Abstract
In addition to the requirements for the high speed and high power of motorized spindle, high-speed machining also requires the ability of spindle to control its own temperature rise and thermal deformation.
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References
Zhang LX, Li CQ, Wu Y et al (2017) Hybrid prediction model of the temperature field of a motorized spindle. Appl Sci 7(10):1091-1–14
Zhang LX, Li JP, Wu YH et al (2018) Prediction model and experimental validation for the thermal deformation of motorized spindle. Heat Mass Trans 54(2):1–14
Zhang LX, Li CQ, Li JP et al (2017) Temperature rise prediction model of high-speed and high-precision electric spindle. J Mech Eng 53(23):129–136
Zhang LX, Xia WL, Li JJ et al (2016) Prediction of surface temperature of electric spindle based on genetic neural network. Control Eng 23(2):243–248
Wu YH, Li SH (2018) Ceramic motorized spindle. ISCI Publishing Ltd., London
Zhang LX, Li JP, Li CQ et al (2018) Experimental study on temperature rise and thermal deformation of high-speed spindle of CNC machine tools. Mech Des Manuf 01:129–132
Shu YJ, He BM (2011) Investigation of the high speed rolling bearing temperature rise with oil-air lubrication. J Tribol Trans ASME 133(2):021101-1–021101-9
Zhang LX (2015) A test system and method of electric spindle load. China 201310522511. 5
Shi QH, Zhang LX, Wu YH et al (2015) Analysis of thermal deformation simulation of mechanical spindle of precision lathe based on thermal-structural coupling. Dev Innov Mech Electr Prod 02:120–122
Zhang K, Xu WZ, Zhang LX (2018) The effect of contact thermal resistance on the thermal characteristics of high-speed electric spindle. Combined machine tools and automated machining technology 04:23–28
Zhang LX, Yu SY (2018) The effect of oil mist generated by oil and gas lubrication of high-speed electric spindle on air quality. J Shenyang Jianzhu Univ (Natural Science Edition) 02:341–349
Zhang K, Wang XK, Zhang LX (2018) Modeling and air flow field analysis of 100MD60Y4 electric spindle oil and gas lubrication system. J Shenyang Jianzhu Univ (Natural Science Edition) 03:505–513
Zhang LX, Xia WL, Li JJ et al (2014) An intelligent prediction method for surface temperature of electric spindle of high-speed CNC machine tool. Dev Innov Mech Electr Prod 04:133–135
Pian JX, Liu MJ, Zhang LX et al (2015) Optimization of convective heat transfer coefficient of machine tool spindle based on bee colony algorithm. J Instrum 12:2706–2713
Pian JX, Liu MJ, Liu JX et al (2016) Optimization of convective heat transfer coefficients of the mechanical spindle based on bee colony algorithm. Control Eng 23(9):1349–1355
Zhang LX, Li JP, Li CQ (2016) Experimental study on deviation and thermal deformation of 150MD24Z7.5. Electr Spindl (09):59–61
Wu YH, Yu WD, Zhang LX et al (2016) Thermal characteristics analysis of 150MD24Y20 high speed electric spindle. J Shenyang Jianzhu Univ (Natural Science Edition) 04:703–709
Zhang LX, Gong WJ (2017) Simulation analysis and research on the coupling relationship between air gap and thermal deformation of electric spindle. Micro Motor 11:34–39
Zhang LX, Gong WJ (2017) Experiment on the influence factors of thermal characteristics of 100MD60Y4 high speed electric spindle. J Shenyang Jianzhu Univ (Natural Science Edition) 04:703–712
Zhang LX, Li CQ, Li JP (2016) Experimental study on factors affecting the temperature rise of high-speed spindle. Comb Mach Tools Autom Mach Technol (06):75–77+91
Zhang LX, Liu T, Li CQ (2015) The influence of cooling water flow rate on the temperature rise of the electric spindle motor. Comb Mach Tools Autom Mach Technol (08):36–38+42
Zhang K, Chen N, Zhang LX et al (2015) The effect of cooling water channel width on the temperature rise of ceramic electric spindle. Mech Des Manuf 03:104–106
Zhang LX, Li CQ, Li JP et al (2017) The effect of high-speed electric spindle cooling water parameters on its temperature field. Mech Sci Technol 09:1414–1420
Zhang LX, Yan M, Wu YH et al (2015) Simulation analysis for two different materials motorized spindles with model coupled multi-physics. Mater Res Innov 19(1):S2-1–7
Zhang LX, Yan M, Wu YH (2014) Machine-electric-thermal-magnetic coupling model of high-speed electric spindle and its dynamic performance analysis. Comb Mach Tools Autom Mach Technol 11:35–38
Zhang LX, Yan M, Wu YH et al (2015) Machine tool and hydraulic (13):120–124
Zhang LX, Yan M, Wu YH et al (2016) Multi-field coupling model and dynamic performance prediction of 150MD24Z7.5 high speed electric spindle. Vib Shock 35(01):59–65
Wu YH, Yu WD, Zhang LX et al (2014) Temperature field analysis of electric spindle based on loss experiment. J Shenyang Jianzhu Univ (Natural Science Edition) 30(01):142–146
Wu YH, Zhang K, Deng HB et al A balancing device with built-in spindle mechanical online. China zl201510398608. 9, 2017. 05. 24
Wu YH, Zhang K, Deng HB et al. Mechanical online dynamic balancing system with built-in Spindle: Chinese patent, CN105021352A. 2015. 11. 04
Stephen H, Lane M. Rotating machine active balancer and method of dynamically balancing a rotating machine shaft with torsional vibrations. US 20060005623A1. 2006. 06. 12
Wang ZM (2009) Noise and vibration measurement. Science Press, Beijing, China, pp 134–135
Gong WJ, Zhang LX, Li JP et al (2016) A review of thermal deformation prediction models for electric spindles. Dev Innov Mech Electr Prod 29(03):125–128
Zhang LX, Gong WJ, Zhang K et al (2018) Thermal deformation prediction of high-speed motorized spindle based on biogeography optimization algorithm. Int J Adv Manuf Technol 97(5–8):3141–3151
Zhang LX, Liu T, Wu YH (2016) Design of the motorized spindle temperature control system with PID algorithm. Republic of:Springer Verlag, Seoul, Korea
Yang H, Yin GF, Fang H et al (2011) Research on calculation method of convective heat transfer coefficient in machine finite element thermal analysis. J Sichuan Univ (Engineering Science Edition) 43(04):241–248
Rahmati SHA, Zandieh M (2012) A new biogeography-based optimization (BBO) algorithm for the flexible job shop scheduling problem. Int J Adv Manuf Technol 58(9–12):1115–1129
Jain J, Singh R (2013) Biogeographic-based optimization algorithm for load dispatch in power system. Int J Emerg Technol Adv Eng 3(7):549–553
Ren WJ, Zhao YJ, Wang TR et al (2014) Research on neural network fault diagnosis method based on biogeographic optimization algorithm. Chem Autom Instrum 41(02):149–153+18
Ren WJ, Zhao YJ, Wang TR et al (2014) Research on fault diagnosis of pumping unit based on biogeographic optimization algorithm. J Syst Simul 26(06):1244–1250
Lu YM, Wang YC, Wu ZX (2016) Biogeographic optimization algorithm with two-fold mechanism and cylindricity deviation evaluation. J Mech Eng 52(24):80–87
Dan JS (2014) A probabilistic analysis of a simplified biogeography-based optimization algorithm. Evolut Comput 19(2):167–188
Yu ZQ, Zhang K, Zhang LX et al (2014) n. Lubrication seal 39(03):79–83
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Wu, Y., Zhang, L. (2020). Thermal Performance Prediction of Motorized Spindle. In: Intelligent Motorized Spindle Technology. Springer Tracts in Mechanical Engineering. Springer, Singapore. https://doi.org/10.1007/978-981-15-3328-0_6
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DOI: https://doi.org/10.1007/978-981-15-3328-0_6
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