Neural interfaces for motor control

The profound impact of neurological injuries and diseases, such as stroke, spinal cord injury, and neurodegenerative disorders, often manifests as devastating loss of motor function, severely compromising independence and quality of life. The field of neural interfaces has emerged as a beacon of hope, offering unprecedented opportunities to restore lost motor control by directly interfacing with the nervous system. By translating neural activity into control signals for prosthetic limbs, exoskeletons, or functional electrical stimulation, these technologies hold the promise of empowering individuals to regain autonomy and re-engage with the world.This Research Topic will delve into the cutting-edge advancements and fundamental challenges in "Neural Interfaces for Motor Control." Our scope is intentionally broad, encompassing the entire translational spectrum from basic neuroscience discoveries elucidating motor control mechanisms to the sophisticated engineering and clinical application of these technologies. We aim to explore how neural signals, whether from the brain, spinal cord, or peripheral nerves, can be effectively decoded and translated into functional motor commands, as well as how artificial sensory feedback can be integrated to enhance user experience and performance. We encourage contributions spanning invasive and non-invasive approaches, focusing on both restoration and augmentation of motor capabilities.We invite submissions that contribute significantly to, but are not limited to, the following key areas:&#8226 Advanced signal processing and machine learning algorithms for robust motor intent decoding.&#8226 Integration of naturalistic sensory feedback (e.g., tactile, proprioceptive) into prosthetic and robotic systems.&#8226 Closed-loop neural interfaces and adaptive control strategies for improved motor performance and learning.&#8226 Spinal cord interfaces for modulating gait, reaching, and other motor functions.&#8226 Peripheral nerve interfaces for intuitive control of prostheses and restoration of sensation.&#8226 Non-invasive neural interfaces and their potential in rehabilitation and motor augmentation.&#8226 Clinical translation, usability studies, and long-term challenges of neural interface systems.&#8226 Neuroethical considerations and user-centered design in neural interface development.&#8226 Neuromodulation techniques driven by neural interfaces for motor recovery. Topic editors: Krishnakumar Sankar, Varadhan SKM, Amin Hekmatmanesh Source: https://www.frontiersin.org/research-topics/76672/neural-interfaces-for-motor-control