基于响应时间的供应链决策与监控研究
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摘要
随着市场竞争加剧及需求不确定性增大,企业的成功越来越取决于其对客户订单的响应能力,企业之间的竞争逐渐从过去的基于品种、价格、质量竞争转为基于时间竞争模式。尤其是在定制生产模式下,客户需求对响应时间十分敏感。同时,由于市场环境的变化,单个企业难以在激烈的市场竞争中生存,使得企业之间的竞争转变成供应链之间的竞争。为了保持竞争力,供应链必须尽可能地降低运作成本并同时改善对顾客的服务质量。因此缩短产品的市场响应时间是供应链管理总体目标之一。正是在这样的背景下,本文对基于响应时间的供应链决策与监控问题的研究,对于认清基于时间竞争策略对供应链运作的影响,找出能够使供应链和企业都实现最大收益的响应时间决策模式和收益分配模式,有效缩短响应时间,提高供应链竞争力具有十分重要的理论价值和现实意义。
     本文从基于缩短响应时间的供应链重构、响应时间决策、供应链收益分配、供应链响应时间监控四个侧面,通过定性化分析和定量化建模较为全面系统地研究了基于响应时间的供应链决策与监控问题。本文的主要内容如下:
     (1)基于缩短响应时间的供应链建模研究。首先分析了传统供应链面临的问题与挑战,提出了用供应链重构来缩短响应时间以适应市场变化。接着在对供应链响应时间影响因素进行分析的基础上,提出了缩短供应链响应时间的方法。最后构建了信息协调型供应链模型,以实现基于响应时间下的供应链运作。
     (2)时间敏感型需求下的供应链响应时间决策模型及其决策分析。在对供应链响应时间进行概念界定的基础上,对供应链响应时间决策过程进行建模研究。首先分析了在一个由制造商和分销商组成的两阶供应链中,在分散决策和集中决策两种模式下的决策过程。通过对两个决策模型的最优性分析和供应链整体收益比较,得到了能够实现整体收益最大化的决策模式。接着对响应时间影响因素进行了敏感度分析,研究了他们对供应链最优决策结果的影响。进一步,还分析了承诺响应时间在供应链运作中的作用,以及价格对响应时间敏感时的供应链响应时间决策。
     (3)基于响应时间的供应链收益分配模型及其决策分析。在对供应链收益分配概念进行界定的基础上,对供应链收益分配问题进行建模研究。分别研究了三种决策模式下的收益分配方法,并结合企业实例进行数值分析。在分散决策模式下,分析了供应链中存在的双重边际化效应,以及各种影响因素对供应链收益分配比例的影响;同时还分析了集中决策模式下收益分配机制必须满足的约束条件;最后重点研究了协调决策模式下供应链中的收益分配,找到了两种可行的收益分配机制。
     (4)基于时间竞争下的供应链响应时间监控体系研究。首先,运用灰色灾变理论,构建了响应时间灾变预测模型;接着运用统计过程控制和有限状态机理论,构建了基于有限状态机的供应链响应时间实时监控系统;最后将传统上质量控制中的统计控制原理创造性地运用到响应时间控制中来,找到了合适的响应时间控制的控制界限和规格界限,以及实施方法。通过三种方法从预警控制、实时控制、反馈控制三个角度建立了全过程全系统的响应时间监控体系。
     最后,论文对全文的工作予以了总结和展望。
With the intensifying of market competition and the increasing of demand uncertainty, the success of an enterprise becomes more depend on the quick response to customer orders, and the competition between enterprises has changed from traditional competition based on variety, price or quality to Time-based competition (TBC). Especially in Customized Production (CP), customer demands are very sensitive to response time. At the same time, the change of market environment makes it difficult for an individual enterprise to survive; therefore, competition mode has shifted from the competition among enterprises to the competition among supply chains. To maintain the ability to compete, supply chain is required to reduce the cost of operation and improve service quality to customer. Under such circumstances, the study on the problem of supply chain decision and monitoring and controlling based on response time has great significance in both theory and practice to realize the effect of TBC strategy on the operation of supply chain, to find out the decision mode of response time and profit allocation mode that can make both the supply chain and individual enterprise realize the most benefit, to reduce response time effectively, and to improve the competitive ability of supply chain.
     This research investigates systematically the problem on supply chain decision and monitoring and controlling based on response time from the following four aspects, that is, supply chain reconstruction based on response time reduction, decision of response time, profit allocation of supply chain, monitoring and controlling of response time of supply chain. The methods of qualitative analysis and quantitative modeling are adopted in the whole process. The main content includes:
     (1) A study on modeling supply chain based on response time reduction.
     Firstly this research analyzes the problems and challenges that traditional supply chains are confronted with, and presents the reconstruction of supply chain to reduce response time so as to adapt to the market change. Then, through analyzing those factors that affect supply chain response time, several methods are put forward to shorten supply chain response time. At last Information Harmonized Supply Chain (IHSC) is modeled to realize the operation of supply chain based on response time.
     (2) Decision model of supply chain response time and decision analysis under time-sensitive demand. After exactly defining the supply chain response time, the decision-making process of response time is modeled. At first, the decision-making processes are analyzed separately in decentralized decision mode and centralized decision mode, and in a supply chain that is composed of a manufacturer and a distributor. Through optimal analyzing and comparing whole benefits of supply chain in that two decision models, the mode is found to achieve the most whole benefits. Then a sensitivity analysis upon influencing factors of supply chain response time is made, and the research of their effects on optimal decision result of supply chain is also conducted. Further more, several aspects are discussed, such as, the role of promised response time in the operation of supply chain, and response time decision under the circumstances of pricing based on response time.
     (3) Profit allocation model of supply chain and decision analysis based on response time. On the basis of defining profit allocation of supply chain, the study is conducted on the problem of supply chain profit allocation by means of modeling. The research is also made on the methods of profit allocation in three decision modes separately, and a numerical analysis combined with a real example is presented. Firstly both the double-marginal effect which occurs in supply chain and impact on the profit allocation proportion by various influencing factors in decentralized decision mode are analyzed. Then the constraints that the mechanism of profit allocation must meet in centralized decision mode are analyzed. At last, emphasis is put on the study of supply chain profit allocation in cooperative decision mode, and two feasible mechanisms of profit allocation are found.
     (4) The monitoring and controlling system of supply chain response time in time-based competition. Firstly the grey calamity prediction model of supply chain response time based on grey calamity theory is established. Then through applying theories of statistical process control and finite state machine, a real-time monitoring and controlling system of supply chain response time based on finite state machine is made. Lastly the theory of statistical control that is traditionally used in quality control is utilized in controlling response time in a creative way to get proper control limit and specification limit of response time and the right methods to put into effect. Thus we get a full-system and full-process monitoring and controlling system of supply chain response time by using three methods from three various aspects that is predictive control, real-time control and feedback control.
     The final chapter of the dissertation concludes the entire dissertation and describes the directions of the future research.
引文
[1] Abadi I. N. K., Hall N. G., Sriskandarajah C. Minimizing cycle time in a blocking flowshop [J]. Operations research, 2000,48(1):177-180.
    [2] Adrian B. Time compression in the supply chain [J]. Industrial Management & Data Systems, 1996(2):12-16.
    [3] Alberto D. T., Antonella M. Traditional and innovative paths towards time-based competition [J]. International Journal of Production Economics, 2000, 66(3): 255-268.
    [4] Anderson M. G.., Katz P. B.. Strategic Sourcing [J]. International Journal of Logistics Management, 1998,9(1):1-13.
    [5] Appa I S. Simulation-based cause and effect analysis of cycle time distribution in semiconductor backend [C]. Proceeding of the 2000 Winter Simulation Conference, 2000(December): 1464-1471.
    [6] Barry L. B. Speed-to-market and new product performance trade-offs [J]. Journal of Product Innovation Management, 1997, 14(6): 485-497.
    [7] Beamon B. M., Ware T. M. A process quality model for the analysis, improvement and control of supply chain systems [J]. International Journal of Physical Distribution and Logistics Management, 1998, 28(9/10):704-715
    [8] Beamon B. Supply chain design and analysis: Models and methods [J]. International Journal of Production Economics, 1998, 55(3): 281-294.
    [9] Beaty R T. Mass customization [J]. Manufacturing Engineering, 1996, 2(5): 217-220.
    [10] Ben-daya M, Hariga M. Lead-time reduction in a stochastic inventory system with learning consideration [J]. International Journal of production research, 2003,41(3):571-579.
    [11] Benjaafar S. On production batches, transfer batches, and lead times [J]. IIE Transactions, 1996,28(5):357-362.
    [12] Benjaafar S., Sheikhzadeh M. Scheduling policies, batch sizes, and manufacturing lead times [J]. IIE Transactions, 1997,29(2): 159-166.
    [13] Bertrand J W M. Multiproduct optimal batch sizes with in-process inventories andmulti work centers [J]. IIE Transactions, 1985, 17(2): 157-163.
    [14] Bertrand J. W. M., Ooijen H. P. G. Customer order lead times for production based on lead time and tardiness costs [J]. International Journal of production economics, 2000,64:257-265.
    [15] Bhattacharjee S., Ramesh R. A multi-period profit maximizing model for retail supply chain management: An Integration of demand and supply-side mechanisms [J]. European Journal of Operational Research,2000(122):584-601
    [16] Bitran G R., Tirupati D. Lot sizing under (Q, R) policy in a capacity constrained manufacturing facility [J]. Robotics & Computer-Integrated Manufacturing, 1984, 1(3/4): 327-337.
    [17] Blackburn J D. The quick response movement in the apparel industry: A case study in: Time-compressing supply chain [M]. Homewood: Business One Irwin, 1991b.
    [18] Blackburn J D. Time-based competition: speeding new product development [M]. in Fandel, G. and Zapfel, G. (Eds), Modern Production Concepts: Theory and Applications, New York: Springer-Verlag, 1991c.
    [19] Blackburn J D. Time-based competition: The next battleground in American manufacturing [M]. Richard D. Irwin. Inc. Boston, 1991a.
    [20] Blackburn J. D., Elrod T., Lindsley W. B., Zahorik A. J. The Strategic Value of Response Time and Product Variety.In: Voss, C.A. (Ed.), Manufacturing Strategy-Process and Content [M]. Chapman and Hall, London, 1992
    [21] Boyaci T., Ray S. Product differentiation and capacity y cost interaction in time and price sensitive markets [J]. Manufacturing& Service operations management, 2003,5(1):18-36.
    [22] Chase R B., Aquilano N J., Jacobs F R. Operations management for competitive advantage [M]. Boston: McGraw-Hill Irwin, 2001.
    [23] Chauhan S.S., Proth J. M. Analysis of supply chain partnership with revenue sharing [J]. Int. J. Production Economics, 2005,97:44-51
    [24] Chen C. Y. J., George E. I., Tardif V. A Bayesian model of cycle time prediction [J]. IIE Transactions, 2001,33(10): 921-930.
    [25] Chen T C E., Podolosky S. Just-in-time manufacturing: An introduction [M]. New York: Chapman and Hall, 1993.
    [26] Christopher M. The Second generation of speed [J]. Harvard Business Review, 2001,79(4):24-25.
    [27] Chung S. H., Huang H. W. Cycle time estimation for wafer fab with engineering lots [J]. IIE Transactions, 2002,34:105-118.
    [28] Copacino W.C. Supply chain management——The basics and beyond [M]. Boston: The St Lucie Press, 1997.
    [29] Corbett C. J., Groole X.. A Supplier’s Optimal Quantity Discount Policy Under Asymmetric Information [J].Management Science,2000,46:444-450
    [30] Daniels N C., Essaides G. Time-based Competition [M]. London: Economic Intelligence Unit, 1993.
    [31] Das C. Effect of lead time on inventory: a static analysis [J]. Operational Research. 1975, 26 (2): 273-282.
    [32] Davis S M. 2001 management: managing the future now [M], London: Simon & Schuster, 1987.
    [33] Duenyas I., Hopp W. J. Quoting customer lead times [J]. Management science, 1995,41(1):43-57.
    [34] Dumaine B. How managers can succeed through speed [J]. Fortune, 1989,13:30-35.
    [35] Dupon A., Van Nieuwenhuyse I., Vandaele N.. The impact of sequence changes on product lead time[J]. Robotics and Computer-Integrated Manufacturing, 2002,18(3-4): 327-333
    [36] Eastwood, Margaret A. Implementing mass customization [J]. Computers in Industry. 1996, 30(3): 171-174.
    [37] Ellarm L. M., Cooper M. C.. Supply Chain Management, Partnerships and the Shipper third Party Relationship [J]. The International Journal of Logistics Management, 1990, 1: 1-10
    [38] Ellram L M. Supply Chain Management: The Industrial Organization Perspective [J]. International Journal of Physical Distribution & logistics Management, 1991, 21(1): 13-22
    [39] Enns S. T., Suwanruji P. Work load responsive adjustment of planned lead times [J]. Journal of Manufacturing technology management, 2004,15(1):90-100
    [40] Erenguc S S, Simpson N C, Vakharia A J. Integrated production/distribution planning in supply chain: An invited review [J]. European Journal Operational Research, 1999, 115(2): 219-236.
    [41] Evans G N., Towill D R., Naim M M. Business process re-engineering the supply chain [J]. International Journal of Production Management and Control, 1995, 6(3): 227-237.
    [42] Farley G. A. Discovering Supply Chain Management: a Roundtable Discussion. APICS-The Performance Advantage, 1997, 7(1): 38-39
    [43] Ganeshan R., Jack E., Magazine M. et al. A taxonomic review of supply chain management [M]. Edited by Tayur S., Ganeshan R., Magazine M., Boston: Kluwer Academic Publishers, 1999.
    [44] Gattorna J. Strategic Supply Chain Alignment [M]. Gower, 1998
    [45] Gjerdrum J., Shah N., Papageorgiou L.G. Fair transfer price and inventory holding policies in two-enterprise supply chains[J]. European Journal of operational research, 2002,143:582-599
    [46] Goldratt E M., Cox J. The Goal [M]. North River Press, Croton-on-Hudson, NY. 1984
    [47] Graham C S. Successful supply chain management [J]. Management Decision, 1992, 28(8): 25-31.
    [48] Gross D., Soriano A. The effect of reducing lead-time on inventory levels-simulation analysis [J]. Management Science, 1969,16(2):61-76.
    [49] Gules H. K., Burgess T. F.. Manufacturing Technology and the Supply Chain: Linking Buyer-supplier Relationships and Advanced Manufacturing Technology [J]. European Journal of Purchasing & Supply Management, 1996, 2(1): 31-38
    [50] Gupta Ashok K., Souder William E. Key drivers of reduced cycle time [J]. Research Technology Management, 1998,41(4):38-42.
    [51] Gupta D, Weerawat W. Incentive mechanisms and supply chain design for quick response. Working paper, Division of Industrial Engineering, Department of Mechanical Engineering, University of Minnestota, MN, 2000, December
    [52] Ha A. Incentive-compatible pricing for a service facility with joint production and congestion externalities [J]. Management science, 1998,44(12): 1623-1636.
    [53] Hall R W. Zero Inventories [M]. Dow Jones-Irwin, Homewood, IL. 1983
    [54] Handfield R B., Nichols E L Jr. Supply chain management [M]. New Jersey: Prentice-Hall, 1999.
    [55] Handfield R. Re-engineering for time –based competition [M]. London: QuorumBooks, 1995.
    [56] Hatoum K. W., Chang Y. L. Trade-off between quoted lead time and price [J]. Production planning & control, 1997,8(2):158-172.
    [57] Hill A V., Khosla I S. Models for optimal lead time reduction [J]. Production and Operations Management, 1992, 1(2): 185-97.
    [58] Hill A. V., Hays J. M., Naveh E. A model for optimal delivery time guarantees [J]. Journal of service research, 2002,2(3): 254-264
    [59] Holmstr?m J. Speed and efficiency—a statistical enquiry of manufacturing industries [J]. International Journal of Production Economics, 1995,39 (3): 185–191
    [60] Hopp W J, Spearman M L. Factory Physics [M]. Irwin, Chicago. 1996
    [61] Huang Chunyu, Ma Shihua. Conflict prediction based on calamity grey prediction [J], The Journal of Grey System, 2003,1.
    [62] Huang M G, Chang P L, Chou Y C. Buffer allocation in flow-shop-type production systems with general arrival and service patterns [J]. Computers & Operations Research, 2002, 29(2): 103-121.
    [63] Hult G. T. M., Ketchen D. J., Slater F. S. A longitudinal study of the learning climate and cycle Time in supply chain [J]. The Journal of Business & Industrial Marketing, 2002, 17(4): 302-330.
    [64] Hum S H, Sim H H. Time-based competition: Literature review and implications for modeling [J]. International Journal of Operations & Production Management, 1996, 16(1): 75-90.
    [65] Hum S H. Competition strategies – implications for Singapore managers [J]. Singapore Management Review, 1992,14(2):1-12.
    [66] Hum S. H., Sim H. H. Time-based competition: literature review and implications for modeling [J]. International Journal of Operations & Production Management. 1996, 16(1): 75-90
    [67] Iansiti M., MacCormack A. Developing products on Internet time [J]. Harvard Business Review, 1997, 75(5): 108-117.
    [68] Johns S. L., Hon B. Control mechanisms for stable lead times [J]. International Journal of Production Research, 1993,31(2): 429-441
    [69] Jones J W. High-speed Management: Time-based Strategies for Managers and Organizations [M]. San Francisco: Jossey-Bass, 1993.
    [70] Karmarkar U S., Kekre S., Kekre S. The dynamic lot-sizing problem with startup and reservation costs [J]. Operations Research, 1987, 35(3): 389-398.
    [71] Karmarkar U. Manufacturing lead times, order release and capacity loading[A]. In Graves S, Rinnooy Kan A, Zipkin P. (eds.): Handbooks in Operations Research and Management Science, Vol.4, Logistics of Production and Inventory[M]. Amsterdam: North-Holland, 1993.
    [72] Khim Ling S., Anthony P.C. Time-based competition [J]. International Journal of Quality & Reliability Management, 1999, 16(7): 659-666.
    [73] Kirsner S. Digital competition: Laurie a tucker. URL: http: //www.fastcompany. com/magazine/30/tucker. html. 5 October, 2003.
    [74] Lau R S M., Hurley N M. Creating agile supply chains for competitive advantage [J]. South Dakota Business Review, 2001(1): 3-7.
    [75] Lederer P. J., Li L. Pricing, production, scheduling, and delivery-time competition [J]. Operations research, 1997,45(3): 407-420.
    [76] Lee H L, Billington C. Managing Supply Chain Inventory: Pitfalls and Opportunities [J]. Sloan Management Review, 1992, 33(3): 65-73
    [77] Lee H L, Marguerita M S. Product University and design for supply chain [J]. Production Planning &Control, 1995, 6(3): 270-277.
    [78] Lewis D., Bridger D. The soul of the new consumer [M]. London, 2000
    [79] Li L. The role of inventory in delivery-time competition [J]. Management Science, 1992, 38(2): 182-97.
    [80] Li L., Lee Y. Pricing and delivery-time performance in a competitive environment [J]. Management Science, 1994, 40(5): 633-646.
    [81] Li Yanhui, Ma Shihua. Application of grey situation decision to logistics economic appaisements [J]. The Journal of Grey System, 2003,2.
    [82] Liao C. J., Shyu C. H. An analytical determination of lead time with normal demand [J]. International Journal of operations & production Management, 1991,9:72-78.
    [83] Little J D C. A Proof the queuing formula L=TW [J]. Operations Research, 1961(9): 383-387.
    [84] Lockamy A. A conceptual framework for value-delivery system lead time management [J]. International Journal of Production Research, 1993,31(1):223-233
    [85] Lodree E. Mathematical models for minimizing customer response time in twoechelon supply chain system [D]. University of Missouri-Columbia, 2001.
    [86] Magretta J. Fast, global and entrepreneurial: supply chain management, Hong Kong style-an interview with Victor Fung [J]. Harvard Business Review, 1998,76(5): 102-114
    [87] Marriott S., Harrison R. F. A novel algorithmic approach to the integration of posterior knowledge into condition-monitoring system [J]. International Journal of System Science, 2001,31(9): 1157-1174
    [88] Mason-Jones R., Towill D.R. Total cycle time compression and the agile supply chain [J]. International Journal of Production Economics, 1999, 62(1-2): 61-73.
    [89] Meyer C., Purser P. E. Six Steps to Becoming a Fast-Cycle-Time Competitor [J] Research Technology Management, 1993(Sept./Oct): 41-48.
    [90] Michael S. Faster innovation? Try rapid prototyping [J] Harvard Management Update, 1999, 4(12): 10-11.
    [91] Miltenburg J., Sparling D. Managing and reducing total cycle time: models and analysis [J]. International Journal of production economics, 1996, (46-47): 89-108.
    [92] Mohan R. P. Planned lead times in multistage systems [J]. Decision sciences, 1998,29(1): 163-191.
    [93] Monden Y. Toyota Production System [M]. Industrial Engineering and Management Press, Institute of Industrial Engineers, Norcross, GA. 1983
    [94] Monden Y. Toyota production system: An integrated approach to just-in-time, [M]. Second Edition, Norcross: Industrial Engineering and Management Press, 1993.
    [95] Moon I., Choi S. A note on lead time and distributional assumptions in continuous review inventory models[J]. Computers & Operations Research, 1998,25(11):1007-1012
    [96] Naylor B., Naim M.M., Berry D. Leagality: integrating the lean and agile manufacturing paradigms in the total supply chain [J], International journal of production economics, 1999, 62(1-2): 107-118.
    [97] Ould-Louly M. A., Dolgui A. Generalized newsboy model to compute the optimal planned lead times in assembly systems [J]. International Journal of Production Research, 2002,40(17): 4401-4414.
    [98] Ouyang L, Yeh N. and Wu K. Mixture inventory model with backorders and lost sales for variable lead time[J]. Journal of operation research. Soc., 1996, 47:829-832
    [99] Ouyang L.Y.; Chen C.K., Chang H.C. Quality improvement, setup cost and lead-time reductions in lot size reorder point models with an imperfect production process [J]. Computers and Operations Research, 2002, 29(12): 1701-1717
    [100] Palaka K., Erlebacher S., Kropp D. H. Lead-time setting, capacity utilization, and pricing decisions under lead-time dependent demand [J]. IIE Transactions, 1998,30(2):151-163.
    [101] Pandey P. C., Hasin M. A. A. Lead time adjustment throuth scrap management [J]. Production planning and control, 1998,9(2):138-142
    [102] Parnaby J. Systems engineering for better engineering [J]. IEE Management Journal, 1995, 6(5): 256-266.
    [103] Perea E., Grossmann I., Ydstie E., Tahmassebi T. Dynamic modeling and classical control theory for supply chain management [J]. Computers and Chemical Engineering, 2004,24:1143-1149
    [104] Peter K, Greg A, Robert Burkart, et al. Providing clarity and a common language to the “Fuzzy Front End [J]. Research Technology Management, 2001(March-April): 46-55.
    [105] Peters T. Thriving on Chaos [M]. New York: Excel/A California Limited Partnership, 1987.
    [106] Pine II B J. 著, 操云甫等译. 大规模定制: 企业竞争的新前沿[M]. 北京: 中国人民大学出版社, 2000.
    [107] Piroird F., Dale B. G. The importance of lead time control in the order fulfillment process [J]. Production planning and control, 1998, 9(7): 640-649
    [108] Rao U.S., Swaminathan J.M, Zhang J. Integrated demand and production management in a periodic, make-to-order setting with uniform guaranteed lead time and outsourcing. Working Paper, GSIA, Carnegie Mellon University, Pittsburgh, 2000, September
    [109] Ray S., Jewkes E. M. Customer lead time management when both demand and price are lead time sensitive [J]. European Journal of operational research, 2004,153:769-781.
    [110] Robb D. How companies use technology to stay in control of a virtual supply chain[J]. Information Strategy: the Executive’s Journal, 2003,summer:6-11
    [111] Robert G C. Stage-gate systems: a new tool for managing new products [J].Business Horizons, 1990(May-June): 44-53.
    [112] Rochelle R. NCR’s Self-Service Division Discovers the Value of CTR. URL: http://www.masetllc.com/pdfs/601.pdf, 1999.
    [113] Ryu S. W., Lee K. K.. A stochastic inventory model of dual sourced supply chain with lead-time reduction[J]. International Journal of Production Economics. 2003, 81-82(11): 513-524
    [114] Schmenner R W. Looking ahead by looking back: swift, even flow in the history of manufacturing [J]. Production and Operations Management, 2001,10 (1): 87–96
    [115] Schmenner R.W. The merit of making things fast [J]. Sloan Management Review, 1988,30 (1):11–17
    [116] Schonberger R.J. Japanese Manufacturing Techniques: Nine Hidden Lessons in Simplicity [M]. The Free Press, New York. 1982
    [117] Scot C., Westbrook R. New strategic tools for supply chain management [J]. International Journal of Physical Distribution & Logistics Management, 1991, 21(1):23-33.
    [118] Seferlis P., Giannelos N. F. A two-layered optimization-based control strategy for mutli-echelon supply chain networks [J]. Computers and Chemical Engineering, 2004,28:799-809
    [119] Shanthikumar J G, Sumita U. Approximations for the time spent in a dynamic job shop with applications to due date assignment [J]. International Journal of Production Research, 1988, 26: 1329-1352.
    [120] Sheu C., Wacker J. G., Iowa A. The effects of purchased parts commonality on manufacturing lead time [J]. International Journal of operations and production management, 1997,17(8): 725-745.
    [121] Smith P G. Fast-cycle product development [J]. Engineering Management Journal, 1990(6): 11-16.
    [122] So K. C, Zheng Xiaona. Impact of supplier’s lead time and forecast demand updating on retailer’s order quantity variability in a two-level supply chain [J]. International of production economics, 2003,86:169-179.
    [123] So K. C. Price and time competition for service delivery [J]. Manufacturing & Service operations management, 2000,2(4): 392-409
    [124] So K. C., Song J. S. Price, delivery time guarantees and capacity selection [J].European Journal of operational research, 1998,111:28-49.
    [125] Spearman M. L, Zhang R. Q. Optimal lead time policies [J]. Management science, 1999,45(2): 290-295.
    [126] Stalk G J. Time-the next source of competitive advantage [J]. Harvard Business Review, 1988, 66(4): 41-51.
    [127] Stalk G J. Webber A M. Japan’s dark side of time [J]. Harvard Business Review, 1993, 71(4): 93-102.
    [128] Stalk G J., Hout T M. Competing against time: How time based competition is reshaping global markets [M]. New York: Free Press, 1990.
    [129] Stalk G. Time-the next source of competition advantage [J]. Harvard Business Review, 1988,66 (4): 41-51
    [130] Stratton R., Warburton R D H. The strategic integration of agile and lean supply [J]. International Journal of Production Economics, 2003, 85(2): 183-198.
    [131] Suri R. Common misconceptions and blunders in implementing Quick Response Manufacturing. In: Proceedings of the SME Autofact ’94 Conference, 23 pp. 1994
    [132] Suri R. Quick Response Manufacturing [M]. Productivity Press, Portland, OR. 1998
    [133] Suri R., Diehl G.W W, de Treville S., Tomsicek M.J. From CAN-Q to MPX: evolution of queuing software for manufacturing [J]. Interfaces, 1995,25 (5):128–150
    [134] Swamidass P. M., Majerus C. Statistical control of manufacturing cycle time and project time: lessons from statistical process control [J]. International Journal of production research, 1991,29(3):551-563.
    [135] Swenseth S. R., Park B. K. Jointly determined cycle time models for manufacturers with multiple vendors [J]. Journal of business logistics, 1993,14(2):127-143.
    [136] Tan K C. A framework of supply chain management literature [J]. European Journal of Purchasing & Supply Management, 2001,7(1):39-48.
    [137] Thomas D. J., Griffin P. M. Coordinated supply chain management [J]. European Journal of Operations Research, 1996, 94:1~15
    [138] Thomas P R. Competitiveness through total cycle time [M]. New York: McGraw-Hill, 1990.
    [139] Towill D R. Successful business systems engineering [J]. IEE EngineeringManagement Journal, 1997b, 7(1): 89-96.
    [140] Towill D R. Time compression and supply chain dynamics [M]. London: Sterling Publications Ltd, 1995.
    [141] Towill D.R. The seamless supply chain-the predator’s strategic advantage [J], International Journal of The Techniques of Manufacturing, 1997a, 13 (1): 37-56.
    [142] Treville S., Shapiro R. D., Hamer A. P. From supply chain to demand chain: the role of lead time reduction in improving demand chain performance [J]. Journal of Operations Management, 2004,21:613-627
    [143] Tucker R B. Managing the future: Ten driving forces of change for the ’90s [M]. New York: Putnam, 1991.
    [144] Tyworth J. E., Zeng A. Z. Estimating the Effects of Carrier Transit-time Performance on Logistics Cost and Service [J]. Transportation Research Part A: Policy and Practice, 1998,2(32): 89-97
    [145] Upton D M. Flexibility as process mobility: the management of plant capabilities for quick response manufacturing [J]. Journal of Operations Management, 1995,12: 205–224
    [146] Upton D M. Process range in manufacturing: an empirical study of flexibility [J]. Management Science, 1997,43 (8):1079–1092
    [147] Vandaele N., De Boeck L., Callewier D. An open queueing network for lead time analysis [J]. IIE Transactions, 2002,34(1):1-9.
    [148] Vidal C.J., Goetschalckx M., Strategy production-distribution models: A critical review with emphasis on global supply chain models [J]. European Journal Operational Research, 1997, 98(1):1-18.
    [149] Vinson C E. The cost of ignoring lead-time unreliability in inventory theory [J]. Decision Sciences, 1972(3): 40-43
    [150] Von Braun C F. The acceleration trap [J]. Sloan Management Review, 1990,32(1):49-58.
    [151] Von Braun C F. The acceleration trap in the real world [J]. Sloan Management Review, 1991,32(4):43-52.
    [152] Wacker J. G.. A theoretical Model of manufacturing lead times and their relationship to a manufacturing goal hierarchy [J]. Decision sciences, 1996,27(3):483-517.
    [153] Wang Xubin, Ma Shihua (2002). The model for calamity grey prediction on inventory-demand [J], The Journal of Grey System,No.2.
    [154] Weng Z K. Manufacturing lead times, system utilization rates and lead-time-related demand [J]. European Journal of operational research, 1996,89:259-268.
    [155] Weng Z. K. Strategies for integrating lead time and customer-order decisions [J]. IIE Transactions, 1999,31(2):161-171.
    [156] Willis T H., Jurkus A. F. Product development: An essential ingredient of time-based competition [J]. Review of Business, 2001, 22(1/2): 22-27
    [157] Womack J P., Jones D T. Lean thinking [M]. New York: Simon and Schuster, 1996.
    [158] Womack J., Jones D J., Roos D. The machine that changed the word [M]. New York: Rawson Associates, 1990.
    [159] Wu Kun-shan. A mixed inventory model with variable lead time and random supplier capacity [J]. Production planning&control, 2001,12(4):353-361.
    [160] 3Daycar Research Team. A summary of the 3DayCar Research Program. www.3daycar.com. 2004
    [161] Xiong G., Timo N R, Xiong G.Y. A king of agile supply chain system [C]. 2001 IEEE International Conference on Systems, Man and Cybernetics, 2001(3): 1829-1834.
    [162] Xu Shujun, Ma Shihua. Grey relevancy analysis on Enterprise’s Competition [J]. The Journal of Grey System, 2002,2.
    [163] Yang Wensheng, Ma Shihua, Li Li. Grey situation decision of supplier appraisement [J], The Journal of Grey System, 2004,2.
    [164] Yeh R., Pearlson K., Kozmetsky G.. Zero Time: Providing Instant Customer Value-Every Time, All the Time [M]. John Wiley & Sons, Inc., 2000
    [165] Yusuf Y Y., Gunasekaran A., Adeleye E O., et al. Agile supply chain capabilities: Determinants of competitive objectives [J]. European Journal of Operational Research, 2004, 159(2): 379-392.
    [166] Zipkin P H. Models for design and control of stochastic multi-item batch production systems [J]. Operations Research, 1986, 34(1): 91-104.
    [167] 毕 诸 明 , 朱 岩 , 刘 宗 华 . 供 应 链 的 集 成 监 控 体 系 结 构 [J]. 中 国 机 械 工程,1999,10(5):527-531
    [168] 陈静杰,李伟平,薛劲松,朱云龙.基于知识的供应链决策框架.CIAC’2001:527-532,昆明
    [169] 陈静杰.供应链系统集成模型及优化方法研究[D]. 沈阳:中科院沈阳自动化研究所, 2002.
    [170] 陈荣秋, 周水银.生产运作管理的理论与实践[M]. 北京:中国人民大学出版社, 2002.
    [171] 陈荣秋,马士华.生产与运作管理[M].北京:高等教育出版社,1999
    [172] 戴德宝.新产品开发时间压缩方法研究[D]. 武汉: 华中科技大学, 2003.
    [173] 邓聚龙.灰理论基础[M].武汉:华中科技大学出版社,2002
    [174] 董平.生产企业合同交货期确定及合同排序[J].物流技术与应用,1997,2(2):11-16.
    [175] 郭敏,王红卫.合作型供应链的协调和激励机制研究[J].系统工程, 2002, 20(4): 49~53
    [176] 韩 文 民 .MRPII 系 统 提 前 期 的 模 拟 估 计 法 [J]. 成 组 技 术 与 生 产 现 代化,1998,4:36-39.
    [177] 郝建青,张仲义.实时信息系统需求分析的动态建模方法[J].管理工程学报,2001,15(1):40-43
    [178] 侯开虎 , 胡宗武 . 供应链管理中提前期影响因素分析 [J]. 工业工程与管理,2002,3:13~17
    [179] 华中科技大学 NSFC 课题组.国内汽车行业定制化生产供应链响应时间研究报告[R]. 武汉:华中科技大学管理学院, 2004a
    [180] 华中科技大学 NSFC 课题组. 中国汽车行业供应链响应时间调研报告[R]. 武汉:华中科技大学管理学院, 2004b
    [181] 黄春雨.基于供应链的 LRP 研究[D].武汉: 华中科技大学, 2003
    [182] 黄晏,朱宗乾,黄日安.MRP 系统中生产提前期的动态模型研究[J].西安理工大学学报,1999,15(2):53-58.
    [183] 贾春福,徐长白,徐伟.具有相同加工时间单机调度最优交货期和最优排序的确定[J].南开大学学报(自然科学版),2001,34(1):89-91.
    [184] 贾燕,王润孝,朱焕亮,张吉楠.基于有限状态机的供应链订单处理流程研究[J].工业工程与管理,2003,1:62-65
    [185] 姜大鹏,和炳全.企业动态联盟利润分配模型构建[J].昆明理工大学学报(理工版),2005,30(1):94~96
    [186] 兰继斌,陶培华,陈荣秋.最优 NOP 交货期决策和排序[J].广西大学学报(自然科学版),1998,1:82-86.
    [187] 兰继斌,陶培华,陈荣秋.最优公共交货期决策与排序[J].广西大学学报(自然科学版),1996,21(4):356-359.
    [188] 蓝伯雄, 郑晓娜, 徐心. 电子商务时代的供应链管理[J]. 中国管理科学, 2000, 8(3): 1-7.
    [189] 雷为民,于东,李本忍,腾弘飞.机床控制流程的一种有限状态机表达方法[J].信息与控制,2000,29(1):47-54
    [190] 李华,李益强,徐国华.供应链配送中的提前期模型研究[J].管理工程学报,2004,18(3):112-114.
    [191] 李 柯 . 论 并 行 工 程 在 企 业 产 品 开 发 中 的 应 用 [J]. 建 筑 机 械 技 术 与 管理,2001(5):38~39
    [192] 李延辉.基于供应链多阶响应周期的配送中心选址模型[D]. 武汉: 华中科技大学, 2004.
    [193] 林旭东,朱顺泉.供应链企业收益分配的博弈模型研究[J].价值工程,2004, 3:29~31
    [194] 刘炳杰,卢向南.单台机器调度的交货期确定及任务排序的优化方法[J].南昌大学学报(理科版),1996,20(2):142-147.
    [195] 鲁其辉, 朱道立, 林正华.带有快速反应策略供应链系统的补偿策略研究[J]. 管理科学学报, 2004, 7(4): 14-23.
    [196] 罗定提,仲伟俊,梁美华.合作定价对装配式供应链运作效益影响的研究[J].系统工程学报, 2002,17(4):374~378
    [197] 马士华, 林勇, 陈志祥. 供应链管理[M]. 北京: 机械工业出版社, 2000.
    [198] 马士华,杨文胜,李莉.基于二层规划的供应链多阶响应周期决策模型[J], 管理科学学报, 2005, 7(5): 31-39
    [199] 祁玉龙,胡鹏,贾德福.基于供应链承包商收益分配模式研究[J].西安工业学院学报,2003,23(4):370~372
    [200] 齐 源 . 供 应 链 管 理 中 信 息 共 享 的 信 息 经 济 学 研 究 . http://www.lixin.edu.cn/gsgl/lunwen-jiyuan.htm, 2005-8-1
    [201] 索寒生,金以慧.回购策略下供需链协调性分析[J].清华大学学报(自然科学版),2003,43(9):1245~1248
    [202] 唐宏祥,何建敏,刘春林.一类供应链的线性转移支付激励机制研究[J].中国管理科学,2003,11(6):29~34
    [203] 王 慧 娟 , 何 建 敏 . 动 态 联 盟 收 益 分 配 问 题 的 博 弈 分 析 [J]. 现 代 管 理 科学,2004,(7):23~24
    [204] 王莉,孔力,程晶晶.蒸汽锅炉安全联锁系统的建模及校验[J].微计算机信息(测控自动化),2005,21(1):31-40
    [205] 王树明,夏国平,肖依勇. 受资金约束最优提前期的确定方法[J].系统工程理论方法应用,2001,10(2):172-176.
    [206] 王许斌. 伙伴合作关系对供应链多阶响应周期的作用研究[D]. 武汉:华中科技大学管理学院, 2003.
    [207] 王颖,杭言勇,张惠东. 准时生产制(JIT)与抢时竞争时间竞争(TBC)[J]. 技术经济与管理研究, 2000(4): 43-44.
    [208] 魏修建.供应链利益分配研究-资源与贡献率的分配思路与框架[J].南开管理评论,2005,8(2):78~83
    [209] 吴爱华,王平,徐峰.MRPII 系统中生产提前期的柔性化研究[J].成组技术与生产现代化,1998,2:35-38.
    [210] 吴靖,曾建潮,孙国基.化工过程仿真培训系统的单元过程多模型集成[J].计算机仿真,1998,15(4):13-16
    [211] 吴育华,赵强,王初.基于多人合作理论的供应链库存利益分配机制研究[J].中国管理科学, 2002,10(6):44~47
    [212] 吴忠,李明.ERP/MRPII 系统动态提前期的研究[J].商业研究,2003,20:20-22.
    [213] 谢立伯.时间创造竞争优势[J]. 江苏统计, 2001(3): 41-42.
    [214] 谢增团 , 王耕耘 . 并行工程及其关键技术 [J].CAD/CAM 与制造业信息化,2002(12):8~10
    [215] 徐学军,顾培亮.MRPII 系统中提前期的估计方法[J].中国机械工程学会第五次工业工程学术会议论文集,1997.
    [216] 徐 英 田 , 张 士 廉 . 过 程 企 业 供 应 链 管 理 监 控 系 统 的 研 究 [J]. 基 础 自 动化,2001,8(4):12-14
    [217] 许永龙,李龙洙.供应链系统整体效益最优批量模型的研究[J].中国软科学,2003,4:146~148
    [218] 杨宏为,宋伟,都威.浅析竞争中的时间要素[J]. 四川大学学报(哲学社会科学版), 2001(6): 29-33.
    [219] 杨云,王凤洲.并行工程在企业管理中的应用[J].统计与决策,1997(8):45~46
    [220] 叶怀珍 , 胡异杰 . 供应链中合作伙伴收益原则研究 [J]. 西南交通大学学报,2004,39(1):30~33
    [221] 袁嘉祖.灰色系统理论及其应用[M].北京:科学出版社,1991
    [222] 曾宪文. 时间竞争与缩短配送的订货周期策略研究[D], 上海: 复旦大学, 1999.
    [223] 翟丽.新产品开发的时间战略[J]. 中国软科学, 2001(3): 71-75.
    [224] 张毕西 , 周艳 , 赵伟 . 订货生产式企业任务交货期决策研究 [J]. 工业工程,2004,7(1):26-28.
    [225] 张炳轩,李龙洙,都忠诚.供应链的风险及分配模型[J].数量经济技术经济研究,2001,(9):92~95
    [226] 张维迎.博弈论与信息经济学[M].上海三联书店,1996:上海
    [227] 张晓灵 . 基于时间的房地产新竞争 [R]. 上海房地产市场报告 , 2002. URL:http://www.drcnet.com.cn/html_document/guoyan/drcindex1/2002-04-01/D4166A7E5E4E305F48256B8E00082B37.asp.
    [228] 张榆.供应链管理中财务监控的特点分析[J].上海会计,2002,11:31-32
    [229] 章渭基,秦士嘉,韩之俊,冯祥源.质量控制[M].科学出版社:北京,1988
    [230] 郑绍濂, 翟丽. 新产品开发的最优战略均衡模型[J]. 管理科学学报, 1998, 1(3):12-19.
    [231] 钟德强,仲伟俊.基于获取决策优先权的零售商战略联盟效益分析[J].中国管理科学,2004,12(1):57~63
    [232] 周晓, 马士华, 黄春雨. 缩短供应链多阶响应周期的物流模式研究[J]. 南开管理评论, 2002, 5: 62-65.
    [233] 朱帮助,袁旭,孙希刚.基于贡献的虚拟物流企业收益分配[J].桂林电子工业学院学报,2004,24(3):71~74
    [234] 朱学俊,段成华.海运物流自动订舱系统的 EFSM 建模与实现[J].计算机应用,2003,23(1):66-69

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