We develop advanced neuroprosthetic technologies to restore independence and mobility. Our first focus is a wearable system that helps individuals with paralysis stand, balance, and walk using their own muscles through FES, sensors, and AI. Our broader mission is to pioneer a new generation of neuroprosthetics that merge rehabilitation and technology to improve quality of life across many conditions.
The long-term goal of our work is to restore independence, mobility, and function to individuals affected by neurological injury or disease through intelligent neuroprosthetic systems. Conditions such as spinal cord injury, limb loss, stroke, and traumatic brain injury affect millions worldwide, creating profound personal, clinical, and economic challenges. Neuroprosthetics provide a scientific foundation for addressing these challenges by directly engaging the nervous system and muscles with advanced sensing, stimulation, and AI-driven control.
Our initial platform integrates Functional Electrical Stimulation (FES), IMUs, and EMG within wearable peripherals and KAFO-style braces to create a complete, AI-driven rehabilitation and mobility system. This represents a significant advance over state-of-the-art exoskeletons by combining therapeutic muscle training with adaptive control that leverages the body’s own biological systems.
Early results demonstrate potential for precise gait control, improved balance, and measurable rehabilitation benefits, including pathways toward regaining partial voluntary muscle function. Beyond paralysis, these principles can be extended to prosthetics for lost limbs, post-stroke motor recovery, and traumatic brain injury rehabilitation, positioning our technology as a foundation for the next generation of neuroprosthetic devices. To achieve this, we have also designed specialized equipment with the sole purpose of training AI models using real-world movement data — from walking to hand and arm motions — ensuring our systems learn directly from human biomechanics.
Why use motors to walk when you already have motors built in — your muscles. FES activates and coordinates these natural motors using precise, multi-channel stimulation. More than movement, FES doubles as rehabilitation: it strengthens muscles, retrains pathways, and can help restore voluntary control by combining physical therapy with electrical stimulation.
Body-mounted IMUs track limb orientation and posture in 3D. This data feeds our controller to maintain balance and coordinate steps.
EMG sensors capture residual muscle activity and intention signals. Where control still exists, EMG amplifies it; where control is lost, EMG can act as a pseudo-signal to trigger stimulation of paralyzed muscles, creating seamless, intuitive movement.
Our AI model fuses IMU, EMG, and pressure data to orchestrate smooth movement while adapting in real time to user needs. Built-in safety systems ensure stimulation remains safe, effective, and tailored to the individual.
Beyond our initial wearable platform, we are expanding into neuroprosthetic devices for limb replacement, stroke rehabilitation, and traumatic brain injury recovery. These systems are supported by custom-built equipment designed to gather rich, real-world datasets of walking, hand, and arm movements. By training AI models on this data, we aim to create prosthetics and rehabilitation tools that adapt intelligently to each user, accelerating recovery and restoring independence.
Email: contact@neuroturingtech.com
Interested in pilots, partnerships, or investment? Reach out — we’d love to talk.