Review of multimodal transport research based on bibliometrics
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摘要: 为全面了解综合交通领域的研究进展，本文采用文献计量方法，系统检索了1990~2024年间在WOS核心数据库和中国知网(CNKI)数据库中收录的相关文献，共计32 111篇，涉及2 244位作者和1 422个关键词；通过科学知识图谱对文献分布、发文国家、研究机构及作者进行了系统分析和可视化呈现，并通过分析关键词共现图谱和聚类图谱揭示了该领域的研究热点；结合突现词分析，预测了未来研究方向。研究结果表明：综合交通研究经历了缓慢增长、平稳增长和快速增长3个阶段，研究热点集中在综合交通系统分析、规划与设计、运行及物流等方面，分别包括综合交通系统的供需关系、网络模型、出行行为与土地利用的关系，综合交通网络布局优化、区域连接性与互通性提升，多交通方式的无缝衔接和高效运作，物流网络、运输路径优化及货物流动效率提升等领域；目前，国内外研究重点高度重合，但仍存差异，国内学者更关注综合交通的战略发展、结构优化、综合规划及国家急需场景研究，而国际研究则侧重于多模式交通理论及新兴技术应用。未来，随着人工智能、大数据、区块链、数字孪生等技术的发展，综合交通研究将朝着更加综合化、立体化、数字化、网联化、共享化、低碳化的方向发展，以实现交通时空资源与能源、算力的高效利用，跨行业、跨领域、跨部门、跨层级的合作与协同将成为推动综合交通研究持续发展的关键，促进资源整合与优化，建设高效、智慧、安全和环保的综合交通体系。Abstract: To comprehensively understand the research progress in the field of multimodal transport, bibliometric methods was adopted to systematically retrieved relevant literature from the WOS core database and the China National Knowledge Infrastructure (CNKI) database from 1990 to 2024, totaling 32111 articles, involving 2 244 authors and 1 422 keywords. Through scientific knowledge mapping, the distribution of literatures, publishing countries, research institutions, and authors were systematically analyzed and visualized. Keyword co-occurrence maps and clustering maps were used to reveal the research hotspots in this field. Emergent term analysis was conducted to predict future research directions. Research results show that multimodal transport research has gone through three stages: slow growth, steady growth, and rapid growth. The hotspots are concentrated in the analysis, planning and design, operation, and logistics of multimodal transport systems. Specifically, these include: the supply-demand relationship of multimodal transport systems, network models, the relationship between travel behavior and land use, multimodal transport network layout optimization, regional connectivity and interoperability improvement, seamless connection and efficient operation of multiple transport modes, and logistics network, transportation path optimization, and freight flow efficiency improvement. Currently, the research focuses of domestic and international scholars are highly overlapping but still differ. Domestic scholars focus more on the strategic development, structural optimization, comprehensive planning, and national urgent scenario research of multimodal transport. In contrast, international research focuses more on multimodal transport theory and the application of emerging technologies. In the future, with the development of artificial intelligence, big data, blockchain, and digital twins, multimodal transport research will move towards more integrated, three-dimensional, digital, networked, shared, and low-carbon, to achieve efficient utilization of transport spatiotemporal resources, energy, and computing power. Cross-industry, cross-field, cross-department, and cross-level collaboration and coordination will become key to driving the continuous development of multimodal transport research. This will promote resource integration and optimization, helping to build an efficient, intelligent, safe, and environmentally friendly multimodal transport system.
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图 3 1990~2024年国际综合交通发文国家合作关系网络
Figure 3. International collaboration network of countries in multimodal transport publications from 1990 to 2024
图 5 综合交通领域研究机构知识图谱
Figure 5. Maps of knowledge of research institutions for multimodal transport field
图 6 综合交通领域发文作者知识图谱
Figure 6. Map of knowledge of authors for multimodal transport field
图 7 综合交通研究关键词共现图谱
Figure 7. Map of knowledge of keywords co-occurrence for multimodal transport research
图 8 国内外综合交通研究差异分析
Figure 8. Analysis of differences in multimodal transport research between China and abroad
图 9 综合交通研究关键词聚类图谱
Figure 9. Map of knowledge of keyword clustering of multimodal transport research
图 10 综合交通研究突现词图谱
Figure 10. Map of knowledge of emergent terms of multimodal transport research
表 1 1990~2024年国内外综合交通文献发文量前10期刊
Table 1. Top 10 journals of multimodal transport literature in China and abroad from 1990 to 2024
序号 国内 国际 期刊 篇数 期刊 篇数 1 《综合运输》 490 Transportation Research Record 1 245 2 《交通与运输》 229 IEEE Transactions on Intelligent Transportation Systems 719 3 《城市交通》 229 Transportation Research Part A: Policy and Practice 451 4 《交通运输系统工程与信息》 226 Transportation Research Part C: Emerging Technologies 350 5 《中国公路》 189 Transportation Research Part D: Transport and Environment 339 6 《交通企业管理》 139 Transportation Research Procedia 332 7 《城市道桥与防洪》 132 Journal of Advanced Transportation 255 8 《城市轨道交通研究》 114 Transportation Research Part E: Logistics and Transportation Review 235 9 《交通与港航》 105 Transport Policy 211 10 《交通建设与管理》 104 Journal of Transport Geography 206 
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表 2 1990~2024年国内综合交通被引频次前10的文献
Table 2. Top 10 cited Chinese literatures of multimodal transport from 1990 to 2024
序号 题目 第一作者 期刊 年份 被引频次 1 《中国交通工程学术研究综述·2016》 《中国公路学报》编辑部 《中国公路学报》 2016 609 2 《面向低碳的城市空间结构——城市交通与土地使用的新模式》 潘海啸 《城市发展研究》 2010 317 3 《城市绿色交通的实现途径》 陆化普 《城市交通》 2009 313 4 《国外典型综合交通枢纽布局设计实例剖析》 邱丽丽 《城市轨道交通研究》 2006 275 5 《开放条件下长江三角洲区域的综合交通可达性空间格局》 吴威 《地理研究》 2007 274 6 《中国智能交通系统发展战略研究》 王笑京 《交通运输系统工程与信息》 2006 238 7 《一种多式联运网络的最优分配模式研究》 张建勇 《铁道学报》 2002 220 8 《县域综合交通可达性测度及其与经济发展水平的关系——对湖北省79个县域的定量分析》 刘传明 《地理研究》 2011 219 9 《一种多式联运网络运输方式的组合优化模式》 王涛 《中国工程科学》 2005 213 10 《综合交通枢纽布局规划模型与方法研究》 袁虹 《公路交通科技》 2001 202
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表 3 1990~2024年国外综合交通被引频次前10的文献
Table 3. Top 10 cited foreign literatures of multimodal transport from 1990 to 2024
序号 题目 第一作者 期刊 年份 被引频次 1 A review of dynamic vehicle routing problems PILLAC V European Journal of Operational Research 2013 746 2 Multimodal freight transportation planning: a literature review STEADIESEIFI M European Journal of Operational Research 2014 394 3 Stochastic measures of network resilience: applications to waterway commodity flows BAROUD H Risk Analysis 2014 105 4 Congestion induced by the structure of multiplex networks SOLÉ-RIBALTA A Physical Review Letters 2016 103 5 On the distribution of urban road space for multimodal congested networks ZHENG N Transportation Research Part B: Methodological 2013 97 6 Location-routing problem in multimodal transportation network with time windows and fuzzy demands: presenting a two-part genetic algorithm FAZAYELI S Computers & Industrial Engineering 2018 90 7 Improving the sustainability of integrated transportation system with bike-sharing: a spatial agent-based approach LU M Sustainable Cities and Society 2018 82 8 Optimizing the spatio-temporal deployment of battery electric bus system WEI R Journal of Transport Geography 2018 71 9 Integrating multimodal transport into cellulosic biofuel supply chain design under feedstock seasonality with a case study based on California XIE F Bioresource Technology 2014 70 10 A framework to integrate mode choice in the design of mobility-on-demand systems LIU Y Transportation Research Part C: Emerging Technologies 2019 65
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表 4 1990至2024年国际综合交通发文前10国家
Table 4. Top 10 countries in international publications on multimodal transport from 1990 to 2024
序号 国家 篇数 频率前5位的关键词 1 USA 3 009 autonomous driving，electric vehicles，rail transportation，neural network，mathematical models 2 China 2 868 connected vehicles，machine learning，automated highways，air pollution，regression 3 Germany 718 sustainable transport，intermodal transport，road safety，energy consumption，logistics 4 England 702 equity，shared mobility，climate change，health，simulation 5 Canada 578 car ownership，fuel consumption，uber，artificial intelligence，emissions 6 Australia 523 urban form，GIS，PM2.5，life cycle assessment，greenhouse gas emissions 7 Italy 492 road safety，freight transport，genetic algorithm，hybrid systems，air pollution 8 Netherlands 435 social network，shared mobility，active noise control，route choice，integration 9 France 331 logistics，air traffic control，delivery problem，vehicle ownership，sustainable development 10 India 298 infrastructure，reliability，life cycle assessment，acceptance，deep learning
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表 5 国内外综合交通出现频率排名前10的研究机构
Table 5. Top 10 research institutions in frequency of multimodal transport in China and abroad
序号 国内 国际 研究机构 频次 研究机构 频次 1 北京交通大学 230 Beijing Jiaotong University 327 2 同济大学 195 University of California 251 3 西南交通大学 130 Delft University of Technology 215 4 上海市政工程设计研究院 82 Tongji University 209 5 中国交通部科学研究院 82 Florida State University 195 6 上海市城市综合交通规划研究所 78 Southeast University 185 7 长安大学 77 Hong Kong Polytechnic University 139 8 中铁第四勘察设计院集团有限公司 73 University of Texas System 134 9 东南大学 73 Tsinghua University 124 10 国家发展和改革委员会综合运输研究所 71 Chinese Academy of Sciences 124
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表 6 国内外综合交通出现频次和中心性排名前50的关键词
Table 6. Top 50 keywords in frequency and centrality of multimodal transport in China and abroad
序号 国内 国际 关键词 频次 中心性 首次出现年份 关键词 频次 中心性 首次出现年份 1 综合交通 424 0.42 1997 public transport 545 0.03 2004 2 交通规划 207 0.17 1999 optimization 467 0.01 2010 3 交通枢纽 191 0.16 2002 design 401 0.01 2000 4 交通运输 175 0.12 2004 transportation 384 0.01 2000 5 城市交通 126 0.09 1999 demand 379 0.02 2002 6 轨道交通 109 0.09 2004 systems 367 0.01 2008 7 一体化 75 0.04 2002 travel 336 0.01 2004 8 综合运输 61 0.05 1994 land use 303 0.04 2000 9 交通强国 60 0.03 2018 mobility 293 0.01 2016 10 城市群 53 0.02 2001 choice 282 0.02 1998 11 多式联运 51 0.02 2011 built environment 282 0.02 2012 12 大数据 49 0.02 2015 city 274 0.02 2002 13 铁路 49 0.03 2006 travel behavior 265 0.03 2017 14 公共交通 49 0.02 2003 network 252 0.01 2005 15 绿色交通 47 0.02 2006 policy 238 0.01 2004 16 交通组织 46 0.02 2004 intelligent transportation systems 232 0.02 1998 17 交通工程 43 0.03 2005 accessibility 225 0.01 2008 18 区域经济 38 0.01 2010 public transportation 206 0.02 2013 19 智能交通 37 0.03 2009 mode choice 193 0.01 2014 20 站城融合 35 0.02 2018 transit 179 0.01 2014 21 高速铁路 33 0.04 1994 electric vehicles 178 0.02 2013 22 地下空间 29 0.02 2011 emissions 165 0.00 2014 23 枢纽经济 28 0.01 2018 location 157 0.01 2008 24 发展策略 27 0.01 2011 physical activity 136 0.01 2014 25 智慧交通 26 0.00 2018 infrastructure 124 0.01 2013 26 换乘 25 0.01 2007 services 120 0.01 2014 27 区域交通 24 0.02 2001 public transit 116 0.01 2014 28 规划设计 22 0.00 2006 urban 113 0.01 1999 29 交通政策 22 0.00 2001 travel time 98 0.01 2013 30 协调发展 22 0.01 2006 big data 100 0.01 2016 31 城市规划 21 0.01 2006 logistics 100 0.01 2014 32 可达性 20 0.00 2012 predictive models 96 0.01 2020 33 规划布局 20 0.00 2012 bicycle 95 0.01 2014 34 都市圈 20 0.01 2014 energy 92 0.01 2002 35 基础设施 18 0.01 2010 climate change 91 0.01 2010 36 上海 18 0.02 2005 preference 89 0.01 2017 37 信息化 18 0.00 2006 sustainable mobility 88 0.01 2016 38 一带一路 18 0.00 2015 cost 81 0.01 2008 39 机场 17 0.01 2009 network design 83 0.01 2014 40 综合开发 17 0.00 2013 vehicle routing problem 82 0.01 2014 41 交通网络 17 0.01 2004 freight transport 80 0.02 1997 42 碳排放 15 0.01 2012 operations 71 0.01 2014 43 京津冀 14 0.00 2007 supply chain 62 0.01 2010 44 功能定位 13 0.02 2010 city logistics 59 0.02 2009 45 空间格局 13 0.00 2011 rail transportation 57 0.00 2017 46 交通需求 13 0.00 2007 allocation 55 0.02 2016 47 公交优先 13 0.01 2007 travel demand 50 0.01 2010 48 城镇化 12 0.01 2013 multimodal transport 50 0.01 2014 49 铁路枢纽 11 0.00 2008 shared mobility 54 0.00 2020 50 出行方式 10 0.00 2018 route choice 32 0.01 2014
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表 7 综合交通领域关键词聚类分析结果
Table 7. Results of keyword clustering analysis in multimodal transport field
人工分类 子聚类编号 频率前5位的关键词 Ⅰ综合交通分析 国内-#0交通网络 网络规划，出行方式，空间分析，布局优化，评估 国内-#6城市交通 需求分析，交通供需，土地，大数据，出行效率 国际-#0 network design network, transportation networks, network design problem, location. resilience 国际-#1 travel behavior behaviors, choice model, attributes, commute, built environment Ⅱ综合交通规划与设计 国际-#2 predictive models traffic prediction, passenger flow, cloud computing, traffic flow prediction, big data 国内-#1交通枢纽 规划设计，四网融合，设施布局，衔接，交通组织 国内-#2规划设计 网规划理念，网络流分配，城市规划，综合开发，枢纽体系 国内-#4区域交通 规划方法，评价指标，多模式，融合，多源数据 国际-#3 planning and analysis planning and analysis, bicycle transportation, combined transport, performance evaluation, sustainability and resilience 国际-#5 public transport urban transportation, multimodal networks, comprehensive evaluation, rail transport, accessibility 国际-#7 comprehensive transportation hub comprehensive transportation hub, facility location, network, multimodal freight transport, intermodal transportation Ⅲ综合交通运行 国内-#3协同发展 集装箱，交通出行，多式联运，信息共享，一体化 国内-#7高速铁路 旅客运输，空铁联运，换乘中心，综合枢纽，地铁 国际-#4 electric vehicle commuters, urban freight, shared autonomous vehicles, willingness to pay, bike share, mobility as a service Ⅳ物流 国际-#6 vehicle routing problem city logistics, logistics, green logistics, shortest path problem, hub-and-spoke network 国内-#5交通运输 现代物流，城市，低碳，网络设计，最后一公里
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表 8 综合交通分析研究热点
Table 8. Research hotspots of multimodal transport analysis
研究分类 参考文献 研究内容 研究方法 供需分析 [18] 综合交通供应分析研究 嵌套Logit模型 [19] 大数据 [20] 多智能体仿真 [21] 综合交通需求分析研究 四阶段法 [22] 基于活动的方法 [23] 大数据分析方法 [24] 综合交通供需平衡分析研究 供需匹配方法及优化 [25] 供需平衡评价 网络分析 [26] 重要节点识别 网络结构 [27] 迭代优化 [28] 网络渗流 [29] 综合交通网络韧性研究 基于复杂网络理论分析 [30] 网络结构 出行行为分析 [31] 出行特征分析 多元Logistic回归模型 [32] 出行偏好分析 多元Logistic回归模型 [33] 出行模式选择 居民出行调查方法 [34] 换乘出行行为分析 基于智能卡数据方法 [35] 出行成本建模 马尔可夫决策方法 综合交通与土地利用 [36] 交通与土地利用影响因素 多目标决策方法 [37] 土地利用—交通互动关系研究 对比分析法 [38] 系统协调性评价 耦合协调模型
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表 11 物流研究热点
Table 11. Research hotspots of logistics
研究分类 参考文献 研究内容 研究方法 城市物流 [93] 物流网络结构 社会网络分析 [94] 轴辐式理论 [95] 车辆路径优化 多目标优化 [96] 基于模型和无模型方法 [97] 两阶段法 [98] 物流节点选址 层次分析法 [97] 绿色物流 两阶段法 [99] 最后一公里配送 混和整数规划方法 海运物流 [100] 港口和航运网络优化 嵌入蒙特卡洛模拟的集成优化方法 [101] 智能化与信息化管理 基于迁移学习和区块链方法 [102] 海运物流风险管理 灰色综合评价模型 逆向物流 [103] 逆向网络设计与优化 基于启发式方法 [104] 鲁棒优化方法 [105] 逆向物流回收模式 双层供应链
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