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Comparative evaluation of optimum additive manufacturing technology to fabricate medical bespoke prototypes obtained with composite materials

Research output: Contribution to Journal/Magazine › Journal article › peer-review

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Comparative evaluation of optimum additive manufacturing technology to fabricate medical bespoke prototypes obtained with composite materials. / Ulmeanu, Mihaela; Doicin, Cristian; Baila, Diana et al.
In: Revista de Materiale Plastice, Vol. 52, No. 3, 03.2015, p. 416-422.

Research output: Contribution to Journal/Magazine › Journal article › peer-review

Harvard

Ulmeanu, M, Doicin, C, Baila, D, Rennie, AEW, Neagu, C & Laha, S 2015, 'Comparative evaluation of optimum additive manufacturing technology to fabricate medical bespoke prototypes obtained with composite materials', Revista de Materiale Plastice, vol. 52, no. 3, pp. 416-422. <http://www.revmaterialeplastice.ro/article_eng.asp?ID=4545>

APA

Ulmeanu, M., Doicin, C., Baila, D., Rennie, A. E. W., Neagu, C., & Laha, S. (2015). Comparative evaluation of optimum additive manufacturing technology to fabricate medical bespoke prototypes obtained with composite materials. Revista de Materiale Plastice, 52(3), 416-422. http://www.revmaterialeplastice.ro/article_eng.asp?ID=4545

Vancouver

Ulmeanu M, Doicin C, Baila D, Rennie AEW, Neagu C, Laha S. Comparative evaluation of optimum additive manufacturing technology to fabricate medical bespoke prototypes obtained with composite materials. Revista de Materiale Plastice. 2015 Mar;52(3):416-422.

Author

Ulmeanu, Mihaela ; Doicin, Cristian ; Baila, Diana et al. / Comparative evaluation of optimum additive manufacturing technology to fabricate medical bespoke prototypes obtained with composite materials. In: Revista de Materiale Plastice. 2015 ; Vol. 52, No. 3. pp. 416-422.

Bibtex

@article{f5eddde4528648b1992dbdf3031bcad8,
title = "Comparative evaluation of optimum additive manufacturing technology to fabricate medical bespoke prototypes obtained with composite materials",
abstract = "he medical industry has greatly benefited from the aid of various additive manufacturing (AM) technologies, especially for applications that include the fabrication of bespoke implants and guides, devices and surgical instruments. Manufacturing functional prototypes that can behave as close as possible to the final product is a key factor in developing successful anatomically compliant medical products. The current research is intended to evaluate the optimum AM technology to fabricate medical prototypes with thin wall structures, destined for anatomical functional tests and surgical practitioner feedback. The main criteria of evaluation were: speed of fabrication from *.STL file to final prototype, mechanical characteristics and manufacturing costs.",
keywords = "bespoke medical prototype, optimum additive technology, functional simulations, anatomical thin structures",
author = "Mihaela Ulmeanu and Cristian Doicin and Diana Baila and Rennie, {Allan Edward Watson} and Corneliu Neagu and Shondipon Laha",
year = "2015",
month = mar,
language = "English",
volume = "52",
pages = "416--422",
journal = "Revista de Materiale Plastice",
number = "3",

}

RIS

TY - JOUR

T1 - Comparative evaluation of optimum additive manufacturing technology to fabricate medical bespoke prototypes obtained with composite materials

AU - Ulmeanu, Mihaela

AU - Doicin, Cristian

AU - Baila, Diana

AU - Rennie, Allan Edward Watson

AU - Neagu, Corneliu

AU - Laha, Shondipon

PY - 2015/3

Y1 - 2015/3

N2 - he medical industry has greatly benefited from the aid of various additive manufacturing (AM) technologies, especially for applications that include the fabrication of bespoke implants and guides, devices and surgical instruments. Manufacturing functional prototypes that can behave as close as possible to the final product is a key factor in developing successful anatomically compliant medical products. The current research is intended to evaluate the optimum AM technology to fabricate medical prototypes with thin wall structures, destined for anatomical functional tests and surgical practitioner feedback. The main criteria of evaluation were: speed of fabrication from *.STL file to final prototype, mechanical characteristics and manufacturing costs.

AB - he medical industry has greatly benefited from the aid of various additive manufacturing (AM) technologies, especially for applications that include the fabrication of bespoke implants and guides, devices and surgical instruments. Manufacturing functional prototypes that can behave as close as possible to the final product is a key factor in developing successful anatomically compliant medical products. The current research is intended to evaluate the optimum AM technology to fabricate medical prototypes with thin wall structures, destined for anatomical functional tests and surgical practitioner feedback. The main criteria of evaluation were: speed of fabrication from *.STL file to final prototype, mechanical characteristics and manufacturing costs.

KW - bespoke medical prototype

KW - optimum additive technology

KW - functional simulations

KW - anatomical thin structures

M3 - Journal article

VL - 52

SP - 416

EP - 422

JO - Revista de Materiale Plastice

JF - Revista de Materiale Plastice

IS - 3

ER -