NeoHand™ Myoelectric Bionic Prosthetic
The bionic hand people actually wear.
The NeoHand by Allow Motion fundamentally redefines upper-limb prosthetics. Moving away from heavy, frustrating legacy hardware, the NeoHand is an ultra-lightweight, 3D-printed bionic hand optimized specifically for transradial (below-elbow) amputees. By combining an advanced AI-driven control layer with a highly adaptive mechanical architecture, the NeoHand achieves natural, fluid movement designed to drastically lower device abandonment rates.
Key Features:
High-Fidelity Actuation: Multi-degree-of-freedom architecture allowing for adaptive grip patterns, precise pinch grasps, and compliant object enveloping.
Ultralight Carbon-Fiber Construction: Manufactured using high-performance 3D-printed PA12 Carbon Fiber (CF), drastically reducing distal weight to eliminate fatigue and ensure all-day comfort.
AI-Native Pattern Recognition: Adaptive software filters out signal noise to map intent directly to motion with near-zero latency, giving users intuitive control over their environment.
Expressive Aesthetics: Move past clinical-looking plastics. The NeoHand is a lifestyle statement, available in six signature finishes designed to match the user's personal identity:
Black Stealth: Sleek, matte, and modern.
Titanium Gray: High-tech, industrial elegance.
Arctic White: Clean, minimal, futuristic.
Deep Blue & Ruby Red: Vibrant, bold metallic hues.
Skin Finish: Subtle, blended, and classic.
What’s Included in the Box:
1x NeoHand Bionic Prosthetic Unit (Left or Right orientation)
Integrated AI-Myoelectric Sensor Array (Sleeve/Socket-compatible)
High-capacity internal lithium-polymer battery unit
USB-C Fast Charging Kit & Travel Adapter
1-Year Professional B2B Warranty Suite
Technical Specification & Statement of Work:
Provision of a high-performance, myoelectric upper-limb prosthetic system intended for transradial amputees. The device utilizes advanced underactuated mechanics to provide robust multi-joint finger compliance and high-torque grip security while protecting internal micro-actuators from mechanical over-torque.
Control is governed by an embedded neural network layer executing real-time digital signal processing (DSP) on multi-channel electromyographic (EMG) forearm inputs. The chassis assembly is optimized for structural integrity and weight reduction utilizing bio-compatible 3D-printed polymers.
Commercial Framework (Subscription-Native Model):
In alignment with our modern healthcare economics structure, the quotation covers the hardware deployment, regular software optimization updates for the AI control layer, and continuous clinical support loops. Designed to shift traditional high upfront hardware costs into predictable, reimbursement-friendly operational cycles for Orthotic & Prosthetic (O&P) centers.
