The Development of a Novel Lightweight Transradial Prosthetic: A Proof-of-Concept Study

Globally, there is a limb amputation every 30 seconds. In the U.S., 185,000 people undergo amputation annually, leading to two million existing amputees in the country. There is a current need for the development of a customizable prosthetic with high compressive strength that utilizes interstitial...

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Veröffentlicht in:Technology and innovation 2018-11, Vol.20 (1), p.47-53
Hauptverfasser: McBryan, Sarah, Malkoc, Aldin, La Belle, Jeffrey T.
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La Belle, Jeffrey T.
description Globally, there is a limb amputation every 30 seconds. In the U.S., 185,000 people undergo amputation annually, leading to two million existing amputees in the country. There is a current need for the development of a customizable prosthetic with high compressive strength that utilizes interstitial free space to house potential critical components. The study aimed to develop a proof-of-concept press-fit design of the forearm and hand. Prototypical designs for a transradial (below the elbow) prosthetic forearm were constructed to increase characteristic strengths while retaining high percentages of interstitial free space for customization. The scope of this research will pertain to preliminary strength testing analyses, including compression, torsional, and three-point bending tests, and retention of free space for patient point-of-care customization. Chipboard, an inexpensive composite material, was used for all experimental prototypical models due to its fast manufacturing and processing speed with rapid prototyping machines. The results show chipboard press-fit preliminary design of the 4-fin device with torsional support for the transdermal prosthetic was cabable of withstanding 348.73 lbf and had 86% free space to house potential critical components. This research proposes proof-of-concept press-fit framework designs for lightweight transradial prosthetics. The designs retained characteristic compressive and torsional strengths while yielding up to 90% free space to house various components and increase customization via weight distribution within the device, thus further allowing individuals with disabilities to adjust to their environments.
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subjects Amputation
Assistive Technology
Blindness
Composite materials
Compression tests
Compressive strength
Critical components
Customization
Design
Forearm
Lightweight
Manufacturing
Particle board
Patients
People with disabilities
Preliminary designs
Prostheses
Rapid prototyping
Sensory Substitution
Social Interaction
Strength testing
Torsion
Visual Impairment
Weight reduction
title The Development of a Novel Lightweight Transradial Prosthetic: A Proof-of-Concept Study
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