3D printed tooling for thermoforming of medical devices

Purpose - The purpose of this paper is to evaluate the performance of 3D printed materials for use as rapid tooling (RT) molds in low volume thermoforming processes such as in manufacturing custom prosthetics and orthotics.Design methodology approach - 3D printed specimens of different materials wer...

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Veröffentlicht in:Rapid prototyping journal 2011-08, Vol.17 (5), p.387-392
Hauptverfasser: Chimento, Jairo, Jason Highsmith, M., Crane, Nathan
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container_title Rapid prototyping journal
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creator Chimento, Jairo
Jason Highsmith, M.
Crane, Nathan
description Purpose - The purpose of this paper is to evaluate the performance of 3D printed materials for use as rapid tooling (RT) molds in low volume thermoforming processes such as in manufacturing custom prosthetics and orthotics.Design methodology approach - 3D printed specimens of different materials were produced using the Z-Corp process. The parts were post processed using both standard and alternative methods. Material properties relevant to the 3D printed parts such as pneumatic permeability, flexural strength and wear rate were measured and compared to standard plaster compositions commonly used.Findings - Three-dimensional printing (3DP) can replicate the performance of the plaster materials traditionally used in prosthetic orthotic applications by using modified post process techniques. The resulting 3D printed molds can still be modified and adjusted using traditional methods. The results show that 3D printed molds are feasible for thermoforming prosthetic and orthotic devices such as prosthetic sockets while providing new flexibility.Originality value - The proposed method for RT of a mold for prosthetic orthotic manufacturing provides great flexibility in the manufacturing and fitting process while maintaining proven materials in the final device provided to patients. This flexibility increases the value of digital medical records and efforts to develop model-based approaches to prosthetic orthotic device design by providing a readily available process for recreating molds. Depending on the needs of the practitioners and patients, 3DP can be incorporated at a variety of points in the manufacturing process.
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The parts were post processed using both standard and alternative methods. Material properties relevant to the 3D printed parts such as pneumatic permeability, flexural strength and wear rate were measured and compared to standard plaster compositions commonly used.Findings - Three-dimensional printing (3DP) can replicate the performance of the plaster materials traditionally used in prosthetic orthotic applications by using modified post process techniques. The resulting 3D printed molds can still be modified and adjusted using traditional methods. The results show that 3D printed molds are feasible for thermoforming prosthetic and orthotic devices such as prosthetic sockets while providing new flexibility.Originality value - The proposed method for RT of a mold for prosthetic orthotic manufacturing provides great flexibility in the manufacturing and fitting process while maintaining proven materials in the final device provided to patients. 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source Emerald Journals; Standard: Emerald eJournal Premier Collection
subjects 3-D technology
Geometry
Manufacturing
Medical device industry
Medical equipment
Medical technology
Molds & molding
Permeability
Polyvinyl chloride
Prostheses
Rapid prototyping
Studies
title 3D printed tooling for thermoforming of medical devices
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