A mathematical model of the limited angle steel belt transmission system is established to analyze its transmission characteristics and the influence of pre-tension on its output characteristics，and the influencing factors of the limited angle steel belt creep rate and transmission ratio are studied. Based on the rigid-flexible coupling dynamics model and the mathematical model for calculating the pre-tension force of steel belt，the influence of pre-tension force on the output characteristics of the transmission system is studied through the multi-body dynamics simulation software and the physical prototype experiment.The results show that the thickness of steel belt，the rolling angle，the ratio of rolling angular velocity to steel belt transmission speed，the transverse displacement and the radius of friction wheel are the main factors affecting the creep rate and transmission ratio of steel belt. The larger the pre-tension force is，the smaller the deviation of output angle is，the higher the output precision is，and the more stable the transmission is. When the pre-tension force is 11 N，the overshoot is 40% and the output angle error is 6.4%. When the pre-tension force increases to 84 N，the overshoot decreases to 1%，the response time decreases to 20%，and the output angle error decreases to 1.4%.The mathematical model of creep rate，transmission ratio and pre-tension force can provide theoretical basis and effective reference for the research on limited angle steel belt transmission system.
LU Qiang， GAO Zhifeng， ZHONG Xiaobin， DAI Jun， HUANG Qiu, HU Shaoyun.
Transmission Characteristics of Limited Angle Steel Belt Transmission System and Effect of Pre-tension Force on Output Characteristics. Acta Armamentarii. 2022, 43(3): 676-685 https://doi.org/10.12382/bgxb.2021.0080
基金
“十三五”装备预先研究专用技术项目（2016年）
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参考文献
［1］MALUEGR，COLELLA N J，HAKALA D B.Stabilized optical tracking platform for airborne applications[J].Proceedings of SPIE，1995，2468:27-38. [2］YOSHIOKAH，SHINNO H，SAWANO H.A low-profile planar motion table system driven by steel belt[J].International Journal of Automation Technology，2015，9(6):739-745. [3］马冉冉，王彤宇.基于ADAMS的二维跟踪转台动力学耦合分析[J].长春理工大学学报（自然科学版），2015，38(1):79-84. MA R R，WANG T Y.Dynamic coupling analysis of two-dimensional tracking turntable based on ADAMS [J].Journal of Changchun University of Science and Technology （Natural Science Editio），2015，38(1):79-84.(in Chinese) [4］DI NAPOLI M，STRHLE M，RUZIMOV S，et al.Intelligent belt drive systems in hybrid powertrains:a multipurpose test rig[J].IFAC-PapersOnLine，2016，49(21):47-53. [5］ZHU H，ZHU W D，HU Y M，et al.Periodic response of a timing belt drive system with an oval cogged pulley and optimal design of the pitch profile for vibration reduction[J].Journal of Computational and Nonlinear Dynamics，2018，13(1):011014. [6］张卫国，侯军占，段红建，等.精密柔性传动技术在光电系统中的应用研究[J].应用光学，2017，38(3):341-347. ZHANG W G，HOU J Z，DUAN H J，et al.Application of precision flexible drive in electro-optical system[J].Journal of Applied Optics，2017，38(3):341-347. (in Chinese) [7］周鑫弘，张立中，洪进.车载激光通信稳瞄转台动力学建模与仿真[J].长春理工大学学报(自然科学版)，2015，38(4):33-36 ，44. ZHOU X H，ZHANG L Z，HONG J.Vehicular laser stabilized sighting turntable dynamics modeling and simulation[J].Journal of Changchun University of Science and Technology（Natural Science Edition），2015，38(4):33-36，44. (in Chinese) [8］ZHU H，ZHU W D，FAN W.Dynamic modeling， simulation and experiment of power transmission belt drives:a systematic review[J].Journal of Sound and Vibration，2021，491: 115759. [9］CHEN Z P，XU E D，ZHANG Z J，et al.The multi-body dynamics analysis and experiment of long distance steel belt transmission[J].Advanced Materials Research，2014，971/972/973:816-822. [10］ZHUH，HU Y M，ZHU W D，et al.Dynamic responses of an engine front-end accessory belt drive system with pulley eccentricities via two spatial discretization methods[J].Proceedings of the Institution of Mechanical Engineers, Part D:Journal of Automobile Engineering，2018，232(4):482-498. [11］张杰，仇振安，李运动，等.钢带传动技术在惯性稳定平台中的应用[J].电光与控制，2016，23(1):89-92. ZHANG J，QIU Z N，LI Y D，et al.Application of steel belt transmission in inertial stabilized platform[J].Electronics Optics ＆ Control，2016，23(1):89-92. (in Chinese) [12］郑大宇，孟庆鑫，王立权，等.带传动动力学分析及惯性力影响的研究[J].哈尔滨工程大学学报，2008，29(9):973-977. ZHENG D Y，MENG Q X，WANG L Q， et al.Analysis of the effects of inertial forces on belt drives[J].Journal of Harbin Engineering University，2008，29(9):973-977. (in Chinese) [13］于方德，贾清虎.稳定平台钢带传动回弹问题研究[J].机械工程师，2019(8):72-76. YU F D，JIA Q H.Research on springback problem of stable platform steel belt transmission[J].Mechnical Engineer，2019(8): 72-76. (in Chinese) [14］王旭东，熊平原.摩擦带传动弹性滑动的动力学分析与试验[J].机械传动，2010，34(12):52-55. WANG X D，XIONG P Y.Dynamic analysis and orthogonal test on elastic sliding of friction belt drive[J].Journal of Mechanical Transmission，2010，34(12):52-55. (in Chinese) [15］王浩楠，刘洋，严雪冬.钢带传动的力学特性分析及其应用[J].电子工业专用设备，2018，47(5):59-63. WANG H N，LIU Y，YAN X D.Analysis of mechanical property of steel belt transmission and its application[J]. Equipment for Electronic Products Manufacturing，2018，47(5):59-63. (in Chinese) [16］崔广军.基于Pro/E_ANSYS和ADAMS的龙带传动系的动力学联合仿真[J].计算机光盘软件与应用，2014(17):55-56. CUI G J.Dynamic co-simulation of dragon-belt driveline based on Pro/E_ANSYS and ADAMS[J].Computer CD Software and Applications，2014(17):55-56. (in Chinese) [17］张海峰，吴霁薇，余家利，等.输送钢带的力学特性分析与仿真[J].机械传动，2017，41(3):93-96. ZHANG H F，WU J W，YU J L，et al.Analysis and simulation of the mechanical property of transmission steel belt[J]. Journal of Mechanical Transmission，2017，41(3):93-96. (in Chinese) [18］潘炳财，方昉，李小平.传动钢带弹性对惯性稳定平台的稳定精度影响仿真分析[J].机械与电子，2013(4):24-27. PAN B C，FANG F，LI X P.Simulation analysis of influence of transmission steel bands elasticity on stability precision of inertiallv stabilized platform[J].Machinery & Electronics，2013(4): 24-27. (in Chinese) [19］徐珂.2∶1传动机构对上反稳像车长镜伺服性能的影响[D].南京：南京理工大学，2014. XU K.Influence of the 2∶1 transmission mechanism on servo performance of the up stabilized mirror commander sight[D].Nanjing：Nanjing University of Science and Technology，2014.(in Chinese) [20］陈峰华.ADAMS2012虚拟样机技术从入门到精通[M].北京：清华大学出版社，2012: 75-76. CHEN F H.ADAMS2012 virtual prototyping technology: from entry to master[M].Beijing：Tsinghua University Press，2012:75-76.(in Chinese) [21］苏砚帮.深沟球轴承铰内接触分析[D].大连：大连理工大学，2014. SU Y B.Contact analysis of deep groove ball bearing joint[D].Dalian：Dalian University of Technology，2014. (in Chinese) [22］刘义.RecurDyn多体动力学仿真基础应用与提高[M].北京：电子工业出版社，2013. LIU Y. Basic application and improvement of RecurDyn multibody dynamics simulation[M].Beijing：Publishing House of Electronics Industry，2013. (in Chinese) [23］濮良贵，纪名刚.机械设计[M].北京：高等教育出版社，2006. PU L G，JI M G. Mechanical design[M].Beijing：Higher Education Press，2006. (in Chinese)
