Application of Additive Technologies in the Development of Aerodynamic Models for Rocket and Space Technology Products

Alexander E. Volkhonskiy; Kirill V. Dudkov; Ludmila V. Boksha

doi:10.4028/p-282grx

Paper Titles

Influence of Forging Force on Tensile Strength of the 30KhGSA/40KhMFA Steels Welded Joints Made by Rotary Friction Welding
p.180

Effect of Elements of the Cutting Conditions on the Amplitude of Vibration during End Milling
p.187

Titanium Drawing
p.193

Effect of Hot Machining on the Surface Quality of Cylindrical Parts
p.200

Application of Additive Technologies in the Development of Aerodynamic Models for Rocket and Space Technology Products
p.207

Additive Technologies in Manufacturing and IT Industry
p.214

Analysis of Factors Affecting Operability to Assess Risks and Opportunities in the Operation of Built-Up Cutting Tools
p.220

High-Performance Processing of Complex-Shaped Parts Using Combined Methods
p.226

Improving the Efficiency of Machine Grinding of Double Curvature Surfaces with a Profiled Flap Wheel
p.232

HomeKey Engineering MaterialsKey Engineering Materials Vol. 910Application of Additive Technologies in the...

Application of Additive Technologies in the Development of Aerodynamic Models for Rocket and Space Technology Products

Abstract:

Experimental work was carried out on the development of variants of additive technologies of layer-by-layer synthesis (FDM, SLA) for the manufacture of aerodynamic models of aircraft intended for testing in wind tunnels. The material of the models is selected, the production modes and design variants of the models of the fairings of space launch vehicles are described.

You might also be interested in these eBooks

View Preview

Info:

Periodical:

Key Engineering Materials (Volume 910)

Pages:

207-213

DOI:

https://doi.org/10.4028/p-282grx

Citation:

Cite this paper

Online since:

February 2022

Authors:

Alexander E. Volkhonskiy*, Kirill V. Dudkov, Ludmila V. Boksha

Keywords:

3D Printer, ABS Plastic, Additive Technologies, Fairing, Laser Stereolithography, Layer-by-Layer Overlay of Molten Polymer Filament, Layer-by-Layer Synthesis Technologies, Space Launch Vehicle

Export:

RIS, BibTeX

Price:

Permissions CCC:

Request Permissions

Permissions PLS:

Request Permissions

Сopyright:

Citation:

* - Corresponding Author

References

[1] A.E. Volkhonsky, K.V. Dudkov, Methods of manufacturing prototypes and parts of aggregates of various industrial products using additive technologies. // Educational technologies, No. 1, 2014, p.127–143.

Google Scholar

[2] E.A. Panferova, A.N. Strukov, A.V. Strukova, V.Yu Mishchenko, Methods of creating product prototypes in the aerospace industry and applied equipment. // Polet, 2013, No. 7. pp.29-33.

Google Scholar

[3] A.E. Volkhonsky, K.V. Dudkov, Manufacturing of pad, type parts by FDM-prototyping. // Polymer materials, No. 3 (178), 2014. pp.42-45.

Google Scholar

[4] V.Yu. Astapov, L.L. Khoroshko, M.S. Dzhozdani, A.L. Khoroshko, CAD in modeling the modes of technological processes of production of structural elements of aircraft / / Trudy MAI. 2016. № 87. URL: http://trudymai.ru/published.php?ID=69638.

Google Scholar

[5] Olson Parmi. Airbus is exploring the possibility of building aircraft on giant 3D printers. [Electronic document] – Access mode: http://isicad.ru/ru/articles.php?article_ num=15472.

Google Scholar

[6] Laboratory of three-dimensional printing. [Electronic document] - Access mode: http://www.lab3dprint.ru/support/425-abs-vs-pla.

Google Scholar