用户名: 密码: 验证码:
船用柴油机电控单体泵系统性能研究与开发
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
石油资源的日益枯竭和排放法规的日益严格对柴油机性能提出了更高的要求,同时也推动了柴油机技术的发展。采用电子控制技术是提高柴油机性能的主要技术手段,已经成为船舶柴油机重要研究和发展方向。其中电控燃油喷射系统作为现代柴油机核心部件,在很大程度上决定着柴油机的性能。电控单体泵燃油系统具有结构简单、可靠性高、对现有柴油机燃油系统改造或升级容易、对油品质量要求低等优点,是对我国机械喷油式柴油机升级改造的有效途径之一。
     本文针对船用柴油机燃油系统的特点,设计了船用电控单体泵燃油系统,重点针对电控单体泵燃油系统的喷油特性和其高速电磁阀特性进行了深入研究,并开发了电控系统。在TBD234V8柴油机上配机试验表明,在改善柴油机经济性和提高调速性能的前提下,排放性能达到了IMO TierⅡ排放要求。论文主要完成了以下几个方面的研究工作。
     1、高速电磁阀是电控单体泵燃油系统的关键部件,其驱动能力和响应速度等性能决定了喷油控制的灵活性。本文针对船用电控单体泵高速电磁阀特性分析难题,在Ansoft环境下建立了三维静态和瞬态磁场数值仿真模型,采用多物理场建模仿真分析及响应面中央合成试验设计分析方法,得出了全工况平面内关键因素及交互作用对高速电磁阀性能的影响规律和程度,揭示了静态电磁力及瞬态响应时间不但与一次作用因素有关,而且受二次因素复杂的交互作用影响,为高速电磁阀优化设计提供了有力支撑。
     2、电控单体泵的喷油性能及循环喷油量波动是影响柴油机高效清洁燃烧和稳定工作的重要因素。本文采用实验分析和AMESim数值模拟相结合的方法,分析了影响系统喷油性能的关键因素,揭示了全工况范围内关键因素对喷油性能的影响规律,并利用相关性分析方法得出了影响因素一次及二次交互作用对喷油性能的影响规律。通过对全工况范围内的循环喷油量波动量化分析,揭示了各影响因素变动对循环喷油量波动变化的影响规律,得到了影响循环喷油量波动的关键参数。为电控单体泵燃油喷射系统的设计、开发和循环喷油量稳定性控制提供理论指导。
     3、采用硬件模块化、软件分层封装及基于标定参数的数据架构设计方法,开发了船用柴油机电控单体泵系统控制单元,实现了电控单体泵柴油机实时、在线优化控制与匹配标定。并先后在油泵试验台和TBD234V8船用柴油机上进行了试验研究。试验结果表明:在满足柴油机经济性和调速性能的前提下,E3和D2工况NOX排放分别为7.02g/kW h、7.05g/kW h,达到了IMO TierⅡ排放要求。
With the decreasing of oil resources and the strictness of emissions regulations, it hashigher request of diesel engine performance improvement, but also promoted the developmentof the technology of diesel engine. By using electronic control technology has become animportant research and development direction of the marine diesel engines that it has the maintechniques of improving diesel engine performance. As a core component of modern dieselengine, electronic fuel injection system has great influence on diesel engine performance.Diesel electronic unit pump(EUP) fuel injection system enjoys the advantages of simplestructure, high reliability and for existing diesel engine fuel system modification or upgradeeasily and low demand for quality of oil, thus is one of the effective ways of upgradingmechanical injection type diesel engine of our country.
     In accordance with the characteristics of the marine diesel engine fuel system,this paperdesigns marine electronic unit pump fuel injection system, and has a In-depth research for thefuel injection performance of electronic unit pump fuel injection system and the performanceof high-speed solenoid valve, and develop the electronic system. Through the calibration testson TBD234V8diesel engine, emissions can meet IMO TierⅡemission regulations under thepremise of improve diesel engine economy and improve speed governing performance. Thispaper mainly completed the following several aspects of the research work.
     The high speed solenoid valve is one of the key actuators in the electronic unit pump fuelinjection system whose the response of speed and driving capacity performances affectdirectly the flexibility of the system injection control performance.In accordance with thehigh speed solenoid valve of marine electronic unit pump,this paper build the mathematicalsimulation model on calculating the3D static and instantaneous magnetic field in Ansoftenvironment.Using the method of modeling simulation and analysis in multi-physical fieldsand the analysis method of response surface central synthesis experiment and design,it isconcluded that the rules and degree of the performance of high-speed solenoid valves affectedby the full process plane within key factors and interaction, and reveals the static electromagnetic force and transient response time not only relevance to a factors, but also effects bythe secondary factors complex interaction, for a strong support for the optimization design ofhigh-speed solenoid valve.
     The performance of fuel injection and cycle fuel injection quantity fluctuation of EUPare important factors which affect the stability of work and high efficiency clean combustionof diesel engine. In this paper, a method of combining the experiment analysis and numericalsimulation under the AMESim environment is used, analyzes the key factors which affect theperformance of fuel injection system, reveals the influence law of the key factors to injectionperformance in the range of full operating conditions,by means of correlation analysis methoddrawing the influence law of the interaction of primary and secondary of key factors toinjection performance. Through the quantitative analysis of cycle fuel injection quantityfluctuation in the range of full operating conditions, reveals the influence law of the keyfactors to the variation of cycle fuel injection quantity fluctuation, and the key parameterswhich affect the cycle fuel injection quantity fluctuation were obtained. Providing atheoretical guidance for the design, development and stability control of cycle fuel injectionquantity of EUP fuel injection system.
     Using the design method of hardware modular, software hierarchical package and dataarchitecture based on calibration parameters, developed the electronic control unit of EUPsystem of marine diesel engine and realized optimal control and matching calibration ofelectronic unit pump diesel engine. The experiment had been carried out on test-bed andTBD234V8marine diesel engine.The experimental results show that NOXemission are7.02g/kW h and7.05g/kW h in E3and D2conditions on the premise of satisfying theeconomy and speed performance of diesel engine and meet the IMO TierⅡ emissionsrequirements.
引文
[1]洪清珍.船舶柴油机废气排放对大气污染的法律控制及其技术基础.船海工程.2004(1):34-36页
    [2]庄重.基于IMO附则VI的船舶柴油机NOX排放研究作.上海海事大学硕士学位论文.2006:1-12页
    [3]庞海龙,邓成林,姚广涛等.船用柴油机有害物排放控制技术.船舶工程.2011(1):21-24页
    [4]虞海.谈舰船绿色环保设计.船舶.2010(4):11-15页
    [5]王健. MARPOL公约附则VI生效的履约思考.珠江水运.2007(3):27-28页
    [6]钱作勤,王忠俊.船舶柴油机排放测试与控制措施.航海技术.2004(6):38-40页
    [7]关红翔,陈军.船用柴油机在不同测试循环下的排放对比分析.中国水运.2010(10):40-41页
    [8] Hansen J, Sato M, Ruedy R, et al. Global temperature ehange. PNAS,2006(103):14258-11429P
    [9] Wang C,Corbett J J,Firestone J. Modeling energy use and emissions from northameriean shipping:application of the ship traffic,energy,and environment model.Environmental Science&Technology.2007,41(9):3226-3232P
    [10] Konard S,Kivin B,Andrea J R. Greenhouse gas emissions: a system analysis approachSAEPaper:2001-01-1080
    [11]王新军,王军,干奇银等.柴油机电控技术的发展.农业装备技术.2008(6):20-23页
    [12]姚春德.内燃机先进技术与原理.天津:天津大学出版社.2010:12-24页
    [13] F Bedlford, C Rutland. Effect of Direct Water Injection on Diesel EngineCombustion.Society of Automotive Engineers,Inc.2000
    [14]兰银在,靳永标,狄建兵.国内外重载车用柴油机的现状及发展趋势.小型内燃机与摩托车.2011(3):88-91页
    [15]陈小敏,常汉宝.共轨柴油机燃油喷射系统研究现状及展望.内燃机与配件.2011(5):12-14页
    [16] Pieter Roels,Yves Sledsens and Sebastian Verhelst. Reducing Engine-Out Emissionsfor Medium High Speed Diesel Engines:Influence of Injection Parameters.SAE paper2009-01-1437,2009
    [17]王宁,杨海真,王峰.柴油机机外净化技术发展现状及展望.环境污染及防治.2010(1):73-76页
    [18]冯明志.船舶柴油机减排新形势与技术发展.船舶轮机.2009(4):34-37页
    [19]谢荣.船用低速柴油机燃油共轨喷射技术的应用.江苏船舶.2004(3):19-21页
    [20]蒋德明.达到欧洲VI排放法规的新一代车用重载柴油机.车用发动机.2009(4):1-6页
    [21]刘兵.电控单体泵柴油机达国III排放燃烧系统优化匹配及标定试验研究.天津大学硕士学位论文.2007:1-2页
    [22]李学民.分配泵电控系统的开发及在车用柴油机上的应用研究.吉林大学博士学位论文.2005:1-10页
    [23]石秀勇.喷油规律对柴油机性能与排放的影响研究.山东大学博士学位论文.2007:1-7页
    [24]佐藤敬一,朱予姝,魏朋玺.直喷柴油机喷油速率对燃烧及排放的影响.内燃机燃油喷射和控制.1999(3):29-32页
    [25] M. F. Russell, C. D. Young, S. W. Nicol. Modulation of Injection Rate to ImproveDirect Injection Diesel Engine Noise. SAE paper900349.
    [26] J. R. Needham. Competitive Fuel Economy and Low Emissions Achieved throughFlexible Injection Control. SAE paper931020.
    [27] Hiroshi Ishiwata, Takashi Ohishi, Kotaro Ryuzaki. A Feasibility of Pilot Injection inTICS (Timing and Injection Rate Control System). SAE paper940195.
    [28] D. A. Nehmer,R. D. Reitz. Measurement of the Effect of Injection Rate and SplitInjections on Diesel Engine Soot and NOXEmissions. SAE paper940668.
    [29] T. C. Tow, D. A. Pierpont, R. D. Reitz. Reducing Particulate and NOXEmissions byUsing Multiple Injections in a Heavy Duty D. I. Diesel Engine. SAE paper940897.
    [30] Terukazu Nishimura, Keiichi Satoh, Susumu Takahashi, et al. Effects of FuelInjection Rate on Combustion and Emission in a DI Diesel Engine. SAE paper981929.
    [31] J. Campbell, J. Scholl, F. Hibbler, et al. The Effect of Fuel Injection Rate and Timingon the Physical, Chemical, and Biological Character of Particulate Emissions from aDirect Injection Diesel. SAE paper810996.
    [32] J. R. Needham, M. P. May, D. M. Doyle, et al. Injection Timing and Rate Control-ASolution for Low Emissions. SAE paper900854.
    [33] Toshitaka Minami, Kouichi Takeuchi, Naoki Shimazaki. Reduction of Diesel EngineNOXUsing Pilot Injection. SAE paper950611.
    [34] Yoshinaka Takeda, Nakagome Keiichi, Niimura Keiichi. Emission Characteristics ofPremixed Lean Diesel Combustion with Extremely Early Staged Fuel Injection. SAEpaper961163.
    [35] Keiichi Nakagome, Naoki Shimazaki, Keiichi Niimura. Combustion and EmissionCharacteristics of Premixed Lean Diesel Combustion Engine. SAE paper970898.
    [36] Richard Stradling, Paul Gadd. The Influence of Fuel Properties and Injection Timingon the Exhaust Emissions and Fuel Consumption of an Iveco Heavy-Duty DieselEngine. SAE T.Kammerdiener, L.Burgler and P. L.Herzog. A New Common RailConcept with Pressure-modulated Injection. Paper presentation S492/S19, ImechE1999.
    [37]夏胜枝.新型电控柴油喷射系统性能优化.清华大学博士学位论文.2000:1-25页
    [38] G.M. Bianchi, P.Pelloni, F.E.Corcione, F.Luppino. Numerical Analysis of PassengerCar HSDI Diesel Engines with the2nd Generation of Common Rail Injection Systems:The Effect of Multiple Injections on Emissions. SAE paper2001-01-1068.
    [39] Yuanxian Zhu, Laura Ricart-Ugaz, Stan Wu, Jim Cigler. Combustion Development ofthe New International6.0L V8Diesel Engine. SAE paper2004-01-1404.
    [40] Philipp Beierer, Kalevi Huhtala, Erkki Lehto, Matti Vilenius. Study of the Impact ofSystem Characteristics on Pressure Oscillations in a Commmon Rail Diesel FuelInjection System. SAE paper2005-01-0910.
    [41] Ho Teng, James C.McCandless. Performance Analysis of Rail-Pressure Supply Pumpsof Common-Rail Fuel Systems for Diesel Engines. SAE paper2005-0909.
    [42]邱爱华,刘佳彬,李过房等. DECS-Ⅰ柴油机集成电子控制系统的设计.作.柴油机.2006(3):8-11页
    [43]田雨.柴油机电液调速技术研究.哈尔滨工程大学硕士学位论文.2010:1-12页
    [44]朱建元主编.船舶柴油机.北京:人民交通出版社.2008.9:15-26页
    [45]刘辉琴.柴油机喷油泵电控系统的研究.武汉理工大学硕士学位论文.2007:1-4页
    [46]黄茂杨.柴油机高压共轨燃油喷射系统.东南大学博士学位论文.2005:1-13页
    [47]王尚勇,杨青编著.柴油机电子控制技术.北京:机械工业出版社.2006.6:12-47,70-80页
    [48]宋斌.柴油机电子控制技术.长安大学硕士学位论文.2007:1-11页
    [49]李云强.两气门WP10国Ⅲ、国Ⅳ柴油机燃烧系统开发.天津大学博士学位论文.2008:1-21页
    [50]陈亮,高献坤,王导南.柴油机电子燃油喷射系统的发展及研究现状.内燃机.2008(2):1-4页
    [51]高小娟.柴油机电控共轨系统的控制技术.大连理工大学硕士学位论文.2005:2-4页
    [52] Kruger Michael, Herrmann Hans-Otto, Laumen Hermann-Josef. Combustion andperformance analysis of HSDI diesel engines with common rail and cam driven fuelinjection systems. American Society of Mechanical Engineers, Internal CombustionEngine Division (Publication) ICE.2000(33):33-44P
    [53] Lin Xiu-xia, Zhang You-tong, Yang Jian. High pressure common rail system match fora heavy duty turbocharged diesel engine. Journal of Beijing Institute of Technology(English Edition).2006,15(SUPPL.):124-129P
    [54] Boudy Frédéric, Seers Patrice. Impact of physical properties of biodiesel on theinjection process in a common-rail direct injection system. Energy Conversion andManagement.2009,50(12):2905-2912P
    [55] N-H Chung, B-G Oh, M-H Sunwoo. Modeling and injection rate estimation ofcommon-rail injectors for direct-injection diesel engines. Proceedings of the Institutionof Mechanical Engineers, Part D: Journal of Automobile Engineering.2008,222(6):1089-1101P
    [56] Coppo Marco, Dongiovanni Claudio, Negri Claudio. Numerical analysis andexperimental investigation of a common rail-type diesel injector. Journal ofEngineering for Gas Turbines and Power.2004,126(4):874-885P
    [57]周文华,竺春秋,苏瑜.共轨柴油机电控系统若干关键技术.浙江大学学报.2011(1):119-121页
    [58] L,A,Catalano, V.A.Tondolo, A.Dadone. Dynamic Rise of Pressure in theCommon-Rail Fuel Injection System.SAE paper2002-01-0210,2002.
    [59] Andrea E.Catania,Alessandro Ferrari. Experimental Investigation of Dynamics Effectson Multiple-Injection Common Rail System Performance.Transactions of the ASME2008-130-032806,2008.
    [60] Stefano Ubertini. Injection Pressure Fluctuations Model Applied to a MultidimensionalCode for Diesel Engines Simulation. ASME2006-07-128,2006.
    [61] Withit Chatlatanagulchai, Tanet Aroonsrisopon. Robust Common-Rail PressureControl for a Diesel-Dual-Fuel Engine Using QFT-Based Controller. SAE paper2009-01-1799,2009.
    [62]吴健.柴油机共轨式电控喷射系统喷射过程的模拟计算和研究.湖南大学博士学位论文.2002:2-16页
    [63] Jyri Tonvall,Mika Laurén,Pekka Nousiainen. Optimization of Some InjectionParameters in a Common-Rail Non-Road Diesel Engine.SAE paper2009-01-1833,2009.
    [64]曹海滨,于洋.船用柴油机电控喷射系统的应用及对运转性能的影响.青岛远洋船员学院学报.2005,26(4):4-6页
    [65]冼伟伦,余天明.船用电控共轨型柴油机的最新技术特点和管理.船舶.2006(6):38-40页
    [66]安士杰,欧阳光耀.船用柴油机高压共轨系统结构特性.柴油机.2002(6):13-16页
    [67]平涛,张克龙,胡宗成.共轨式燃油喷射系统在船用柴油机上的应用.柴油机.2003(6):13-16页,18页
    [68]刘世居.燃油共轨系统在船用柴油机中的应用.青岛远洋船员学院学报.2003,24(4):21-25页
    [69] Tinsley David. New dimensions to two-stroke power and choice. Shipping World andShipbuilder.2005,206(4218):12-18P
    [70] Anon. Waertsilae diesel designs its largest medium-speed engine. Diesel and GasTurbine Worldwide.1996,28(6):34P
    [71] Sjoeberg H. Engine development at Waertsilae. Transactions of the North East CoastInstitution of Engineers and Shipbuilders.1990,107(1):9-25P
    [72]刘镇宇,聂延生,马会普.船用共轨柴油机的控制方法.大连海事大学学报.2006,32(2):49-51页
    [73]李圣军,张维竞,常广晖.船用电控型柴油机的最新技术进展.船舶工程.2004,26(2):4-6页
    [74] Anon. First sulzer RT-flex60C low-speed engine on test. Diesel and Gas TurbineWorldwide.2002,34(9):36P
    [75] Anon. Latest smokeless engine concept by MAN B and W. Naval Architect.2000(9):14-15P
    [76] Belamaric I. Achievements in the development of MAN B&W low-speedengines-harmony with ship and environment. Brodo-gradnja.1994,42(1):63P
    [77] Schulz Hans-Joachim. New developments in Man B and W four-stroke marine dieselengines. Journal of the Institution of Engineers (India), Part MR: Marine EngineeringDivision.2002,83(JUL.):5-11P
    [78]玉柴客户服务中心.玉柴欧III机培训资料(Delphi单体泵系统).2006.4:22-27页,36页
    [79]范立云.新型电控柴油喷射系统的开发与性能研究.大连理工大学博士学位论文.2008:16-25页
    [80]张然治.德尔福公司推出重载柴油机用电控单体泵.车用发动机.2001(2):21页
    [81] Mortimer John. Delphi expands diesel injector output using automated assembly.Assembly Automation.2002,22(3):215-222P
    [82] Peter Mullins. Delphi Launches Electronic Unit Pump For Heavy-Duty Diesel Engines.Diesel Progress North American Edition. October1,2000
    [83]于世涛,吴长水,杨林等.基于模型的电控单体泵怠速控制策略的开发.内燃机学报.2006,24(2):162-167页
    [84]韦雄,朱志伟,祝轲卿等.电控单体泵柴油机怠速控制策略的开发.内燃机工程.2009,30(2):49-52页
    [85]杨时威,吴长水,冒晓建等.电控单体泵燃油喷射系统控制方法研究.内燃机工程.2008,29(3):6-11页
    [86]杨时威,吴长水,冒晓建等.电控单体泵燃油喷射系统仿真.系统仿真学报.2009,21(6):1743-1747页
    [87]于世涛,周兴利,杨晓峰等.基于扭矩控制的电控单体泵柴油机仿真模型的研究.内燃机工程.2006,27(2):29-32页
    [88]杨时威,于世涛,吴长水.电控单体泵多节点标定系统的研发.农业机械学报.2007,38(2):164-167页
    [89]吴长水,卢成委,于世涛等.电控单体泵电液延迟特性标定.内燃机工程.2007,28(4):16-18页
    [90]于世涛,龚元明,唐航波等.电控单体泵硬件在环仿真系统.农业机械学报.2006,37(12):41-45页
    [91]王波涛,龚元明,郭敬爱等.电控组合单体泵燃油喷射系统试验台的研制.内燃机工程.2008,29(2):26-30页
    [92]杨晓峰,于世涛,汪兴等.电控单体泵柴油机喷油正时控制策略的研究.柴油机.2006,28(4):10-12页
    [93] Xu Quankui, Zhu Keqing, Zhuo Bin. Simulation in thermal design for electroniccontrol unit of electronic unit pump. Chinese Journal of Mechanical Engineering(English Edition).2008,21(5):1-7P
    [94] Yu Shitao, Yang Shiwei, Yang Lin. Model-based development of real-time softwaresystem for electronic unit pump system. Chinese Journal of Mechanical Engineering(English Edition).2007,20(1):25-30P
    [95]刘兵,覃新念,尧命发等.电控单体泵柴油机达欧-III排放优化匹配及标定试验研究.内燃机工程.2007,28(5):79-84页
    [96]刘建成,刘彪,王立德等.基于DSP的电控单体泵控制系统设计.现代车用动力.2007(2):23-26页
    [97]孔峰,宋希庚,张育华等.增压中冷电控单体泵柴油机的平均值模型.内燃机工程.2006,27(5):20-23页
    [98] Li-yun Fan, Yuan-xian Zhu, Wu-qiang Long. An investigation of the performance of anelectronic in-line pump system for diesel engines.Journal of Marine Science andApplication.2008,7(4):261-267P
    [99]李素文,于秀敏,王超.柴油机单体泵喷射控制EPS系统设计与试验.农业机械学报.2008,39(1):30-32页
    [100]刘波澜,陆宏泽,张付军等.电控单体泵燃油喷射系统一维耦合仿真.兵工学报.2007,28(3):267-271页
    [101]刘波澜,张付军,黄英等.单体泵柴油机电控系统开发及试验研究.内燃机学报.2004,22(5):450-455页
    [102]赵长禄,谭建伟,张付军等.电控单体泵式(EUP)柴油机喷油系统的研究.内燃机工程.2004,25(2):79-83页
    [103]仇滔,刘兴华.电控单体泵供油系统仿真研究.车用发动机.2005(2):23-25页
    [104] Liu Bo-Lan, Zhao Chang-Lu, Zhang Fu-Jun. Electronic unit pump diesel enginecontrol unit design for integrated powertrain system. Journal of Beijing Institute ofTechnology (English Edition).2005,14(1):71-74P
    [105]李进,张科勋,李建秋等.电控单体泵系统的喷射控制算法.清华大学学报(自然科学版).2005,45(11):1526-1529页
    [106]李启发,周明,张科勋等.预喷射控制算法在电控单体泵柴油机上的应用.清华大学学报(自然科学版).2006,46(11):1900-1903页
    [107] Liu Biao, Wang Li-De, Shen Ping. Simulation and experiment of electronic unit pump(EUP) system of diesel locomotive. Journal of the China Railway Society.2008,30(5):25-30P
    [108]孙建清.柴油机电控泵管嘴燃油喷射系统仿真研究.哈尔滨工程大学硕士学位论文.2006:7-8页
    [109]史镜海.柴油机电控泵管嘴燃油系统及电磁阀的仿真研究.哈尔滨工程大学硕士学位论文.2008:12-29页
    [110]邹开凤.高压共轨电控喷油器的设计研究.海军工程大学.2004:1-10页
    [111] Saeed Moaveni.有限元分析.北京:电子工业出版社.2003:4-36页
    [112]赵博,张洪亮. Ansoft12在工程电磁场中的应用.北京:中国水利水电出版社.2010:1-34页
    [113]刘国强,赵凌志,蒋继娅. Ansoft工程电磁场有限元分析.北京:电子工业出版社.2005:1-12页
    [114]李心怡.轴向磁场无刷直流电机及其控制器的研究.西华大学硕士学位论文.2010:12-13页
    [115]王远兵.车用混合励磁爪极发电机的有限元分析和研究.合肥工业大学硕士学位论文.2009:17-20页
    [116]汪志刚.电控柴油机用电磁阀电磁场三维有限元分析.现代车用动力.2006(1):6-10页
    [117]郝守刚.电控单体泵电磁阀电磁机液特性研究.清华大学硕士学位论文.2003:20-35页
    [118]林娜,陈德桂.基于三维有限元寻优方法的交流接触器磁系统静态特性分析.低压电器.2004(5):3-7页
    [119]过璧君.磁芯设计及应用.四川:电子科技大学出版社.1989:24-26页
    [120]茆诗松,周纪芗,陈颖.试验设计.北京:中国统计出版社.2004.45-56页
    [121] Umetrics AB. MODDE7Users Guide.2003.
    [122]欧大生,欧阳光耀,张剑平.共轨喷油器电磁阀材料及响应特性试验研究.内燃机工程.2007(6):33-36页
    [123]安士杰,欧阳光耀.电控喷油器控制电磁阀理论与试验研究.内燃机学报.2003(5):356-359页
    [124]汪志刚,张敬国,陈勤学.电控柴油机用高速电磁阀的仿真研究.机电设备.2003(4):22-26页
    [125]邓东密,邓萍.柴油机喷油系统.北京:机械工业出版社.2009:184-188页
    [126]刘永长.内燃机工作过程模拟.武汉:华中理工大学出版社.1996:1-35页
    [127]高宗英.根据高压油管实测压力计算柴油机喷油过程的一种新方法.内燃机学报.1983(3):73-95页
    [128] Arcoumanis C, Fairbrother R J. Computer Simulation of FuelI njection Systems f orDI Diesel Engines. SAE922223.
    [129]付永领,祁晓野. AMESim系统建模和仿真——从入门到精通.北京:北京航空航天大学出版社.2006:1-35页
    [130]刘峥,张扬军.内燃机一维非定常流动.北京:清华大学出版社.2007:26-34页
    [131]董尧清,顾萌君,纪丽伟等.提高柴油机高压共轨系统高压泵泵油能力的研究.内燃机工程.2006:27(5):11-15页
    [132]欧大生,刘振明,周加东等.基于变形补偿技术提高共轨高压泵泵油能力的试验研究.内燃机工程.2008(3):1-5页

© 2004-2018 中国地质图书馆版权所有 京ICP备05064691号 京公网安备11010802017129号

地址:北京市海淀区学院路29号 邮编:100083

电话:办公室:(+86 10)66554848;文献借阅、咨询服务、科技查新:66554700