[
1. Alquraan T., Kuznetsov Yu., Tsvyd T. (2016) High-speed clamping Mechanism of the CNC lathe with compensation of centrifugal forces, Procedia engineering, 150, 689-695.10.1016/j.proeng.2016.07.081
]Search in Google Scholar
[
2. An J., Jiamin C., Wenguo Y. (2019), Measurement of spindle radial error based on target trajectory tracking, Measurement, 146,179-185.10.1016/j.measurement.2019.05.026
]Search in Google Scholar
[
3. Bediz B., Gozen B.A., Korkmaz E., Ozdoganlar O. B. (2014), Dynamics of ultra-high-speed (UHS) spindles used for micromachining, International Journal of Machine Tools and Manufacture, 87, 27-38.10.1016/j.ijmachtools.2014.07.007
]Search in Google Scholar
[
4. Budniak Z. (2015), Modelling and numerical analysis of assembly system, Acta mechanica et Automatica, 9(3), 145-150.10.1515/ama-2015-0024
]Search in Google Scholar
[
5. Chao Xu, Jianfu Z., Pingfa F. (2014), Characteristics of stiffness and contact stress distribution of a spindle-holder taper joint under clamping and centrifugal forces, International Journal of Machine Tools & Manufacture, 82-83, 21-28.10.1016/j.ijmachtools.2014.03.006
]Search in Google Scholar
[
6. Dogariu C., Bardac D. (2014), Prediction of the structural dynamic behavior of high speed turning machine spindles, Applied Mechanics and Materials, 555, 567-574.10.4028/www.scientific.net/AMM.555.567
]Search in Google Scholar
[
7. Estrems M., Arizmendi M., Cumbicus W.E., López A. (2015), Measurement of clamping forces in a 3 jaw chuck through an instrumented aluminium ring, Procedia Engineering, 132, 456-463.10.1016/j.proeng.2015.12.519
]Search in Google Scholar
[
8. Fedorynenko D., Sapon S., Boyko S. (2016), Accuracy of spindle units with hydrostatic bearings, Acta Mechanica et Automatica, 10(2), 117-12410.1515/ama-2016-0019
]Search in Google Scholar
[
9. Fedorynenko D., Sapon S., Boyko S., Urlina A. (2017), Increasing of energy efficiency of spindles with fluid bearings, Acta Mechanica et Automatica, 11(2), 204-209.10.1515/ama-2017-0031
]Search in Google Scholar
[
10. Foremny E., Schenck C., Kuhfuß B. (2016), Dynamic Behavior of an Ultra Precision Spindle used in Machining of Optical Components, Procedia CIRP, 46, 452-455.10.1016/j.procir.2016.04.039
]Search in Google Scholar
[
11. Grama S.N., Mathur A., Badhe A.N. (2018), A model-based cooling strategy for motorized spindle to reduce thermal errors, International Journal of Machine Tools and Manufacture, 132, 3-16.10.1016/j.ijmachtools.2018.04.004
]Search in Google Scholar
[
12. Grossi N., Scippa A., Montevecchi F. (2016), A novel experimental-numerical approach to modeling machine tool dynamics for chatter stability prediction, Journal of advanced mechanical design systems and manufacturing, 10(2), #15-00547.10.1299/jamdsm.2016jamdsm0019
]Search in Google Scholar
[
13. Harris P., Linke B., Spence S. (2015), An Energy Analysis of Electric and Pneumatic Ultra-high Speed Machine Tool Spindles, Procedia CIRP, 29, 239-244.10.1016/j.procir.2015.02.046
]Search in Google Scholar
[
14. Jia Q., Li B., Wei Y., Chen Y., Yuan X. (2016), Axiomatic Design Method for the Hydrostatic Spindle with Multisource Coupled Information, Procedia CIRP, 53, 252-260.10.1016/j.procir.2016.07.013
]Search in Google Scholar
[
15. Kono D., Mizuno S., Muraki T., Nakaminami M. (2019), A machine tool motorized spindle with hybrid structure of steel and carbon fiber composite, CIRP Annals, 68(1), 389-392.10.1016/j.cirp.2019.04.022
]Search in Google Scholar
[
16. Li, W.; Zhou, Z. X.; Xiao, H. (2015), Design and evaluation of a high-speed and precision microspindle, International journal of advanced manufacturing technology, 78(5), 997-1004.10.1007/s00170-014-6690-x
]Search in Google Scholar
[
17. Liu T., Gao W., Zhang D., Tian Y. (2017), Analytical modeling for thermal errors of motorized spindle unit, International Journal of Machine Tools and Manufacture, 112, 53-70.10.1016/j.ijmachtools.2016.09.008
]Search in Google Scholar
[
18. Longfei Z., Jun Z., Chao Z. (2019), A new method for field dynamic balancing of rigid motorized spindles based on real-time position data of CNC machine tools, International journal of advanced manufacturing technology, 102 (5-8), special edition, 1181-1191.10.1007/s00170-018-2953-2
]Search in Google Scholar
[
19. Matsubara A., Tsujimoto S., Kono D. (2015), Evaluation of dynamic stiffness of machine tool spindle by non-contact excitation tests, CIRP Annals, 1.V. 64(1), 365-368.
]Search in Google Scholar
[
20. Mori K., Bergmann B., Kono D., Denkena B., Matsubara A. (2019), Energy efficiency improvement of machine tool spindle cooling system with on–off control, CIRP Journal of Manufacturing Science and Technology, 25, 14-21.10.1016/j.cirpj.2019.04.003
]Search in Google Scholar
[
21. Postel M., Aslan D., Wegener K., Altintas Y. (2019), Monitoring of vibrations and cutting forces with spindle mounted vibration sensors, CIRP Annals, 68(1), 413-416.10.1016/j.cirp.2019.03.019
]Search in Google Scholar
[
22. Prydalnyi B. (2020), Characteristics of electromechanical clamping mechanism with asynchronous electric motor, International Conference Mechatronic Systems and Materials (MSM), 1-5.10.1109/MSM49833.2020.9202186
]Search in Google Scholar
[
23. Rabréau C., Ritou M., Le Loch S., Furet B. (2017), Investigation of the Evolution of Modal Behavior of HSM Spindle at High Speed, Procedia CIRP, 58, 405-410.10.1016/j.procir.2017.03.243
]Search in Google Scholar
[
24. Ritou M., Rabréau C., Le Loch S., Furet B., Dumur D. (2018), Influence of spindle condition on the dynamic behavior, CIRP Annals, 67(1), 419-422.10.1016/j.cirp.2018.03.007
]Search in Google Scholar
[
25. Shaoke W., Jun H., Fei D. (2019), Modelling and characteristic investigation of spindle-holder assembly under clamping and centrifugal forces, Journal of mechanical science and technology, 33(5), 2397-2405.10.1007/s12206-019-0438-3
]Search in Google Scholar
[
26. Thorenz B., Westermann H.-H., Kafara M., Nützel M., Steinhilper R. (2018), Evaluation of the influence of different clamping chuck types on energy consumption, tool wear and surface qualities in milling operations, Procedia Manufacturing, 21, 575-582.10.1016/j.promfg.2018.02.158
]Search in Google Scholar
[
27. Wang H.J. (2013), Study of dynamics characteristics for precision motor spindle system, Advanced materials research, 819, 389-392.10.4028/www.scientific.net/AMR.819.389
]Search in Google Scholar
[
28. Xu C., Zhang J., Feng P., Yu D., Wu Z. (2014), Characteristics of stiffness and contact stress distribution of a spindle–holder taper joint under clamping and centrifugal forces, International Journal of Machine Tools and Manufacture, 82–83, 21-28.10.1016/j.ijmachtools.2014.03.006
]Search in Google Scholar
[
29. Yadav M.H., Mohite S.S. (2018), Controlling deformations of thin-walled Al 6061-T6 components by adaptive clamping, Procedia Manufacturing, 20, 509-516.10.1016/j.promfg.2018.02.076
]Search in Google Scholar
[
30. Yang Y., Zhang W.H., Ma Y.C., Wan M. (2015), Generalized method for the analysis of bending, torsional and axial receptances of tool–holder–spindle assembly, International Journal of Machine Tools and Manufacture, 99, 48-67.10.1016/j.ijmachtools.2015.08.004
]Search in Google Scholar
[
31. Yuan S.M. (2014), The analysis of static and dynamic characteristics of motorized high-speed spindle based on sensitivity analysis of fem model, Applied mechanics and materials, 43, 376-381.10.4028/www.scientific.net/AMM.43.376
]Search in Google Scholar
[
32. Zabielski R., Trochimczuk R. (2011), Wybrane problemy projektowania wysokoobrotowych elektrowrzecion frezarskich o niestandardowym łożyskowaniu, Acta Mechanica et Automatica, 5(1), 131-136.
]Search in Google Scholar
[
33. Zhang S., Yu J., To S., Xiong Z. (2018), A theoretical and experimental study of spindle imbalance induced forced vibration and its effect on surface generation in diamond turning, International Journal of Machine Tools and Manufacture, 133, 61-71.10.1016/j.ijmachtools.2018.06.002
]Search in Google Scholar
