CONTROL OF EQUIPMENT FOR INCREMENTAL FORMING USING A LASER TRACKER
- Authors: Sazonnikova N.1, Ilyukhin V.1, Surudin S.1, Mezentsev D.1
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Affiliations:
- Samara University
- Issue: Vol 7, No 4 (2021): 20.12.2021
- Pages: 30-39
- Section: Articles
- Published: 20.12.2021
- URL: https://dynvibro.ru/dynvibro/article/view/10394
- DOI: https://doi.org/10.18287/2409-4579-2021-7-4-30-39
- ID: 10394
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Full Text
Abstract
The technological equipment geometry control has a significant impact on the overall quality and performance of the product in many manufacturing processes such as multi-position assembly and stamping as well as on productivity and production costs. One of the most promising means of technology equipment geometry control in the digital economy condition is a laser tracker. The robotic incremental sheet forming process assumes the necessary flexibility and profitability due to a very flexible tool chain. In this case, the trajectory of the universal tool is set using a processing program determined by the product geometry. The technological equipment geometry control of the robotic complex for incremental sheet forming was carried out in 2 stages. At the first stage, the measurements were carried out manually in the absolute range measuring system mode. At the second stage, a dynamic measurement of the blank plane displacement was carried out automatically in the interferometer mode during forming process. It was shown that the largest slipway deviation more than 1 mm and it occurs in the direction of the main application of force, i.e. in the product manufacture depth. This value can have a serious impact on the of manufacturing parts geometry accuracy. Based on the measurement results, it can be concluded that it is necessary to increase the rigidity of the frame, either by adding additional fasteners, or by using more rigid materials of its construction.
About the authors
Nadezhda Sazonnikova
Samara University
Author for correspondence.
Email: nasazonnikova@yandex.ru
PhD, Professor of the Department of Automatic Systems of Power Plants, Samara University, Russia
Russian Federation, 34, Moskovskoe shosse, Samara, 443086, Russian FederationVladimir Ilyukhin
Samara University
Email: iwnik@yandex.ru
PhD, docent of department of Power Plant Automatic Systems, Samara University, Russia
Russian Federation, 34, Moskovskoe shosse, Samara, 443086, Russian FederationSergey Surudin
Samara University
Email: innosam63@gmail.com
PhD, docent of department of Power Plant Automatic Systems, Samara University, Russia
Russian Federation, 34, Moskovskoe shosse, Samara, 443086, Russian FederationDmitry Mezentsev
Samara University
Email: curucum@mail.ru
PhD student, department of Power Plant Automatic Systems, Samara University, Russia
Russian Federation, 34, Moskovskoe shosse, Samara, 443086, Russian FederationReferences
- Ceglarek, D., and Shi, J., 1995, “Dimensional Variation Reduction for Automotive Body Assembly,” Manuf. Rev., 82, pp. 139–154.
- Andrew Francis, Paul Maropoulos , Glen Mullineux , Patrick Keogh. Design for Verification. Procedia CIRP 56 (2016 ) pp. 61 – 66.
- Zhenyu Kong, Wenzhen Huang, DariuszCeglarek. Visibility Analysis for Assembly Fixture Calibration Using Screen Space Transformation. Journal of Manufacturing Science and Engineering AUGUST 2005, Vol. 127 / p/ 622-
- Ding, Y., Ceglarek, D., and Shi, J., 2002, “Fault Diagnosis of Multistage Manufacturing Processes by Using State Space Approach,” ASME J. Manuf. Sci. Eng., 1242, pp. 313–322.
- R. Flynn, K. Christensen, R. Ryan. Automated Metrology Solution To Reduce Downtime and De-Skill Tooling Recertification. SAE Int. J. Aerosp., 5(1):2012.
- G. F. Barbosa and J. Carvalho, “Analytical model for aircraft design based on Design for Excellence (DFX) concepts and use of composite material oriented to automated processes,” Int. J. Adv. Manuf. Technol., vol. 69, no. 9–12, pp. 2333–2342, Aug. 2013.
- R. Praveen,R. Lingam, N.V Reddy,. Tool path design system to enhance accuracy during double sided incremental forming: An analytical model to predict compensations for small/large components.J. Manuf.Process.2020, 58, pp.510–523.
- N. A. Sazonnikova ,V.N. Ilyukhin , S.V. Surudin, N.N. Svinaryov. Increasing of the Industrial Robot Movement Accuracy at the Incremental Forming Process.2020 International Conference on Dynamics and Vibroacoustics of Machines, DVM 2020. — 2020: 146.
- Nubiola, A. Bonev. “Absolute calibration of an ABB IRB1600 robot using a laser tracker.”Robotics and ComputerIntegrated Manufacturing, No. 29(1), February 2013, pp.236-245.
- L. Li, C. Zhao , C. Li, S. Qin. “End Position Detection of Industrial Robots Based on Laser Tracker.” Instrumentation MesureMétrologie, Vol. 18, No. 5, October, 2019, pp. 459-464.
- K. Kamali, A. Joubair, A. Bonev, P. Bigras. “Elasto-geometrical Calibration of an Industrial Robot under Multidirectional External Loads Using a Laser Tracker.” IEEE Trans Robotics, Canada, 2016.
- B. Muralikrishnan, S. Phillips, and D. Sawyer. Laser Trackers for Large Scale Dimensional Metrology: A Review.Precision Engineering, 44 (2016),pp. 13–28
- S. Aguado, D. Samper, J. Santolaria, and J. J. Aguilar, “Identiication strategy of error parameter in volumetric error
- compensation of machine tool based on laser tracker measurements,” International Journal of Machine Tools and Manufacture,vol.53, no.1,pp.160–169.
- J E Muelaner , Z Wang , P S Keogh , J Brownell and D Fisher. Uncertainty of measurement for large product verification: evaluation of large aero gas turbine engine datums// Measurement Science and Technology, 27 (2016) 115003 -12pp.
- J E Muelaner, O Martin, P G Maropoulos. Metrology Enhanced Tooling for Aerospace (META): Strategies for Improved Accuracy of Jig Built Structures// SAE Aerotech measurement Meas. Sci. Technol. 22 045103(Toulous: SAE International).
- Petrov V. V., Medyanikov V. O., Kraev E. V. The use of a laser tracker to control the position of the stator wedges of large hydrogenerators Hydraulic Engineering, 2012, No. 5, pp. 58-63.
- GOST R 8.736-2011. Direct multiple measurements. Methods of processing measurement results. The main provisions [Text]. - Introduction. 2013-01-01. - Moscow:Standartinform, 2019.[4] Haibo Tian, Aimin Li, Farong Kou1 (2012), Volume 192, "Analysis and calculation of the workspace for the manipulator robot manipulator in the mine",
- Trans Tech Publications“ Switzerland, pp. 211-216