Manufacturing Technology 2020, 20(1):3-10 | DOI: 10.21062/mft.2020.003

Development of the Manufacturing Geometry of Conical and Cylindrical Worms by Analysing of Their Axoids

Zsuzsanna Balajti
Faculty of Mechanical Engineering and Informatics, University of Miskolc. Egyetemváros A/4 225, H-3515 Miskolc. Hungary.

In this paper an examination has been outlined a possibility of further generalization respecting the Dudás?s kinematic-mathematical model, which is suitable for the production geometric development of elements of helicoid drive pairs. The positioning of the rolling surfaces of the cylindrical and conical surfaces, as axoids of worms, in the extended model to the projective space under the right conditions, based on the surfaces invariant to projective transformations can be a right extension of the model, as the projective space model includes the Euclidean space model in full. The machining of the conical worm surfaces modelled in this method involves the clarification of the kinematic-geometric relations of production geometry in the Euclidean space model, which shows the possibility of further development of production geometry. The goal of generalization of the mathematical description is the systematization by creating central collinear projective connection between axoids (rolling cones and rolling cylinders). Managing the production geometry of the worms in a system is also a further improvement in manufacturing precision.

Keywords: Conical worm, kinematical-mathematical model, axoid, rolling surface, central collinear connection

Prepublished online: July 31, 2020; Published: August 6, 2020  Show citation

ACS AIP APA ASA Harvard Chicago IEEE ISO690 MLA NLM Turabian Vancouver
Balajti Z. Development of the Manufacturing Geometry of Conical and Cylindrical Worms by Analysing of Their Axoids. Manufacturing Technology. 2020;20(1):3-10. doi: 10.21062/mft.2020.003.
Download citation

References

  1. BALAJTI, ZS., ÁBEL, J. (2014) Applying projective geometry in design of worm manufacturing, Key Engi-neering Materials. Vol. 581. pp. 77-81. ISSN 1662-9795. DOI 10.4028/www.scientific.net/KEM.581.777. Trans Tech Publication, Switzerland. Go to original source...
  2. BUCUR, B., MÁTÉ, M. (2011) Theoretical Peculiarities Regarding the Definition and Representation of the Rolling Surfaces by a Bevel Worm Gear with the Crown Gear of Inverted Conicity, The 5th Edition of the In-terdisciplinarity in Engineering International Conference in "Petru Maior" University. pp.165-169. http://inter-eng.upm.ro/2011/proceedings.html Indexed in Ulrich's Periodicals Directory™ (U.S.). German National Library of Science and Technology (TIB), Tîrgu Mureş. Romania.
  3. DRAHOS, I. (1972). The Motion Geometry Bases of Tool Geometry, Technical Study Book in Hungarian, p. 100. Institute of Continuing Education of the Technical University of Budapest at the Technical Textbook Pub-lisher Company, Budapest.
  4. DUDÁS, I. (2004). The Theory &Practice of Worm Gear Drives, Technical Professional Book, p. 320. ISBN 1 9039 96619. Penton Press Kogan Page, London. Go to original source...
  5. DUDÁS, I. (2016). The extension of the general mathematical model developed for helicodial surfaces to the whole system of manufacturing technology and production geometry (ProMAT), The International Journal of Advanced Manufacturing Technology. Vol. 86. Issue 5-8. pp. 1557-1572. Springer Print. ISSN 0268-3768, London. Go to original source...
  6. FORGÓ, Z., KAKUCS, A., MÁTÉ, M., TOLVALY-ROSCA, F. (2017) Development of Helical Teethed Invo-lute Gear Meshed with a Multi-Edge Cutting Tool Using a Mixed Gear Teeth Modelling Method, Procedia En-gineering Journal, Vol. 5. No. 2. pp. 1-6. Elsevier. ISSN 1877-7058, Switzerland.
  7. KRAL, J., KRAL, J. (2013) Calculation of the shape of tool cutting edge for production of involute worm Ad-vances, Science and Technology Research Journal. Vol. 7. No. 17. pp. 1-5. DOI: 10.5604/20804075.1036988, Slovakia. Go to original source...
  8. LITVIN., F. L., FUENTES., A. (2004) Gear Geometry and Applied Theory, Technical Professional Book. pp. 44-58. Technical Cambridge University Press. ISBN 0 521 81517 7, United Kingdom.
  9. MÁTÉ, M., HOLLANDA, D., TOLVALY-ROSCA, F., POPA-MÜLLER, I. (2013) The localization of the contact patch by cylindrical gear having an Archimedean tooth line using the method of setting the tangential displacement, OGÉT. Conference Proceedings. pp. 265-268. ISSN 2068-1267, Arad.
  10. ÓVÁRINÉ BALAJTI., ZS. (2007) Development of production geometry of kinematical drive pairs, PhD dis-sertation. p. 126. (first drafting in Hungarian), Miskolc.
  11. ÓVÁRINÉ BALAJTI., ZS. (2016) Production Geometric Development of Meshing Surface Pairs, With De-scriptive Geometric Application, Habilitation Thesis Book. p. 78. (first drafting in Hungarian), Miskolc.
  12. PETRICH G. (1979) Descriptive geometry, Technical Professional Book. p. 413. ISBN 963 17 3814 0, Buda-pest.
  13. RACHKOVSKAYA., G. S., KHARABAYEV., Y. N. (2009) Geometric modelling and computer graphics of kinematic ruled surfaces on the base of complex moving one axoid along another (one-sheet hyperboloid of revolution as fixed and moving axoids, WSCG 2009. 17-th International Conference on Computer Graphics. Visualization and Computer Vision. pp. 31-34. ISBN978-80-86943-95-4, Pilsen. Czech Republic.
  14. KUNDRAK, J., FELHŐ, CS. (2016) 3D Roughness Parameters of Surfaces Face Milled by Special Tools, Manufacturing Technology. Vol. 16, No. 3. pp. 19-20. ISSN 1213-2489, Czech Republic. Go to original source...

This is an open access article distributed under the terms of the Attribution-NonCommercial 4.0 International License (CC BY-NC 4.0), which permits non-comercial use, distribution, and reproduction in any medium, provided the original publication is properly cited. No use, distribution or reproduction is permitted which does not comply with these terms.