A Reliable Low-Cost Three-Dimensional (3D)-Printed Brachial Plexus Model for Enhanced Anatomical Learning

The brachial plexus is a complex network of nerve branches with a three-dimensional (3D) distribution, which can make it difficult for students at any level to identify its structures. Spatial visualization skills are required, but two-dimensional images are not ideal to learn about this neurological network. Despite the availability of commercial models and digital tools, substantial upfront costs, including but not limited to annual subscription fees, can pose a challenge for most resource-limited institutions, thus hindering effective learning. This technical report proposes a practical and cost-effective solution. Researchers demonstrate how direct 3D scanning of cadaveric structures is used to create an affordable 3D-printed model that captures key anatomical details. The 3D brachial plexus model preserves the traditional structure (no variants), facilitating student learning and enabling use in the lab or at home. In a brief pilot study using a voluntary, anonymous survey with Likert-style questions (institutional review board (IRB)-approved), the model was tested with current physician assistant students who took the anatomy course; their feedback is discussed in the article. This model can enhance learning and help bridge the educational gap at low-resource universities. Researchers believe in the universality of education; for that reason, the 3D-printed brachial plexus model is available to any academic faculty interested in using and evaluating it in their anatomical courses.

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Publication Details

Journal
Cureus
Published
2026-03-04
DOI
https://doi.org/10.7759/cureus.104662
Primary Topic
Anatomy and Medical Technology
Type
article
Field-Weighted Citation Impact
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article

A Reliable Low-Cost Three-Dimensional (3D)-Printed Brachial Plexus Model for Enhanced Anatomical Learning

Joshua J Meyer, Jackson Beeching, Manuel Cevallos, Jad Mazboudi
Cureus
Anatomy and Medical Technology
article

A Reliable Low-Cost Three-Dimensional (3D)-Printed Brachial Plexus Model for Enhanced Anatomical Learning

Joshua J Meyer, Jackson Beeching, Manuel Cevallos, Jad Mazboudi
article en

Abstract

The brachial plexus is a complex network of nerve branches with a three-dimensional (3D) distribution, which can make it difficult for students at any level to identify its structures. Spatial visualization skills are required, but two-dimensional images are not ideal to learn about this neurological network. Despite the availability of commercial models and digital tools, substantial upfront costs, including but not limited to annual subscription fees, can pose a challenge for most resource-limited institutions, thus hindering effective learning. This technical report proposes a practical and cost-effective solution. Researchers demonstrate how direct 3D scanning of cadaveric structures is used to create an affordable 3D-printed model that captures key anatomical details. The 3D brachial plexus model preserves the traditional structure (no variants), facilitating student learning and enabling use in the lab or at home. In a brief pilot study using a voluntary, anonymous survey with Likert-style questions (institutional review board (IRB)-approved), the model was tested with current physician assistant students who took the anatomy course; their feedback is discussed in the article. This model can enhance learning and help bridge the educational gap at low-resource universities. Researchers believe in the universality of education; for that reason, the 3D-printed brachial plexus model is available to any academic faculty interested in using and evaluating it in their anatomical courses.

CureusVol. 18(3)
Creighton University (US), University of Phoenix (US), CHI Health Creighton University Medical Center - Bergan Mercy (US), Phoenix College (US)
Openalex Percentile: Top 36%
Anatomy and Medical Technology
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