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Apresyan S.V.

Peoples Friendship University of Russia

Stepanov A.G.

Peoples Friendship University of Russia

Suonio V.K.

Peoples Friendship University of Russia

Kantserova L.R.

Peoples Friendship University of Russia

Vartapetov A.G.

Peoples Friendship University of Russia

Matelo S.K.

Peoples Friendship University of Russia

Development of structural material for the manufacture of facial prosthesis by 3D printing

Authors:

Apresyan S.V., Stepanov A.G., Suonio V.K., Kantserova L.R., Vartapetov A.G., Matelo S.K.

More about the authors

Journal: Stomatology. 2023;102(3): 23‑27

DOI: 10.17116/stomat202310203123

Views: 946

Downloaded: 40

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Table of contents

DEVELOPMENT OF STRUCTURAL MATERIAL FOR THE MANUFACTURE OF FACIAL PROSTHESIS BY 3D PRINTING
DEVELOPMENT OF STRUCTURAL MATERIAL FOR THE MANUFACTURE OF FACIAL PROSTHESIS BY 3D PRINTING

To cite this article:

Apresyan SV, Stepanov AG, Suonio VK, Kantserova LR, Vartapetov AG, Matelo SK. Development of structural material for the manufacture of facial prosthesis by 3D printing. Stomatology. 2023;102(3):23‑27. (In Russ.)
https://doi.org/10.17116/stomat202310203123

Подписка 2025-2 (Stomatology)
 
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THE AIM OF THE STUDY

Was to develop and evaluate the physical and mechanical properties of a structural material for the manufacture of facial epithesis using photopolymer printing technology.

MATERIALS AND METHODS

The study of the physical and mechanical properties of the developed structural material consisted of measuring the Shore hardness; determination of material strength at break, conditional yield strength, relative elongation at break and modulus of elasticity; the study of the characteristics described above, after artificial aging, simulating the daily use of a prosthesis.

RESULTS

According to the test results, the samples of the studied material did not have a yield strength, they were torn at a deformation of 40—60%. The values of the conditional yield strength were 0.41±0.01 MPa, regardless of the time of the aging procedure. The values of the modulus of elasticity were 2.96±0.19 MPa and 2.88±0.14 MPa for the samples that underwent the aging procedure at 6 and 12 months, respectively.

CONCLUSION

The results obtained were compared with the results of similar studies of structural materials used in 3D printing technology of facial prostheses, which allowed us to recommend the developed material for clinical use after evaluating its toxicological and biological characteristics.

Keywords:

facial prosthetics
additive technology
3D printing
facial prosthesis
CAD/CAM
epithesis
structural material for 3D printing

Authors:

Apresyan S.V.

Peoples Friendship University of Russia

Stepanov A.G.

Peoples Friendship University of Russia

Suonio V.K.

Peoples Friendship University of Russia

Kantserova L.R.

Peoples Friendship University of Russia

Vartapetov A.G.

Peoples Friendship University of Russia

Matelo S.K.

Peoples Friendship University of Russia

Received:

17.03.2023

Accepted:

10.04.2023

List of references:

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