The article presents a methodology of an analysis and modeling of technological systems and the grinding process of conical-like helical surfaces with the use of modern CAD/CAE systems and calculations in the Matlab system. The methodology developed allows one to carry out simulation tests for the accuracy of the grinding process of helical surfaces taking into consideration the deviations of the location and shape of the system’s elements, axial and radial striking the spindle of the workpiece machined and the grinding wheel as well as the tool’s geometrical features.
REFERENCES(18)
1.
Kacalak W., Majewski M. and Budniak Z. (2015): Worm gear drives with adjustable backlash. – Journal of Mechanisms and Robotics-Transactions of the ASME, vol.8, pp.014504-1÷014504-7.
Kacalak W. (1995): Selected Problems of Precise Worm Gear Drives Construction and Technology. – Mech. Eng. Depart. Koszalin, Monograph No.51, (in Polish).
Skoczylas L. (2010): Synthesis of Mesh Geometry in Cylindrical Worm Gears with Worm of Arbitrary Profile. – Publishing House of Rzeszow University of Technology, (in Polish).
Wei J. and Zhang G. (2010): A precision grinding method for screw rotors using CBN grinding wheel. – International Journal of Advanced Manufacturing Technology - Springer, No.48, pp.495-503.
Wei J., Zhang Q., Xu Z. and Lyu P. (2010): Study on precision grinding of screw rotors using cbn wheel. – International Journal of Precision Engineering and Manufacturing - Springer, vol.11, No.5, pp.651-658.
Marciniak T. (2002): Characteristic wear as the basis for defining the abrasive wear rate in worm gear driver. – Advances in Manufacturing Science and Technology, vol.2, No.2, pp.63-75.
Marciniec A., Pisula J., Płocica M. and Sobolewski B. (2011): Design work on bevel gear transmissions applying the method of mathematical modeling and simulation in CAD environment. – Mechanic, No.7, pp.602-605 (in Polish).
Kacalak W. and Szafraniec F. (2015): Analysis of the shape and position of machining zone in the process of grinding the surface of the conical helical worm. – Mechanic, No.8-9, pp.159÷163 (in Polish).
Marciniec A. and Sobolewski B. (2013): Method of spiral bevel gear tooth contact analysis performed in CAD environment. – Aircraft Engineering and Aerospace Technology, vol.85, No.6, pp.467-474.
Marciniec A. and Sobolewski B. (2012): Application of the Autodesk Inventor software for simulation of the Gleason bevel gears mating. – Mechanic, No.1, pp.76-77 (in Polish).
Rakowiecki T., Skawiński P.P. and Siemiński P. (2011): Using parametric templates of 3D CAD system for generating models of teeth of spiral semi-bevel gear. – Mechanic, No.12, pp.977-979 (in Polish).
Woronkowicz A. and Wachla D. (2014): A generative cad model of a worm gear meshing. – Scientific Journal of Silesian University of Technology, Series Transport, vol.82, pp.291-300 (in Polish).
Skawiński P., Siemiński P. and Pomianowski R. (2011): A method to generate solid body models of the bevel gear teeth by means of the simulation software in the 3D CAD system. – Mechanic, No.11, pp.922-924 (in Polish).
Twardoch K. (2014): Digital geometric modelling of teeth profile by using CAD methodology. – Scientific Journal of Silesian University of Technology, Series Transport, vol.82, pp.271-279 (in Polish).
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