Analyzing large-scale human mobility data: a survey of machine learning methods and applications

被引:0
作者
Eran Toch
Boaz Lerner
Eyal Ben-Zion
Irad Ben-Gal
机构
[1] Tel Aviv University,Department of Industrial Engineering, Faculty of Engineering
[2] Ben-Gurion University of the Negev,Department of Industrial Engineering and Management
来源
Knowledge and Information Systems | 2019年 / 58卷
关键词
Human mobility patterns; Mobile phones; Machine learning; Data mining;
D O I
暂无
中图分类号
学科分类号
摘要
Human mobility patterns reflect many aspects of life, from the global spread of infectious diseases to urban planning and daily commute patterns. In recent years, the prevalence of positioning methods and technologies, such as the global positioning system, cellular radio tower geo-positioning, and WiFi positioning systems, has driven efforts to collect human mobility data and to mine patterns of interest within these data in order to promote the development of location-based services and applications. The efforts to mine significant patterns within large-scale, high-dimensional mobility data have solicited use of advanced analysis techniques, usually based on machine learning methods, and therefore, in this paper, we survey and assess different approaches and models that analyze and learn human mobility patterns using mainly machine learning methods. We categorize these approaches and models in a taxonomy based on their positioning characteristics, the scale of analysis, the properties of the modeling approach, and the class of applications they can serve. We find that these applications can be categorized into three classes: user modeling, place modeling, and trajectory modeling, each class with its characteristics. Finally, we analyze the short-term trends and future challenges of human mobility analysis.
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页码:501 / 523
页数:22
相关论文
共 199 条
  • [41] Geisel T(2010)Limits of predictability in human mobility Science 327 1018-undefined
  • [42] Calabrese F(2010)Modeling the scaling properties of human mobility Nat Phys 6 818-undefined
  • [43] Colonna M(2006)Evaluating next-cell predictors with extensive Wi-Fi mobility data IEEE Trans Mob Comput 5 1633-undefined
  • [44] Lovisolo P(2017)DeepMob: learning deep knowledge of human emergency behavior and mobility from big and heterogeneous data ACM Trans Inf Syst (TOIS) 35 41-undefined
  • [45] Parata D(1966)Trends in comparative time-budget research Am Behav Sci 9 3-undefined
  • [46] Ratti C(2010)Location-sharing technologies: privacy risks and controls I/S J Law Policy Inf Soc 6 119-undefined
  • [47] Cao X(2009)Understanding the spreading patterns of mobile phone viruses Science 324 1071-undefined
  • [48] Cong G(2012)Quantifying the impact of human mobility on malaria Science 338 267-undefined
  • [49] Jensen CS(2004)Design and analysis of location management for 3G cellular networks IEEE Trans Parallel Distrib Syst 15 339-undefined
  • [50] Castro PS(2013)Semantic trajectories: mobility data computation and annotation ACM Trans Intell Syst Technol (TIST) 4 49-undefined