Five Scientific and Technological Problems on Running System of High Mobility Tracked Vehicle

doi:10.3969/j.issn.1000-1093.2015.08.024

Abstract

Abstract: The running system is very important for tank and armored vehicles, especially for the mobility performance. The running system becomes a bottleneck to improve the performance of tank and armored vehicles due to the complex and adverse working environment. The concept, connotation, research objectives, research contents and research achievements of five scientific and technological problems, such as vibration damping network design based on the electrical and mechanical analogy, nonlinear vibration dynamics of complex system, energy dissipation, ground mechanics and nonlinear vibration control, are discussed. The fundamental theoretical research is carried out, and the key technical problems are overcome by collaborative research.

Key words: ordnance science and technology, running system, electrical and mechanical analogy, nonlinear vibration, energy dissipation, ground mechanics, control

CLC Number:

U463.3

MAO Ming， ZHANG Ya-feng， DU Fu， CHEN Yi-jie. Five Scientific and Technological Problems on Running System of High Mobility Tracked Vehicle[J]. Acta Armamentarii, 2015, 36(8): 1546-1555.

References

［1］王书镇．高速履带车辆行驶系[M]．北京：北京工业学院出版社，1988．
WANG Shu-zhen．The running system of high speed tracked vehicle[M]．Beijing: Beijing Institute of Machinery Press，1988．(in Chinese)
[2] 潘旭东，韩志平．美军2010年联合作战构想[J]．现代防御技术， 1990（2）：54-66．
PAN Xu-dong，HAN Zhi-ping．America's joint vision 2010[J]．Modern Defence Technology，1990(2)：54-66．(in Chinese)
[3] Smith M C，Wang F C．Performance benefits in passive vehicle suspension employing inerters[J]．Vehicle System Dynamics，2004，42(4)：235-257．
[4] Chen M Z Q，Papageogiou C，Scheibe F， et al．The missing mechanical circuit element[J]．IEEE Circuits and Systems Magazine，2009，9(1)：10-26．
[5] Papageorgiou C，Smith M C．Positive real synthesis using matrix inequalities for mechanical networks：application to vehicle suspension[J]．IEEE Transactions on Control System Technology，2006，14(3)：423-435．
[6] Evangelou S，Limebeer D J N，Sharp R S．Mechanical steering compensators for high-performance motorcycle[J]．Journal of Applied Mechanics，2007，72(2)：332-346．
[7] 廖柏淮．被动式机械系统之络路实现——惯质与线性矩阵不等式在火车悬吊系统上之应用[D]. 台北：台湾大学,2006．
LIAO Bo-huai．Passive mechanical system network-linear matrix inequality in the application of train suspension system[D]．Taibei：National Taiwan University，2006．(in Chinese)
[8] 陈龙，杨晓峰，汪若尘,等．基于二元件ISD结构隔振机理的车辆被动悬架设计与性能研究[J]．振动与冲击， 2013，32(6)： 90-95．
CHEN Long，YANG Xiao-feng，WANG Ruo-chen, et al．Design and performance study of vehicle passive suspension based on two-element inerter-spring-damper structure vibration isolation mechanism[J]．Journal of Vibration and Shock，2013，32(6)：90-95．(in Chinese)
[9] 李川，王时龙，张贤明,等．一种含螺旋飞轮运动转换器的悬架的振动控制性能分析[J]．振动与冲击，2010，29(6)：96-100．
LI Chuan，WANG Shi-long，ZHANG Xian-ming, et al．The suspension performance control and analysis witch contain flywheel Mmovement conversion device[J]．Journal of Vibration and Shock，2010，29(6)：96-100．(in Chinese)
[10] 杜甫．“惯容-弹簧-阻尼”悬挂结构综合及其在高机动履带车辆上的应用研究[D].北京：中国北方车辆研究所, 2014．
DU Fu．The research on structure synthesis of “inerter-spring-damper”suspension and its application in high mobility tracked vehicle[D].Beijing：China North Vehicle Research Institute, 2014．(in Chinese)
[11] 张亚峰．履带车辆行动系统总体设计KBE系统研究[D].北京：中国北方车辆研究所．2009．
ZANG Ya-feng．KBE system research of tracked vehicle running system design[D]．Beijing：China North Vehicle Research Institute,2009．(in Chinese)
[12] 尤·帕·沃尔科夫，阿·弗·巴依科夫．履带车辆的设计与计算[M]．刘太来，郭兆熊，吴雪英,译．北京：北京理工大学出版社，1997．
Volkov，Bayikefu．Design and calculation of tracked vechicle[M]．LIU Tai-lai，GUO Zhao-xiong，WU Xue-ying, translated．Beijing: Beijing Institute of Technology Press，1997．(in Chinese)
[13] 吕振华，姜利泉．基于液-固耦合有限元分析方法的气-液型减振器补偿阀性能研究[J]．工程力学，2006，23(11):163-169．
LYU Zhen-hua，JIANG Li-quan．FSI FEA simulation of liquid-supplement valves in gas-pressurized hydraulic dampers[J]．Engineering Mechanics，2006，23(11):163-169．(in Chinese)
[14] 王庆年．刚性轮在松散土壤上多次通过时滚动阻力及下陷量的计算方法[J]．吉林大学学报:工学版，1987，37(3)：453-464．
WANG Qing-nian．The calculation method of rolling resistance and subsidence value on rigid wheel through the loose soil many times[J]．Journal of Jilin University: Engineering Science，1987，37(3)：453-464．(in Chinese)
[15] Bekker M G． Introduction to terrain-vehicle [M]．Michigan: The University of Michigan Press，1969.
[16] Reece A R．Problems of soil-vehicle mechanics [R]．Warren，Michigan：US Army Land Locomotion Lab，1964.
[17] Wong J Y，Huang W．“Wheels vs tracks”-a fundamental evaluation from the traction perspective[J]．Journal of Terramechanics，2006，43：27-42．
[18] 陈秉聪，王昕．半履带式气垫车最佳功率匹配的研究[J]．青岛大学学报：工程技术版，1999，14(2)：1-3．
CHEN Bing-cong，WANG Xin．Study on power optimization of half-track air-cushion vechicle[J]．Journal of Qingdao University: Engineering Technology，1999，14(2)：1-3．(in Chinese)
[19] 郭孔辉，刘青．稳态条件下用于车辆动力学分析的轮胎模型[J]．汽车工程，1998，20(3)：129-134．
GUO Kong-hui，LIU Qing．Tire models for vehicle dynamic analysis in steady state condition[J]．Automotive Engineering，1998，29(3)：129-134．(in Chinese)
[20] 张克健，张相麟．履刺效应的有限元分析[J]．兵工学报，1982, 3(4)：54-60．
ZHANG Ke-jian，ZHANG Xiang-lin．Finite element analysis of track grouser effect[J]．Acta Armamentarii，1982,3(4)：54-60．(in Chinese)
[21] Federspiel Labrosse J M．Beitragzum studium undzur vervol-lkommung der aufhangung der fahrzeuge[J]．ATZ， 1955(3):Jah rgang 57．
[22] Bender E K．Optimum linear preview control with application to vehicle suspension [J]．ASME Journal of Basic Engineering，1968,90(2)：213-221．
[23] Yamada H， Sasaki M， Nam Y． Active vibration control of a micro-actuator for hard disk drives using self-sensing actuator[J]．Journal of Intelligent Material Systems and Structures， 2008， 19(1): 113-123．
[24] 王国丽，顾亮，孙逢春．车辆主动悬架技术的现状和发展趋势[J]．兵工学报，2000，21(S)：80-83．
WANG Guo-li，GU Liang，SUN Feng-chun．Current study and tendency of development in vehicle active suspension[J]．Acta Armamentarii，2000，21(S)：80-83．(in Chinese)
[25] Huiman G R．Preview estimation and controlf or (semi-) active suspensions [J]．Vehiele System，2000(2)：36-43．
[26] Yeh E C，Tsao Y J．Fuzzy control for active suspension design[C]∥Proceedings of Intelligent Vehicles ‘92 Symposium. Detroit，MI： IEEE，1992：92-97．

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