neural circuit model tested in amphibious robots developed at EPFL shows how multisensory feedback enables eels to swim even after a spinal cord injury, while also providing new insights into the ...
New Princeton University video shows how virtual reality and an invisible robot can deliver digital objects to real-world ...