Usage of 3D printing in photostress investigation

• Autorzy: Ficzere P.
• Języki publikacji: EN

Abstrakty

EN

In this paper a theoretical analysis of load cases will be constructed, which are the most difficult to be determined during numerical simulations. The development of the design principles and methods are significantly influenced by technology development. Inappropriate design procedures and incomplete knowledge of the loads presents a significant risk factor. A strong emphasis should be put on determining the applicable conditions of coating layered optical photostress investigations for simplification of product validation. Future research should be focused on the views of industry representatives. Particular attention should be paid to the further clarification of the used 3D printing material properties and characteristics because these determine the conditions and limits of applicability. This would be a new application field of 3D printing.

Słowa kluczowe

EN

material science; 3D printing; photostress investigation

PL

inżynieria materiałowa; druk 3D; analiza photostress

• Wydawca: Oficyna Wydawnicza Stowarzyszenia Menedżerów Jakości i Produkcji
• Czasopismo: Production Engineering Archives
• Rocznik: 2015
• Tom: Vol. 7, No. 2
• Strony: 16--19
• Opis fizyczny: Bibliogr. 12 poz., rys.

Twórcy

autor

Ficzere P.

• Budapest University of Technology and Economics Department of Vehicle Elements Vehicle-Structure Analysis

Bibliografia

• 1. Borbás L., Ficzere P. 2012. Validation Of Numarical Analysis Results In Case Of Rapid Prototyping By Experiments Using Optical Techniques. Proceedings of the 29th Danubia-Adria-Symposium on Advances in Experimental Mechanics, Belgrad, Serbia, 2012.09.26-2012.09.29. Belgrad: Belgrade University-Mechanical Engineering Faculty, pp. 68-69. (ISBN:9788670837621).
• 2. Borbás L. 2000. Course on: Engineering Design and Industrial Design Interaction. Bologna University International Ceentre – Bertinoro (Forli) Italy. Investigation of structural components by photoelstic coating technique. Chapter II. p.: 18...37.
• 3. Borbás L., Thamm F., Oláh L. 2006. Comparison of strain gauge technique and photoelastic coating method in the investigation procedure of femur prostheses. Journal of Computational and Applied Mechanics, Vol.7, No. 1. (2006.), pp. 3-12.
• 4. Burger C. P. 1993. Photoelasticity Handbook on Experimental Mechanics, SEM, 2nd Revised ed. Ed. A.S. Kobayashi.
• 5. Dally J. W., Riley W. F. 1991. Experimental Stress Analysis, 3rd ed. McGraw-Hill, New York.
• 6. Ficzere P. 2014. Material and numeric analysis of rapid prototypes, PhD thesis. Supervisor: Lajos Borbas.
• 7. Ficzere P., Borbas L., Torok A. 2012. Theoretical And Practical Investigation Of Rapid Prototyping, Toyotarity. Standarizations' Kinds. Dnepropetrovsk: Yurii V Makovetsky, pp. 139-150. (ISBN:978-966-1507-77-6)
• 8. Ficzere P., Borbas L. 2013. Rapid prototyping products material law validation by optical photoelastic coating method. 30th Danubia-Adria Symposium on Advances in Experimental Mechanics. Primošten, Croatia, 2013.09.25-2013.09.28.pp. 51-52.
• 9. Ficzere P., Borbás L., Török Á. 2013. Economical Investigation Of Rapid Prototyping, International Journal For Traffic And Transport Engineering 3:(3):344-350., Doi: 10.7708/Ijtte.2013.3(3).09.
• 10. Krynke M., Borkowski S., Selejdak J. 2014. Analysis of influence of bearing clearance on the static carrying capacity of multi-row slewing bearings, Periodica Polytechnika Transport Engineering, 42(1):43-48, 2014, doi: 10.3311/PPtr.7261.
• 11. Markovits T., Bauernhuber A., Mikula P. 2013. Study on the transparency of polymer materials in case of Nd:YAG laser radiation, Periodica Polytechnika Transportation Engineering, 41(2):149–154, doi: 10.3311/PPtr.7117.
• 12. Thamm F., BorbáS L., Devecz J. 2001. Newer coating layers for photstress investigation [in Hungarian: Újabb réteganyagok kifejlesztése a felszíni réteges optikai feszültségvizsgálathoz]. Rubber & Plastics [in Hungarian: Műanyag és Gumi], HU ISSN 0027 – 2914.