基于扁平电机的轻混式履带车辆综合传动方案

doi:10.3969/j.issn.1000-1093.2021.10.019

摘要/Abstract

摘要： 根据履带车辆对高供电能力、高体积功率密度、高机动性能、多使用功能、轻质量等发展需求，综合考虑液力机械综合传动、电力驱动技术发展趋势和技术成熟度，依据一种多目标综合评价方法进行液力机械综合传动、机电复合传动、纯电驱动、重混式综合传动、轻混式综合传动5种传动类型优选，进而提出一种基于扁平电机的轻混式多功能综合传动方案。该方案可有效补足液力机械综合传动装置供电能力短板，提高体积功率密度，提升机动性能，扩展履带车辆动力舱功能，有效控制质量；同时对该方案参数匹配与机动性能预测等开展研究工作。结果表明，新方案可以有效解决履带车辆动力舱的布置安装问题，避免了由于原方案导致车辆的车长方向过长引起的其他问题，结构合理可行。

关键词: 履带车辆, 轻混式综合传动, 传动方案, 机动性能

Abstract: According to the requirements of tracked vehicles for high power supply capacity，high volume power density，high mobility，multi-function，light weight，etc.，a lightweight integrated mixing transmission based on flat motor is proposed by using the multi-objective comprehensive evaluation method to optimize a variety of transmission types，such as integrated hydro mechanical transmission，composite electro-mechanical transmission，pure electric drive，comprehensive heavy hybrid drive and light comprehensive hybrid drive. In the proposed scheme，the development trend and technical maturity of integrated hydro mechanical transmission and electric drive technology are considered.The proposed scheme can effectively tackle the problem of insufficient power supply capacity of integrated hydro mechanical transmission，improve the volume power density，enhance the mobility， expand the function of vehicle power cabin，and effectively control the weight.For the proposed scheme，the parameters were matched，and the maneuverability was predicted. The results show that the proposed scheme can effectively solve the layout and installation of vehicle power cabin，and avoid other problems caused by the long direction of vehicle compared to the original scheme， and the structure is reasonable and feasible.

Key words: trackedvehicle, lightweightintegratedmixingtransmission, transmissionscheme, maneuveringcharacteristics

中图分类号:

TJ810.3⁺23

邹天刚，闫清东，盖江涛，侯威，王志涛，帅志斌，孙雪岩. 基于扁平电机的轻混式履带车辆综合传动方案[J]. 兵工学报, 2021, 42(10): 2233-2241.

ZOU Tiangang， YAN Qingdong， GAI Jiangtao， HOU Wei， WANG Zhitao， SHUAI Zhibin， SUN Xueyan. The Scheme of Lightweight Integrated Mixing Transmission Based on Flat Motor for Tracked Vehicle[J]. Acta Armamentarii, 2021, 42(10): 2233-2241.

参考文献

［1］廖自力，马晓军，臧克茂，等.全电战斗车辆发展概况及关键技术[J].火力与指挥控制，2008，33(5):1-4.
LIAO Z L，MA X J，ZANG K M，et al. Research on status quo and key technologies of all-electric combat vehicle[J].Fire Control and Command Control，2008，33(5):1-4.(in Chinese)
[2］ M[KG-*9]Z·YK A，CZAPLA T，KLEIN W.Hybrid drive application for high-speed tracked vehicle[J].Journal of KONES Powertrain and Transport，2009，16(1):341-349.
[3］ LI X J，XU L F，HUA J F，et al.Control algorithm of fuel cell/battery hybrid vehicular power system[C]∥Proceedings of Vehicle Power and Propulsion Conference.Harbin， China:IEEE，2008.
[4］邹祎.电传动关键技术与概述[J].价值工程，2016，35(36):113-114.
ZOU Y.Key technology of electrical transmission and its overview[J].Value Engineering，2016，35(36):113-114. (in Chinese)
[5］孙逢春，张承宁.装甲车辆混合动力电传动技术[M].第2版.北京：国防工业出版社，2016.
SUN F C，ZHANG C N. Technologies for the hybrid electric drive system of armored vehicle[M]. 2nd ed.Beijing：National Defense Industry Press，2016. (in Chinese)
[6］邹渊，武金龙，田野，等.履带车辆混合驱动系统自动化建模[J].中国机械工程，2018，29(15):1808-1817.
ZOU Y，WU J L，TIAN Y，et al. Automated modeling method for tracked vehicle hybrid drive systems[J].China Mechanical Engineering，2018，29(15):1808-1817.(in Chinese)
[7］ CHEN L，ZHU F T，ZHANG M M，et al.Design and analysis of an electrical variable transmission for a series-parallel hybrid electric vehicle[J].IEEE Transactions on Vehicular Technology，2011，60(5): 2354-2363.
[8］ MANSOUR C，CLODIC D.Dynamic modeling of the electro-mechanical configuration of the Toyota hybrid system series/parallel power train[J].International Journal of Automotive Technology，2012，13(1):143-166.
[9］赵龙庆.坦克装甲车辆电传动发动机-发电机组控制系统研究与开发[D].北京:北京理工大学，2004:49-63.
ZHAO L Q.Research and development of engine-generator control system of electric drive system in tank and armored vehicle[D].Beijing:Beijing Institute of Technology，2004:49-63.(in Chinese)
[10］田野.履带车辆混合驱动系统自动化建模研究[D].北京:北京理工大学，2015.
TIAN Y.Automated modeling research for hybrid drive system of tracked vehicle[D].Beijing：Beijing Institute of Technology，2015. (in Chinese)
[11］盖江涛，黄守道，周广明，等.双电机耦合驱动履带车辆自适应滑模转向控制[J].兵工学报，2015，36（3）：405-411.
GAI J T，HUANG S D，ZHOU G M，et al. Adaptive sliding mode steering control of double motor coupling drive transmission for tracked vehicle[J].Acta Armamentarii，2015，36（3）:405-411. (in Chinese)
[12］唐正华.军用履带车辆传动系统性能分析方法与软件研究[D].北京：北京理工大学，2013.
TANG Z H.Studies on analysis method and software platform of tracked vehicle transmission performance development[D].Beijing: Beijing Institute of Technology，2013. (in Chinese)
[13］汤久望，曹亚玲，邓斌.同轴式零差速电传动参数设计及配齿研究[J].机械设计，2021，38(1):102-107.
TANG J W，CAO Y L，DENG B.Parameter design of co-axial zero-differential electric transmission and its teeth-matching study[J].Journal of Machine Design，2021，38(1):102-107. (in Chinese)
[14］王伟达，项昌乐，韩立金，等.双模式机电复合无级传动功率流综合效率的优化[J].汽车工程，2015，37(8):917-924.
WANG W D，XIANG C L，HAN L J，et al.Overall efficiency optimization for power flow in dual mode electro-mechanical variable transmission system[J]. Automotive Engineering，2015，37(8):917-924. (in Chinese)
[15］黄千，黄英，张付军，等.电传动装甲车辆混合动力总成的联合仿真[J].兵工学报，2008，29(1):10-14.
HUANG Q，HUANG Y，ZHANG F J，et al.Co-simulation of hybrid power plant of electric drive system for armored vehicles[J].Acta Armamentarii，2008，29(1):10-14. (in Chinese)
[16］ SCHULZ M.Circulating mechanical power in a power-split hybrid electric vehicle transmission[J].Proceedings of the Institution of Mechanical Engineers，Part D:Journal of Automobile Engineering，2004，218(12):1419-1425.
[17］杨汇斌，刘树成，闫清东.履带车辆起步加速过程仿真研究[J].车辆与动力技术，2014(2):44-48.
YANG H B，LIU S C，YAN Q D.Research on starting acceleration process of tracked vehicles[J].Vehicle & Power Technology，2014(2):44-48.(in Chinese)
[18］ WANG X M，HE H W，SUN F C，et al.Comparative study on different energy management strategies for plug-in hybrid electric vehicles[J].Energies，2013，6(11): 5656-5675.
[19］ LIU J M，PENG H E. Automated modelling of power-split hybrid vehicles[J]. IFAC Proceedings Volumes， 2008，41（2）：4648-4653.
[20］ VERDONCK N，CHASSE A，POGNANT-GROS P，et al. Automated model generation for hybrid vehicles optimization and control[J].Oil & Gas Science and Technology，2010，65(1):115-132.
[21］ KLIAUZOVICH S. Analysis of control systems for vehicle hybrid powertrains[J].Transport，2007，22(2):105-110.
[22］凌川.混合动力车辆加速性能预测研究[D].北京:北京理工大学，2016.
LING C.Research on HEV acceleration performance prediction[D].Beijing:Beijing Institute of Technology，2016. (in Chinese)
[23］鲁连军，孙逢春，翟丽.基于Matlab Simulink电传动履带车辆转向性能仿真[J].兵工学报，2006，27(1):69-74.
LU L J，SUN F C，ZHAI L.Steering performance simulation for electric drive tracked vehicle based on Matlab Simulink[J].Acta Armamentarii，2006，27(1):69-74.(in Chinese)

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