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基于Plant Simulation的冲压车间仿真优化
英文标题:Simulation optimization on stamping workshop based on Plant Simulation
作者:方赫 陆振东 宿彪 孙兴武 
单位:机械工业第九设计研究院有限公司 北京迪基透科技有限公司 
关键词:冲压车间 Plant Simulation 物流仿真 存储面积 物流设备 
分类号:TP393
出版年,卷(期):页码:2020,45(12):85-89
摘要:

以国内某先进乘用车工厂的冲压车间为背景,针对该车间生产物流流程,利用西门子Plant Simulation软件进行仿真模拟,得出在给定生产计划前提下的最佳物流转运设备台数与冲压线线尾装箱工人数量等数据,并分析了该冲压生产线的极限产能情况,同时,验证了规划毛坯库与冲压件库面积可满足车间的正常生产需求。仿真结果表明:该条冲压线极限产能最大可达年产15万辆整车的生产纲领,此时的生产负荷率为90%左右;冲压线线尾装箱工人数量在6~8名最为合适;冲压线线尾转运叉车数量在3~5台为宜;毛坯库面积约为900 m2,可满足生产需求,每种毛坯最大可按3层或4层分层存储;冲压件库面积约为4100 m2,可满足焊装车间的生产需求,此时冲压件库可存储1个批次的生产计划量。将本次仿真结果应用于车间实际生产,为车间管理方面遇到的诸如工人数量、存储面积、物流设备台数规划等方面的问题提供了切实可行的解决方案。
 

For the stamping workshop of a domestic advanced passenger car factory, the production logistics process of the workshop was simulated by software Plant Simulation of Siemens, and the number of optimal logistics transfer equipment and the number of packing workers at the end of stamping production line under the premise of a given production plan were obtained. Then, the maximum production capacity of the stamping line was analyzed, and the planned warehouse areas of blank and stamping part were verified to meet the normal production requirements of the workshop. The simulation results show that the maximum production capacity of this stamping line reaches 150000 vehicles per year, at this time the stamping line load rate is about 90%, the number of packing workers at the end of stamping line is most suitable for 6-8, the number of transfer forklifts at the end of stamping line is preferably 3-5, the area of blank warehouse is about 900 m2 to meet the production needs, each kind of blank is stored in three or four layers at most, the area of stamping part warehouse is about 4100 m2 to meet the production needs of the welding workshop, at this time the production plan of one batch is stored in the stamping part warehouse. The simulation results are used to guide the actual production of the workshop and provide practical solutions for the problems such as the number of workers, the storage area and the number of logistics equipment in workshop management.

基金项目:
中国第一汽车股份有限公司制造技术创新项目 (KJ_2019_2_001-19002401)
作者简介:
方赫(1988-),男,硕士,工程师 E-mail:fanghe@cjxjycom
参考文献:


[1]孙智超, 高长水.基于Plant Simulation的汽车生产线仿真技术研究
[J].机械制造与自动化,2014,43(6):161-165.


Sun Z C, Gao C S.Simulation technology of automobile production line based on Plant Simulation
[J]. Machine Building & Automation,2014,43(6):161-165.



[2]黄丰, 莫易敏.整车制造厂冲压车间生产计划的仿真研究
[J].武汉理工大学学报,2010,32(10):133-135.


Huang F, Mo Y M. Simulation of press shop production plan in small car factory
[J]. Journal of Wuhan University of Technology,2010,32(10):133-135.



[3]马焕雯. 汽车制造冲压车间生产计划与生产调度的研究
[D].武汉:武汉理工大学,2013.


Ma H W. Research on Product Planning and Scheduling of Automobile Manufacturing Press Shop
[D]. Wuhan: Wuhan University of Technology,2013.



[4]秦鹏, 方赫,杜庆辉,等.冲压车间数字化规划技术应用探索
[J].锻造与冲压,2020,(14):18-21.


Qin P, Fang H, Du Q H, et al. Exploration on the application of digital planning technology in press shop
[J]. Forging & Metalforming, 2020,(14):18-21.



[5]郑楠, 岳磊.基于Plant Simulation的智能制造测试床仿真模型设计与应用
[J].工程设计学报,2019,26(5):552-560.


Zheng N, Yue L. Design and application of simulation model of intelligent manufacturing test bed based on Plant Simulation
[J]. Chinese Journal of Engineering Design, 2019, 26(5):552-560.



[6]蔡军. SGMW冲压生产线生产平衡研究
[D].南京:南京理工大学,2010.


Cai J. Research on Product Balance of SGMW Stamping Line
[D]. Nanjing: Nanjing University of Science & Technology,2010.



[7]曾益. 基于eMPlant的物流配送系统仿真的实现
[J].中国水运:学术版,2007,(9):141-142.


Zeng Y. Realization of logistics distribution system simulation based on eMPlant
[J]. China Water Transport:Academic Version, 2007,(9):141-142.



[8]陈香莲, 胡惟璇.基于eMPlant的物流配送系统仿真
[J].物流工程与管理,2015,37(6):93-94.


Chen X L, Hu W X. Simulation of logistics distribution system based on eMPlant
[J]. Logistics Engineering and Management,2015,37(6):93-94.



[9]陆振东, 方赫,孙兴武,等.集成的现代冲压综合技术探究
[J].锻造与冲压,2020,(2):23-26.


Lu Z D, Fang H, Sun X W, et al. Research on integrated modern stamping comprehensive technology
[J]. Forging & Metalforming, 2020,(2):23-26.



[10]张智, 李雨繁,徐双霞.基于Plant Simulation的产品生产线布局仿真研究
[J].计算机与网络,2019,45(7):68-70.


Zhang Z, Li Y F, Xu S X. Research on product production line layout simulation based on Plant Simulation
[J]. Computer & Network, 2019, 45(7):68-70.



[11]王跃光. 一汽-大众青岛工厂生产线仿真与优化研究
[D].长春:吉林大学,2018.


Wang Y G. Research on Production Line Simulation and Optimization in Qingdao Plant of FAWVW Automotive Co., Ltd.
[D]. Changchun: Jilin University, 2018.



[12]孙兴武, 方赫,符永杰,等.浅谈智能冲压车间系统构成
[J].锻造与冲压,2020,(14):22-24.


Sun X W, Fang H, Fu Y J, et al. Composition of intelligent stamping workshop system
[J]. Forging & Metalforming, 2020,(14):22-24.

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