Phantom Neuro develops a muscle-machine interface, the Phantom X, that enables lifelike control of robotic systems for individuals with limb difference. This technology merges neuroscience, AI, and robotics to create a natural extension of the human body. The system provides unprecedented control over prosthetics through muscle signals, enhancing human capability.
Funding
$9.5M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
+1Founders
Product
Problem
Individuals with limb differences often experience limited functionality and unnatural control when using traditional prosthetic devices. Current prosthetic technology struggles to provide intuitive, lifelike movement, hindering users' ability to perform everyday tasks with ease and precision.
Solution
Phantom Neuro develops a muscle-machine interface, the Phantom X, designed to provide individuals with limb differences with more natural and intuitive control over robotic prosthetics. The technology uses advancements in neuroscience, surgery, AI, and robotics to create a seamless connection between the human body and complex machines. By translating muscle signals into precise movements, Phantom Neuro's interface allows users to operate prosthetic devices as natural extensions of their bodies. This enhanced control aims to improve the functionality and usability of prosthetics, enabling more fluid and coordinated movements in real-world environments. The company's goal is to bridge the gap between humans and machines, ultimately enhancing the quality of life for individuals with limb differences.
Target Audience
The primary target audience includes individuals with limb differences seeking advanced prosthetic solutions that offer improved control, functionality, and a more natural user experience.
Features
- Muscle-machine interface enabling lifelike control of robotic systems.
- Minimally invasive surgical implantation of muscle sensors.
- AI-powered algorithms for translating muscle signals into prosthetic movements.
- Real-time control and feedback mechanisms for natural movement.