Board 527 - Technology Innovations Abstract The Use of 3D Printing to Generate Teaching Models in Veterinary Medicine (Submission #985)

Nibblett, Belle Marie D.; Dascanio, John J.; Bauman, Eric B.; Pederson, David; Knight, Andrew; Adams, Reid

doi:10.1097/01.sih.0000441725.39760.a5

Cited by 3 publications

(1 citation statement)

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“…Historically, anatomical teaching has come by way of cadaveric dissection, studying descriptive text and two-dimensional diagrams. With increasing societal pressures, dwindling cadaveric donations and high overheads in maintaining them, we are being more heavily reliant on 'book learning' which has been proven to lead to suboptimal understanding and poor retention [1,6,[12][13][14]. 3D anatomical software aids in being able to manipulate 2D images giving an improved appreciation for the 3D structure, however it still lacks the tactile element which makes dissection such an ideal learning method [13].…”

Section: Educationmentioning

confidence: 99%

Three-dimensional Printing Technology in Surgery

Patel¹,

Cosman²,

Desai³

2016

Surgery Curr Res

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Background: Three-dimensional printing has become an increasingly widespread technology, becoming more accessible to individuals, small businesses and organisations. It represents the ability to manufacture objects of various substrate material using computer aided 3D plans. This article aims to explore the various uses of this technology in medicine and surgery including future directions and applications Method: A generalised review of past and current articles was performed exploring the known uses of three-dimensional printing in medicine and surgery.Results: Broadly, the applications include; education for health professionals and patients, surgical planning and decisionmaking, custom prostheses, tissue scaffolds, and customised surgical instrument manufacturing. Future directions include bionic prostheses, live tissue grafts, and whole organ printing.

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Section: Educationmentioning

confidence: 99%

Three-dimensional Printing Technology in Surgery

Patel¹,

Cosman²,

Desai³

2016

Surgery Curr Res

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Morphometric characterization of normal and dysplastic canine coxofemoral joint using radiography, and 3D printed models

Gebriel,

Mostafa,

Tolba

et al. 2024

Preprint

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Background: The present study aimed to differentiate between normal and dysplastic canine coxofemoral joints by assessing the corresponding bone specimens and digital X-rays moreover, our study provides a substitute teaching strategy using 3D-printed models of canine coxofemoral joints. This work was conducted on twenty-eight mixed breed dogs, sixteen dogs were used for bone preparation samples by boiling method, then these bones were scanned to create relatively identical 3D printed models. twelve dogs were anesthetized for the radiological study. An extended ventrodorsally radiograph of the coxofemoral joint was obtained to calculate the Norberg angle, Centre-edge angle, and dorsal acetabular femoral head coverage width and area indices. Results: The study's results illustrated the normal conformational anatomic criteria associated with healthy coxofemoral joints versus dysplastic joints in both bone specimens and 3D-printed models. In a normal joint, the coxofemoral articulation was congruent and smoothly margined with the acetabulum being deep and the femoral head being hemispherical. However, the dysplastic coxofemoral joint showed shallow acetabular fossa and a deformed, flattened femoral head with associated osseous proliferation and joint incongruity. The Norberg angle, Centre-edge angle, dorsal acetabular femoral head coverage width, and area indices differed significantly between normal and dysplastic joints. In normal coxofemoral joints, the mean ± (standard deviation) SD value of the Norberg angle was 115.5± 3.05 a, and the Centre-edge angle was 32.57± 3.54 a. The indices of dorsal acetabular femoral head coverage area and width were 52.94± 3.41 a, and 58.32± 5.33 arespectively. Conclusion: Finally, this work presented alternative teaching models (3d printing) that play an important role in the veterinary field and assist in the understanding of the normal structure and dysplastic state of canine coxofemoral joint. Also, some parameters were measured in x-rays of normal and dysplastic coxofemoral joint to detect hip dysplasia, which helps exclude the highly diseased dogs before breeding.

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3D Printing in Veterinary Medicine

Huri

Oto

2022

Ankara Üniversitesi Veteriner Fakültesi Dergisi

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The use of 3D printing technology in the field of medicine, which started with the millennium, continues to increase today. Depending on the technological developments in this field, the use of rapid prototyping technology in the field of veterinary medicine is becoming widespread with the development of 3D printers, increasing material variety, cheaper printing costs and being more accessible. Additive manufacturing is used in veterinary education and training, experimental research and clinical studies, and its area of use is expanding day by day. In this review, both the current usage potential will be evaluated and the expected developments in the near future will be revealed.

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Board 527 - Technology Innovations Abstract The Use of 3D Printing to Generate Teaching Models in Veterinary Medicine (Submission #985)

Cited by 3 publications

References 0 publications

Three-dimensional Printing Technology in Surgery

Three-dimensional Printing Technology in Surgery

Morphometric characterization of normal and dysplastic canine coxofemoral joint using radiography, and 3D printed models

3D Printing in Veterinary Medicine

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