用户名: 密码: 验证码:
基于MAS的开放式数控系统体系结构研究
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
随着信息技术和控制技术的不断发展,机械制造业的生产规模不断扩大,设备复杂度不断增加,用户的加工需求也呈现出多样化和个性化的发展趋势,传统的专用封闭式体系结构在并行处理及异构系统的集成、移植和伸缩性上都已无法满足现实需求,严重制约了数控系统的发展。为适应机械制造业的发展需求,国内外相继提出了多种开放式数控系统体系结构模型。这些模型大多从工程的角度对传统设计方法进行了改进,虽然在一定程度上满足了数控系统的高性能、高适用性特征,但都缺乏对系统智能化设计需求的考虑。MAS理论是分布式人工智能领域的重要系统建模思想,源于对人类社会结构和群体性行为的仿真。MAS系统由多个具有自主决策能力的独立Agent组成,并通过特定的协商手段协同完成具有分布式特征的系统任务,具有良好的分布性、自主性和协调性。综上所述,本文开展基于MAS的开放式数控系统体系架构方法及相关智能技术的研究,将MAS理论与开放式数控系统体系结构的设计过程相结合,利用MAS理论在系统建模上表现出的良好分布性、柔性、异步性特征来匹配数控系统的开放式设计需求,在提升系统的集成、处理能力的基础上,有效提高了系统的整体智能化程度。论文的主要研究内容包括以下几方面:
     1.基于MAS的开放式数控系统体系结构模型研究。针对开放式数控系统体系结构的高度智能化需求,开展对开放式数控系统体系结构智能化设计方法的研究工作。论述了将MAS理论应用于开放式数控系统体系结构建模的可行性和先进性,在分析开放式数控系统的工作原理和数据流程基础上,提出一种基于MAS的开放式数控系统体系结构模型,该结构模型采用分层设计方法,不仅可以满足开放式系统在体系结构上的可重构性、可扩充性和可移植性需求,而且可以利用分布式人工智能领域其他的智能理论提升系统的整体智能化程度。
     2. Agent个体模型研究。在分析Agent拟人性特征基础上,论述了Agent的社会属性,以及Agent社会属性对于Agent群体性行为的影响,开展对Agent个体建模方法的研究。针对现有Agent建模方法对于Agent社会属性表达方面的不足,对传统BDI-Agent模型进行了扩展,增加了反映Agent社会属性的要素,提出一种基于社会属性扩展的SBDI-Agent模型和基于Petri-Net的SBDI-Agent模型表示方法。利用Petri-Net良好的图形化描述能力,可以简单、清晰地对Agent心智状态的改变进行建模和分析检验,其异步、并发、模糊性等特征也与Agent的自身特点十分吻合。
     3. MAS知识模型研究。在分析基于MAS的开放式数控系统中知识的复杂、异构、模糊特征基础上,开展对MAS系统知识建模方法的研究。提出一种基于加权模糊Petri网的MAS系统知识模型,并提出基于该模型的双向约减推理算法和免疫学习算法。加权模糊Petri网是一种图形化的系统建模分析工具,既具备图形的直观性,也具备数学的可推理性,且对模糊产生式规则有良好的描述能力。双向约减推理算法通过逆向推理确定与决策目标有关的规则或条件,对WFPN进行化简,缩小问题求解空间,能够有效避免推理陷入局部极小的误区。基于抗原相似浓度优化的免疫学习算法,能够在知识处理过程中发现和学习新的知识规则,使得知识库能不断的更新、完善。对比实验结果验证了本文提出的推理算法在推理速度和推理精度方面优势明显,免疫学习算法在网络训练和学习效率上也表现出速度快、精度高等优势。
     4. MAS通信机制研究。在分析MAS通信特征和通信过程的基础上,开展面向MAS通信机制设计方法的研究。提出一种消息传递与黑板模式相结合的混合式通信模型、通信语言标准化封装方法和不良通信状态的检测方法。在混合式通信模型中,对于控制相关信息采用黑板通信模式,数据相关信息采用信息交换的直接通信模式,解决了不同类型通信信息在信息存储和调度频度等方面的不同需求。基于XML描述的KQML通信语言标准,解决了KQML标准在ACL消息解析、通信有效性检查机制和移植性等方面表现出的缺点。基于压迫行为模式的通信状态度量方法和Agent角色划分机制,能够从不同层次,不同角度对系统的整体压迫状态进行评估和分析。实验结果证明本文提出的度量方法能够准确的定位和消除引起MAS通信失衡状态的不良通信结构,提高了系统的通信效率和整体服务质量。
     5. MAS协商机制研究。在分析MAS协商的概念、特征和协商过程基础上,开展对MAS协商机制的研究。对比目前主流协商方法间的异同和优缺点,提出一种基于对手协商偏好预测让步的MAS协商机制,分别设计了可效用补偿和不可效用补偿议题的联合效用值计算方法,避免了因非补偿性效用值局部过小导致的协商资源浪费。该协商机制借鉴了双赢型协商策略的思路,将Agent个体的心理属性作为影响协商结果的要素之一,通过推测交互对手的协商偏好来动态修改自身权值,从而解决了因个体效用执着而导致协商失败的问题。
With the continuous development of information technology and controltechnology, the production scale of mechanical manufacturing industry expandsconstantly and the complexity of mechanical equipment increases continually, whichlead to the diversification and individuation of user requirements. The closedarchitecture of traditional CNC system, which lacks integration, portability andflexibility, has badly restricted the development of CNC system. To meet the need ofthe development of mechanical manufacturing, scholars from both domestic andoverseas carried out many related researches in which a variety of architecture modelsof CNC system have been provided. Most models are built by improving the traditionaldesign approach from the view of engineering. These proposed models, to a certainextent, can meet the demand of high performance and high applicability of CNCsystem. However, these models still didn’t take the demand of intelligence intoconsideration. Multi-agent is an important system modeling theory in distributedartificial intelligence and is originated from the simulation of human social structureand group behaviors. A multi-agent system consists of many independent agents. Eachagent, which can be taken as a physical or abstract entity, needs to communicate witheach other so as to complete the task cooperatively. Multi-agent systems havecharacters of distribution, autonomy and harmony. This paper will focus on themodeling approach and the research of relevant technologies on open architecture ofCNC system based on multi-agent theory. Application of the multi-agent theory in theprocess of open architecture CNC system modeling will not only meet the demand ofopen frame, but also will improve the system integration because of its characteristicsof distributive, flexibility and synchronism. The main works are undertaken mainly infollowing aspects.
     1. Architectural model of open CNC system based on multi-agent theory isbuilt. Taking the requirement of high intelligence of open CNC system architectureinto consideration, the research of modeling method of open CNC system architecture is carried out in this part. The feasibility and the advancement of applying multi-agenttheory into building architectural model of open CNC system are firstly discussed.After analyzing of the principle and the working flow of CNC system, a model of openCNC system architecture based on multi-agent theory is then provided. In this model,the layered modularized method is adopted which can not only meet demands ofreconfigurability, expandability and portability, but also can improve the systemintegration by using the intellectual technology of distributed artificial intelligence.
     2. Individual agent modeling methods are studied. After analyzingcharacteristics of human nature of each agent, the study of individual agent modelingmethod is carried out. The social attribute of agent and its influence on group behaviorsin multi-agent environment are expounded. Concerning the disadvantages of existingmodeling methods, the traditional SBDI-agent model is improved by increasing socialattributes of agent. The SBDI-Agent model based on social attributes and theSBDI-Agent based on Petri-Net are then provided. Based on the good ability ofgraphical description of Petri-Net, the mental state of the Agent inspection can then beanalyzed and modeled easily.
     3. Knowledge model in multi-agent system is studied. After analyzing thecomplexity, isomerism, and fuzzy of knowledge in multi-agent system, a knowledgemodel in multi-agent system based on weight fuzzy petri-net, the corresponding fuzzyreasoning algorithm and learning mechanism based on artificial immune network areproposed. Fuzzy Petri Net (FPN) is a kind of modified fuzzy knowledge modeling toolbased on traditional Petri net. It not only has the same ability of graphic description astraditional Petri net but also is capable of fuzzy reasoning. The combination of positiveand negative bi-directional reasoning algorithm based on WFPN is proposed in thispart. The problem-solving space is reduced by optimizing the WFPN model throughconfirming the rules and conditions that are related to decision objectives by backwardreasoning method. The positive confidence level is calculated by matrix algebraformula, which is helpful to enhance efficiency and search speed of large-scaleknowledge base. Referring to immune regulation mechanism of biological immune system, the immune regulation mechanism based on similarity of antigen is designed.According to those important net parameters obtained by immune regulation, theconcrete structure model of immune net is built. Using the proposed learning algorithmfor extracting rules from knowledge processing process can make the database insystem constantly improved. The experiment result indicates that the proposedreasoning method has significant advantages over the traditional reasoning algorithmin less reasoning time and error rate. The immune algorithm has shown faster learningspeed and higher classification accuracy.
     4. Communication mechanism in Multi-agent system is studied. Based onanalysis of the characteristics and the process of communication in multi-agent system,the study of communication mechanism in MAS is carried out. First of all, a mixedcommunication mode is presented. Direct communication will be used if there is adirect interaction between agents. Otherwise, indirect communication is implementedby building data shared pool. Secondly, a description method of KQML based on XMLhas been provided. The grammar of KQML message will be standardized by usingXML. The code of XML includes analyzing message, which makes the procedure ofanalysis more convenient. The social characteristic of MAS and the similarity betweenoppressive behaviors and unbalanced states of communication are firstly discussed.Regarding the oppressive behavior, some metrics have been designed to measure thecommunication among agents, and some rules have been devised to classify agentsinto several patterns in the following part. Experiments are finally conducted onCrisis-MAS. Experiment results show that the causes of the unbalancedcommunication design can be figured out by means of oppressive behavior and thattheir metrics, classification rules, and the performance also can be improved byeliminating the oppressive behavior in MAS.
     5. Negotiation mechanism in multi-agent system is studied. After analyzingthe concept, characteristics and process of negotiation in multi-agent system, the studyof negotiation mechanism in MAS is carried out. By comparing the advantages anddisadvantages of the current mainstream negotiation methods, a concessions negotiation mechanism in multi-agent system based on predicting the negotiationtendency of rival is given. Depending on whether the utility is complementary or not,the utility computing can be divided into two cases in order to avoid the waste ofnegotiation resource caused by low complementary utility value. The negotiationmechanism, using the idea of win-win negotiation strategy for reference, takespsychological attributes of agent as one of the elements that affect negotiation results.In order to solve the negotiation failure problem caused by obsession with utility,negotiation weights can be dynamically modified by predicting the negotiationtendency of rival.
引文
[1]张明亮,解旭辉,李圣怡.开放式数控体系结构的初步研究[J].中国机械工程,2001,12(11):1242-1245.
    [2]赵海信.开放式数控系统软件平台实现技术研究[D].武汉理工大学博士学位论文,2006.
    [3]游有鹏,开放式数控系统关键技术研究[D].南京航空航天大学博士学位论文,2001.
    [4]王太勇,乔志峰,韩志国,等.高档数控装备的发展趋势[J].中国机械工程,2011,22(10):1247-1259.
    [5]吴义荣,林雨.数控技术与产业的现状、发展趋势及对策[J]. CMET.锻压装备与制造技术,2005,5(02):22-25.
    [6]李刚,冷峻.浅谈我国数控技术的发展现状及趋势[J].科技资讯,2009,10(01):27.
    [7] G.Pritschow, Y.Altintas, F.Jovane, et al. Open Controller Architecture–Past, Presentand Future[J]. CIRP,50(2):463-470,2001.
    [8]陶耀东,林浒.高性能开放式数控系统框架设计[J].小型微型计算机系统,2009,30(9):1911-1916.
    [9] SARIDIS G N. Architecture for intelligent controls[C]. IEEE symposium onimplicit and nonlinear system,1992:14-15.
    [10] ECKHARD F, JURGEN R. The basic ideas of a proven dynamic collisionavoidance approach for multi-robot manipulator system[C]. Processions of theIEEE/RJS,2003:1173-1177.
    [11] KILOV H, ROSS J. Information modeling: an object-oriented approach [M].Prentice Hall,1994.
    [12]张晓辉,于东,胡毅.一种新型五轴联动数控系统的研究[J].小型微型计算机系统,2009,30(2):371-375.
    [13] Pritschow G, Daniel C, Janghans G, et al. Open System controllers: A chanllengefor the future of the machine tool industry[C]. CIRP Annals,1993,42(1):449-452.
    [14] Wright P K, Greenfeld I. Open architecture manufacturing: the impact ofopen-system computers on self sustaining machinery and the machine toolindustry[C]. Proc. Manufacturing International’90,1990:41-47.
    [15] Sahasrabudhe. A multi-agent control system[C]. Framework for Smart Structure,AIAA,1998:4202-4215.
    [16] Kai-Ying Chen, Chun-Jay. Applying multi-agent technique in multi-section flexiblemanufacturing system [J]. Expert Systems with Applications,2010(37):7310–7318
    [17]邓宏钟.基于多智能体的整体建模仿真方法及其应用研究[D].国防科学技术大学,2002.
    [18] Lastina Rippol. Windows2000Driver Developer’s Guide. Redmond: MicrosoftPress,2000.
    [19] Clipper Garel. ISO and ICE common database for Graphic symbol. New York:Fresco&Brother Press,2004.
    [20] Ricoh Promma. Deeply Develop in ISO12100-1. New York: New Light Press,2003.
    [21] Clever Washington. MFC Programmer’s Hand Book. Redmond: Microsoft Press,2000.
    [22] Converse Lenore. Network Developing in Microsoft Windows,2003.
    [23]张函,郭锐锋,耿聪,王峰,基于MAS技术的开放式数控系统软件体系结构研究[J].组合机床与自动化加工技术,2011,6(3):35-42.
    [24]李伟光,赵博,周建辉等.基于实时Linux的开放式数控系统框架[J].华南理工大学学报(自然科学版),2003,31(10):28-31.
    [25]陈友东,樊锐,陈五一等.基于RT-Linux的开放式数控系统研究[J].中国机械工程,2003,14(16):1419-1422.
    [26]李峰厚,叶佩青.基于RT-Linux的开放式数控系统研究[J].组合机床与自动化加工技术,2001(12):31-37.
    [27]李爱平,张建国. NC嵌入PC型开放式数控系统的研究[J].组合机床与自动化加工技术,2001(7):1-3.国家标准起草工作组. GB/T18759.2-2006,机械电气设备开放式数控系统第二部分:体系结构.中国标准出版社,2007.
    [28]杨献金.基于Windows操作系统的开放式数控系统研究[D].河南科技大学,2010.
    [29]开放式数控系统国家标准起草工作组. GB/T18759.2-2006,机械电气设备开放式数控系统第二部分:体系结构.中国标准出版社,2007.
    [30]严洪森.新的先进制造模式知识表示方法[J].机械工程学报,2006,42(10):80-90.
    [31]周桂红.基于多Agent的数控机床远程故障诊断系统研究[D].吉林大学,2008.
    [32] Bratman M E. Planning and the stability of intention[J]. Mind and machines,1992,2:1-16.
    [33] Levesque. A logic of implicit and explicit belief[C]. In the proceedings of the4thnational Conference on AI,1984.
    [34] Georgeff, Lansky. Reactive reasoning and planning[C]. In the proceedings of the6th national Conference on Artificial Intelligence,1999.
    [35] Padgham. Defensible inheritance: A lattice based approach [J]. Computers&Mathematics with Applications,1992,23(9):527-533.
    [36] Hartley Ralph, Pipitone Frank.Experiments with the subsumption architecture[C].IEEE International Conference on Robotics and Automation,1992:1652-1658.
    [37] Maes. Situated agents can have goals[J]. Designing Autonomous Agents,1990,32:49-70.
    [38] Hartley Ralph, Pipitone Frank.Experiments with the subsumption architecture[C].IEEE International Conference on Robotics and Automation,1992:1652-1658.
    [39] Vengattaraman, Abiramy, Dhavachelvan, R.Baskaran. An application perspectiveevaluation of multi-agent system in versatile environments[J]. Expert Systems withApplications,2011,7(38):1405-1418.
    [40] Daniel D C. Collaborating software blackboard and multi-agent systems&thefuture[C]. Proceedings of the International Lisp Conference,2003.
    [41] Dong Wenyong, Li Yuanxiang, Qin Jun. Evolutionary TARMA modeling in timeserials [J]. Application to modeling and prediction of power consumption inautomobile active suspension systems,2003,65,21-38.
    [42]史忠植,杨至成,方健梅.知识工程[J].计算机学报,1986,9:241-248.
    [43]王恒,张承瑞,刘日良.基于CORBA的软件化开放式数控系统体系结构[J].机械工程学报,2002,38(12):104-107.
    [44]白岩.基于本体的移动Agent通信技术研究[D].吉林大学,2006.
    [45]张士杰,靖爽. KQML在多代理船体装配CAPP系统中的应用[J].计算机集成制造系统,2001,7(4):12-16.
    [46]袁爱进,曹立明,王小平.一种基于FIPA ACL和XML的Agent通信语言[J].微型电脑应用,2003,19(7):14-17.
    [47] Cowie, Naylor, Rivers, Smith. Measuring workplace bullying [J]. Aggression andViolent Behavior,2002,7(1):33–51.
    [48] Lee, Hwang. Architecture modeling and evaluation for design of agent-basedsystem [J]. Journal of Systems and Software,2004,72(2):195–208.
    [49] Schoonderwoerd, Holl, Bruten, Rothkrantz. Ant-based load balancing intelecommunications networks [J]. Adaptive Behavior,1996,5(2):169–207.
    [50] Chavez, Moukas, Maes. Challenger: a multiagent system for distributed resourceallocation [J]. Autonomous Agents,1997,97:323–331.
    [51] Hoile, Wang, Bonsma, Marrow. Core specification and experiments in DIET: adecentralised ecosystem-inspired mobile agent system. In: Proceedings of1stInternational Conference on Autonomous Agents and Multi-Agent Systems,2002.
    [52]王向东,魏蓉,王文杰.基于扩展合同网的多Agent协作研究[J].微电子学与计算机,2008,25(4):108-111.
    [53]吴朝晖.基于对策论的MAS-BDI主体模型[J].计算机科学,2001,28(9):5-8.
    [54]廖振松,金海,李赤松,邹德清.自动信任协商及其发展趋势[J].软件学报,2006,17(9):1933-1948.
    [55]罗贺.多Agent信息融合与协商及其在故障诊断中的应用研究[D].合肥工业大学,2009.
    [56] Ramos, Ramalhog. Bilateral Negotiation Model for Agent-mediated ElectronicCommerce [C]. In proceeding of AMEC2000,2001.
    [57]张振文.基于让步提示的同步自动协商机制研究[D].华中科技大学,2010.
    [58]周桂红.基于多Agent的数控机床远程故障诊断系统研究[D].吉林大学,2008.
    [59]孙永征.多智能体网络的一致性及混沌系统的同步研究.复旦大学,2010.
    [60]马岩,曹金成,黄勇,李斌.基于BP神经网络的无人机故障诊断专家系统研究[J].长春理工大学学报,2011,34(4):137-139.
    [61]陈秀英.基于自学习机制的网络故障诊断专家系统研究[J].指挥信息系统与技术,2011,2(1):41-44.
    [62]代国林.基于BDI的协商公理体系多Agent系统模型[D].云南师范大学,2005.
    [63] Quynh-Nhu Numi Tran, Graham Low, and Mary-Anne Williams.A FeatureAnalysis Framework for Evaluating Multi-agent System DevelopmentMethodologies[C]. ISMIS,2003
    [64]蒋伟进,王璞.基于M A S的复杂系统分布式求解策略与推理研究[J].计算机研究与发展,2006,43(10):1615-1623.
    [65]曾环,严浙平.混合式多智能体技术在UUV协调控制中的应用[J].信息技术,2006,8:49-53.
    [66]彭志平,李绍平.一种基于Aalaadin元模型与AUML融合的MAS建模方法[J].电子与信息学报,2006,26(7):1150-1156.
    [67]吴海燕. Agent协商策略与联盟机制研究[D].福州大学,2005.
    [68]张墨华,李戈.基于WFPN和多Agent黑板模型的PAAIS知识处理研究[J].微电子学与计算机,2006,23(1):108-114.
    [69] G.Pritschow, Y.Altintas, F.Jovane, et al. Open Controller Architecture–Past, Presentand Future [J]. CIRP,2001,50(2):463-470.
    [70] P. Miles. Open architecture: forecasting the adoption wave [C]. Robotics World,1998.
    [71]李宏伟开放式数控系统分布式体系结构及其实现策略的研究[D].天津大学,2005.
    [72]周刚.基于STEP-NC的数控系统体系结构及其关键技术研究[D].浙江大学,2008.
    [73]郑飂默.五轴数控系统刀具中心点控制和空间刀补的研究[D].中国科学院大学,2011.
    [74]杜少华.开放式数控系统可重构技术研究[D].中国科学院大学,2012.
    [75]何汉明.基于角色的多智能体社会模型研究与应用[D].西北工业大学,2006.
    [76]刘卫平.论科学发现的社会思维自组织过程[J].系统辩证学学报,2003,11(4):36-40.
    [77]王文收.基于多智能体的社会公众科学素养系统仿真研究[D].国防科学技术大学,2011.
    [78]何明汉,何华灿.社会Agent的思维模型[J].计算机应用,2005,16:26-28.
    [79]张健. Agent角色模型与多Agent系统构造方法研究[D].山东大学,2012.
    [80]马军,闫琪,毛新军等.基于角色的多Agent系统软件设计方法[J].计算机工程与应用,2004,40(6):118-120.
    [81]闫琪.基于角色的多Agent系统开发方法研究[D].国防科学技术大学,2004.
    [82]余春燕.基于角色和面向智能主体的协同虚拟环境的研究[D].浙江大学,2004.
    [83] Bratman M E, Pollack M E. Toward an architecture for resource-boundedagents[C]. CSLI,1987.
    [84]凌兴宏,黄志球,刘全,李凡长等.结合逻辑和决策论方法的Agent模型研究[J].南京航空航天大学学报,2007,39(6):805-809.
    [85]王一川,石纯一.基于π演算的一种Agent组织模型[J].计算机研究与发展,2003,40(2):163-168.
    [86] Jimhez-Ochoa I,BeEovich O,Ramirez-Treviiio A,et al. Implementing BDI agentsusing petri nets[C]. Proceedings of the IEEEInternational Conference on Systems,Man and Cybernetics,2003.
    [87]王春生.基于故障诊断专家系统的数控机床故障诊断[J].装备制造技术,2009,8(6):111-117.
    [88]沈金华.数控机床误差补偿关键技术及其应用[D].上海交通大学,2008.
    [89]乐晓波,张磊.基于FPN推理的多Agent网络故障诊断系统的研究[J].计算机工程与设计,2008,29(20):5203-5208.
    [90]严洪森.新的先进制造模式知识表示方法[J].机械工程学报,2006,42(10):80-90.
    [91]徐佳,张卫.人工免疫系统中的抗体生成与匹配算法[J].计算机工程,2010,36(9):181-183
    [92] J Hunt, D Cooke. Learning using an artificial immune system[J]. Journal OfNetwork And Computer Applications: Special Issue On Intelligent Systems DesignAnd Application,1996,19:189-212.
    [93]刘晓东,付雪峰,刘邱云.一种基于免疫原理的Agent状态判定模型[J].江西师范大学学报,2009,33(5):613-616.
    [94] F Gonzalez, D Dasgupta, R Kozma. Combining negative selection andclassification techniques for anomaly detection[C].In Proceedings of the2002Congress on Ecolutionary Computation CEC,2002.
    [95] Qibin Feng,Guopiang Lu. FIPA-ACL based agent communication in plantautomation[C]. In: Emerging Technologies and Factory Automation, Proceedings.
    [96]何汉明,何华灿.多智能体社会[J].计算机工程与应用,2004,40(33):15-17
    [97] Finin. KQML as an agent communication language[D]. University of MarylandBaltimore Country,1994.
    [98] Labrou Y. A proposal for a new KQML specification[D]. University of MarylandBaltimore Country,1996.
    [99] Davids W H, Edwards P. Agent-K: an integration of AOP and KQML[C]. The3rdInternational Conference on Information and Knowledge Management,1994.
    [100]徐大庆,李淼,袁媛.基于XML的面向对象知识表示模式设计[J].计算机应用技术,2008,3:64-68.
    [101]Dong Meng-gao, Mao xin-jun, Chang zhi-ming, et al. Running mechanism andstrategy description language SADL for self-adaptive MAS [J]. Journal ofSoftware,2005,26(4):693-698.
    [102]Horling, Lesser. A survey of multi-agent organizational paradigms[J]. TheKnowledge Engineering Review,2005,19(4):281–316.
    [103]Montano, Yoon, Drummey, et al. Agent learning in the multi-agent contractingsystem[J]. Decision Support Systems,2008,5(1):140–149.
    [104]Salin.D. The prevention of workplace bullying as a question of human resourcemanagement: measures adopted and underlying organizational factors [J].Scandinavian Journal of Management,2008,24(3):221–231.
    [105]何汉明,何华灿.多智能体社会[J].计算机工程与应用,2004,40(33):15-17Lee,S.K, Hwang, C.S. Architecture modeling and evaluation for design of agent-basedsystem [J]. Journal of Systems and Software,2004,72(2),195–208.
    [106]Chen, Y.C, Chen, W.Y. An agent-based metric for quality of services over wirelessnetworks [J]. Journal of Systems and Software,2008,81(10),1625–1639.
    [107]Onate, Pinuel. Violence and Bullying in Spain[J]. Behavior in human society,2010,3(2):271-292.
    [108]Fuentes Fernandez, Garcia Magarin, Gonzalez Moreno, et al. A technique fordefining agent-oriented engineering processes with tool support[J]. EngineeringApplications of Artificial Intelligence,2010,23(3):432–444.
    [109]Salmivalli.C. Bullying and the peer group: a review[J]. Aggression and ViolentBehavior,2010,15(2):112–120.
    [110]Zhang Peng-fei. Comprehensive-information-based formal pragmatic approach foragent communication [D]. Beijing University of posts and telecommunication,2007.
    [111]Garcia-Magarino, Gutierrez, Fuentes-Fernandez.Organizing multi-agent systemsfor crisis Management[C]. In: Proceedings of7th Ibero-American Workshop inMulti-Agent Systems, Lisbon, Portugal,2008.
    [112]Pavon, Gomez. Agent oriented software engineering with INGENIAS[C]. In:Proceedings of3rd International Central and Eastern European Conference onMulti-Agent Systems,2003.
    [113]郭庆.多Agent协商中若干关键技术的研究[D].浙江大学,2003.
    [114]Jennings. Coordination techniques for distributed artificial intelligence[C].Foundations of Distributed Artificial Intelligence, sixth-Generation ComputerTechnology Series,1996.
    [115]李毅,罗诩,石纯一.多Agent系统的一种交互策略模型[J].软件学报,1999,l0(7):110-117.
    [116]PeiPei Kuan, Shanika Karimasekera, Leon Sterling. Improving Goal and RoleOriented Analysis for Agent Based Systems[C]. Software engineering conference,2005.
    [117]V.R.Lesser. Reflections on the Nature of Multi-Agent Coordination and Itsimplications of ran Agent Architecture[J]. Journal of Autonomous Agents andMulti-Agent Systems,1998,1:89-111.
    [118]Sycara. Coordination of multiple intelligent software agent[J]. The InternationalJournal of Cooperative Information Systems,1996,35:117-132.
    [119]蒋丽,刘大有,白岩,金弟.多Agent协商研究[J].计算机研究与发展,2006,43:1-5.
    [120]陈志雄,毛新军,董孟高.多Agent系统中的角色继承[J].计算机工程与科学,2007,29(3):131-135.
    [121]Rosensehein. Distributive Problem solving and multi-agent systems:Comparisons and examples[C]. In Proeeedings of the13th Intenrational Workshopon Distributed Artificial Intelligence,1994.
    [122]Zlotkin, Rosenheim. A domain theory for task oriented negotiation[C]. Proceedingof the American Association of Artificial Intelligence,1992.
    [123]Kraus. Designing and building negotiation automated agent. ComputationalIntelligence,1995,11(l):132-171.
    [124]Jennings. Controlling cooperative problem solving in industrial multi-agentsystems using joint intention[J]. Artificial Intelligence,1995,71:1081-1097.
    [125]Grosz B. Collaborative Plans for complex group actions[J]. Artificial intelligence,1996,86:269-358.
    [126]兰少华,吴慧中,顾一禾.基于BDI的Agent合同网实现[J].小型微型计算机系统,2001,22(12):1472-1474.
    [127]Sandholm. An implementation of the control net Protocol based on marginal costcalculations. In Proceedings of the National Conference on Artificial Intelligence,1993.
    [128]T.Sandholm, V.Lesser. Coalitions among computationally bounded agents.Artifieial Intelligence,1997,94(l):99-137.
    [129]隋新,蔡国勇,史磊.基于Q强化学习的多Agent协商策略及算法[J].计算机工程,2010,36(17):198-200.
    [130]Oliver. Multi-criteria negotiation on Multi-Agent Systems[C]. Proeeedings of theFirst Intenrational Workshop of Central and Easter European Multi-Agent Systems,1999.
    [131]叶斌,马忠贵等.多Agent协商行为的效用分析[J].控制与决策,2004,19(12):1332-1336.
    [132]廖振松,金海,李赤松.自动信任协商及其发展趋势[J].软件学报,2006,17(9):1933-1948.
    [133]卢淑彩.基于解约协商的云资源交易协商机制研究[D].浙江工商大学,2012.
    [134]赵翔.基于信任机制的多Agent系统协同研究[D].北京交通大学,2010.

© 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