基于模拟退火的地下物流通道网络设计
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  • 英文篇名:Network Design of Underground Logistics Channel Based on Simulated Annealing
  • 作者:刘川昆 ; 陈铭颢 ; 王芷芸 ; 鹿腾 ; 孙畅
  • 英文作者:LIU Chuan-kun;CHEN Ming-hao;WANG Zhi-yun;LU Teng;SUN Chang;School of Civil Engineering,Southwest Jiaotong University;School of Information Science and Technology,Southwest Jiaotong University;
  • 关键词:物流工程 ; 网络通道 ; 线性规划 ; 地下物流 ; 模拟退火 ; 交通拥堵系数
  • 英文关键词:logistics engineering;;network channel;;linear programming;;underground logistics;;simulated annealing;;traffic jam coefficient
  • 中文刊名:GLJK
  • 英文刊名:Journal of Highway and Transportation Research and Development
  • 机构:西南交通大学土木工程学院;西南交通大学信息科学与技术学院;
  • 出版日期:2019-06-15
  • 出版单位:公路交通科技
  • 年:2019
  • 期:v.36;No.294
  • 基金:国家级大学生创新创业训练计划(201810613041)
  • 语种:中文;
  • 页:GLJK201906019
  • 页数:8
  • CN:06
  • ISSN:11-2279/U
  • 分类号:155-162
摘要
为研究网络通道在地下物流系统中的优化设计,以国内某地区物流概况为研究背景,结合国内外地下物流系统研究成果,考虑路径优化与运输成本,建立以总成本最小为优化目标的线性规划模型,并通过模拟退火算法进行优化求解,研究结果表明:基于模拟退火算法得到该地区地下物流网络通道设计全局最优解,地下物流通道及节点的建设成本为466.16亿元,货物运输成本为3.91亿元/年,按照年综合折旧率1%进行计算,地下物流网络总成本为8.57亿元/年;从物流园区运送出的货物通过地下物流通道运输的量较大,物流园区与一级节点之间的通道设计要求更高,其通道设计为双向四轨(10 t)或双向双轨(10 t),其余通道设计均为双向四轨(5 t)或双向双轨(5 t);所有物流园区对各需求点的总货运量表现出明显的波动性,各物流园区对所有需求点的总货运量偏差不大,对各个需求点的货运量均在一定范围内波动;各个服务节点对各个需求点的货运量各不相同,但大部分需求点的货物运输均来自于单一服务节点,且遵循就近原则,即每个物流需求点会尽可能从最近的服务节点获取物流;通过将部分货运量转至地下物流通道,各区域需求点交通拥堵系数降到4.0及以下,交通拥堵等级由轻度拥堵或中度拥堵下降到基本畅通。
        To study the optimal design of network channel in underground logistics system,taking a local overall logistics as the engineering background,combining with the research results of underground logistics system at home and abroad,considering the route optimization and transport cost,a linear programming model with the minimum total cost as the optimization objective is established,and the model is solved by simulated annealing algorithm. The research result shows that:(1) the global optimal solution of underground logistics network channel design in this area is obtained based on simulated annealing algorithm. The construction cost of underground logistics channel and its nodes is 46.616 billion yuan,and the freight transport cost is 391 million yuan per year. The total cost of underground logistics network is 857 million yuan per year according to the annual comprehensive depreciation rate of 1%.(2) Because of the large quantity of goods delivered from the logistics park and transported by the underground logistics channel,the demand of the channel design between the first level nodes and the logistics park will be higher. Its channel design is 2-way 4-track(10 t) or 2-way 2-track(10 t),and another channel designs are 2-way 4-track(5 t) or 2-way 2-track(5 t).(3) All the logistics parks show significant fluctuations in total freight volume at each demand point. There is a little deviation among the total freight volumes of all demand points in different logistics parks,and the freight volume of each demand point fluctuates in a certain range.(4) The freight volume of each service node to each demand point is different,but the freights transported from most demand points come from a single service node,and follows the principle of proximity,that is,each logistics demand point will obtain logistics from the service node as near as possible.(5) Transferring part of the freight volume with underground logistics channel,the traffic jam coefficient of each regional demand point is reduced to 4 and less,the level of traffic jam is reduced from mild jam or moderate jam to basic unblocked.
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