路段行程时间估计的浮动车数据挖掘方法

李慧兵; 杨晓光; 罗莉华

路段行程时间估计的浮动车数据挖掘方法

1.
上海海事大学交通运输学院, 上海 201306
2.
同济大学交通运输工程学院, 上海 201804

基金项目:

国家自然科学基金项目 61304203

上海市科研计划项目 12ZR1444800

详细信息

作者简介:
李慧兵(1983-), 男, 山西吕梁人, 上海海事大学讲师, 工学博士, 从事智能交通系统研究

中图分类号: U491.1
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- 被引次数: 0
出版历程
- 收稿日期: 2014-06-28
- 刊出日期: 2014-12-25

Mining method of floating car data based on link travel time estimation

1.
School of Transport and Communications, Shanghai Maritime University, Shanghai 201306, China
2.
School of Transportation Engineering, Tongji University, Shanghai 201804, China

More Information

Author Bio:
LI Hui-bing (1983-), male, lecturer, PhD, +86-21-38282347, hbli@shmtu.edu.cn

摘要

摘要: 基于浮动车数据, 提出一种信号配时信息缺失下的路段行程时间估计方法, 由交叉口范围动态划分、路段影响范围划分、浮动车数据提取与路段行程时间估计4个模块组成, 每个模块的实现均需借助于前一模块的输出。根据交叉口信号控制下的车辆行驶状态, 在交叉口范围动态划分与路段影响范围划分2个模块中, 利用密度法将单元路段划分为不同区域。根据路段行程时间估计原理, 利用浮动车数据提取模块过滤掉受信号控制影响较大的浮动车数据, 提取路段行程时间估计的目标数据。利用路段行程时间估计模块挖掘历史浮动车数据, 根据浮动车目标数据点存在区域的不同, 将浮动车数据分为3类, 并对不同类型数据采取相应的断面通过时刻估计方法, 建立基于不同数据条件下的行程时间估计模型。利用VISSIM软件对路段行程时间估计方法进行仿真验证, 并与直接法和间接法进行对比分析。分析结果表明: 对于粗粒度浮动车数据, 路段行程时间估计方法的平均绝对误差和平均相对误差分别为12 s和8.67%, 优于传统的直接法与间接法。
- 智能交通系统 /
- 路段行程时间估计 /
- 浮动车数据 /
- 信号配时 /
- 粗粒度数据
Abstract: Based on floating car data, a link travel time estimation method without signal timing data was proposed.The method consisted of four modules, which were intersection boundary dynamic partition module, link influence range partition module, floating car data extraction module, and link travel time estimation module, and the implementation of each module relied greatly on the output of previous one.According to vehicle travel state under the influence of signal control, link unit was divided into different segments by using density method in intersection boundary dynamic partition module and link influence range partition module.According to link travel time estimation mechanism, floating car data that were seriously affected by signal control were filtered off in floating car data extraction module, so the target floating car data could be obtained.Historical floating car data were excavated in link travel time estimation module, and floating car data were divided into 3 types according to different exsited regions of target data.Corresponding section travel time estimation methods were used for different types of data, and corresponding section travel time estimation models were established.Link travel time estimation method was simulated and verified by using software VISSIM, and its result was compared with the results of direct and indirect methods.Analysis result indicates that for coarse-grained floating car data, the average absolute error and average relative error of link travel time estimation method are 12 sand 8.67% respectively, so it performs better than traditional direct and indirect methods.
- intelligent transportation system /
- link travel time estimation /
- floating car data /
- signal timing /
- coarse-grained data

HTML全文

图 1 子状态1的路段划分

Figure 1. Link division of sub-state 1

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图 2 子状态2的路段划分

Figure 2. Link division of sub-state 1

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图 3 子状态3的路段划分

Figure 3. Link division of sub-state 3

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图 4 子状态4的路段划分

Figure 4. Link division of sub-state 4

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图 5 子状态5的路段划分

Figure 5. Link division of sub-state 5

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图 6 子状态6的路段划分

Figure 6. Link division of sub-state 6

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图 7 子状态7的路段划分

Figure 7. Link division of sub-state 7

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图 8 子状态8的路段划分

Figure 8. Link division of sub-state 8

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图 9 平均最大排队长度

Figure 9. Average maximum queuing lengths

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图 10 单元路段

Figure 10. Link unit

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图 11 交叉口间的区段划分

Figure 11. Segment division between two intersections

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图 12 路段影响范围划分

Figure 12. Division of link influence scope

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图 13 数据类型1

Figure 13. Data type 1

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图 14 数据类型2

Figure 14. Data type 2

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图 15 数据类型3

Figure 15. Data type 3

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图 16 排队区域的区段划分

Figure 16. Segment division of queuing region

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图 17 畅通区域的区段划分

Figure 17. Segment division of unblocked region

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图 18 情景1

Figure 18. Scenario 1

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图 19 情景2

Figure 19. Scenario 2

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图 20 情景3

Figure 20. Scenario 3

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图 21 绝对误差比较

Figure 21. Comparison of absolute errors

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图 22 相对误差比较

Figure 22. Comparison of relative errors

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表 1 子状态属性

Table 1. Sub-state properties

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表 2 目标交叉口的信息配时方案

Table 2. Signal timing plan of target intersection

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表 3 路段行程时间

Table 3. Link travel times s

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