CONTROL OF ENERGY EFFICIENCY IN INDUSTRY AND HOUSING AND COMMUNAL SERVICES
Sign | Register
UDC 004.94+617-089.844
Computer technology of medical implants by layer laser sintering
Mikhail Mikhailovich Tverskoy, Doctor of Science (Engineering), Professor, Honored Worker of Science and Technology of the Russian Federation, Head of Mechanical Assembly Production Automation Department, South Ural State University, Chelyabinsk, Russian Federation, julisus@mail.ru
Lina Nikolaevna Petrova, senior lecturer of Mechanical Assembly Production Automation Department, South Ural State University, Chelyabinsk, Russian Federation, lina@amsp.susu.ac.ru
Alexander Sergeevich Aladin, Candidate of Science (Medicine), Head of Oncology Department IV (head and neck tumors), Chelyabinsk Regional Clinic Oncologic Dispensary, Russian Federation, aladindoctorru@mail.ru
Elena Yurievna Sulatskaya, engineer of Mechanical Assembly Production Automation Department, South Ural State University, Chelyabinsk, Russian Federation, lena@amsp.susu.ac.ru
Anna Sergeevna Zharinova, post-graduate student of Mechanical Assembly Production Automation Department, South Ural State University, Chelyabinsk, Russian Federation, zharinova_a@mail.ru
Abstract
The technology of computer-aided manufacturing of figurine-shaped implants using individual topographic anatomic data of the patient and the further production of powders of titanium implants by selective laser sintering process under computer control are described in the article.
Keywords
implants, computed tomography, virtual model, prototyping, SLS-technique, selective laser sintering, reconstructive and plastic surgery
References
1. Rekonstruktivnye operacii pri opuholyah golovy i shei / pod red. prof. E.G. Matyakina. – M.: Izd-vo «Verdana», 2009. – 224 s.
2. www.conmet.ru
3. Zlenko, M. Tekhnologiya bystrogo prototipirovaniya – poslojnyj sintez fizicheskoj kopii na osnove 3D-CAD-modeli / M. Zlenko // CAD/CAM/CAE Observer. – 2003. – № 2 (11). – S. 2–9.
4. www.laser.ru/science/scien21_01.html
5. Komp'yuternoe biomodelirovanie i lazernaya stereolitografiya / A.V. Evseev, S.V. Kamaev, E.V. Kocyuba i dr. // Sovremennye lazerno-informacionnye i lazernye tekhnologii: sb. tr. IPLIT RAN. – M.: Interkontakt Nauka, 2005. – S. 119–130.
6. Zakonomernosti vzaimodejstviya poristyh implantatov iz nikelida titana s biologicheskimi tkanyami / A.N. Vusik, V.N. Hodorenko, G.C. Dambaev, I.V. Suhodolo // Biosovmestimye materialy i implantaty s pamyat'yu formy. – Northampton; Tomsk: STT, 2001. – S. 171–175.
2. www.conmet.ru
3. Zlenko, M. Tekhnologiya bystrogo prototipirovaniya – poslojnyj sintez fizicheskoj kopii na osnove 3D-CAD-modeli / M. Zlenko // CAD/CAM/CAE Observer. – 2003. – № 2 (11). – S. 2–9.
4. www.laser.ru/science/scien21_01.html
5. Komp'yuternoe biomodelirovanie i lazernaya stereolitografiya / A.V. Evseev, S.V. Kamaev, E.V. Kocyuba i dr. // Sovremennye lazerno-informacionnye i lazernye tekhnologii: sb. tr. IPLIT RAN. – M.: Interkontakt Nauka, 2005. – S. 119–130.
6. Zakonomernosti vzaimodejstviya poristyh implantatov iz nikelida titana s biologicheskimi tkanyami / A.N. Vusik, V.N. Hodorenko, G.C. Dambaev, I.V. Suhodolo // Biosovmestimye materialy i implantaty s pamyat'yu formy. – Northampton; Tomsk: STT, 2001. – S. 171–175.
Source
Bulletin of the South Ural State University. Ser. Computer Technologies, Automatic Control, Radio Electronics, 2012, iss. 16, no. 23 (282), pp. 64-69. (in Russ.) (The main)