Traffic prediction by combining macroscopic models and Gaussian processes

IF 4.4 2区 工程技术 Q1 ENGINEERING, MULTIDISCIPLINARY
Alexandra Würth, Mickaël Binois, Paola Goatin
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引用次数: 0

Abstract

We propose a physics informed statistical framework for traffic travel time prediction. This combined approach has the merit to address the shortcomings of the purely model-driven or data-driven approaches, while leveraging their respective advantages. Indeed, models are based on physical laws, but cannot capture all the complexity of real phenomena. Plus they are rarely used for prediction since this requires future data such as boundary conditions. On the other hand, pure statistical outputs can violate basic characteristic dynamics in their prediction and do not reconstruct traffic conditions. Here, on one side, the discrepancy of the considered mathematical model with real data is represented by a Gaussian process. On the other side, the traffic simulator is fed with boundary data predicted by a Gaussian process, forced to satisfy the mathematical equations at virtual points, resulting in a multi-objective optimization problem. We validate our approach on both synthetic and real world data, showing that it delivers more reliable results compared to other methods.
结合宏观模型和高斯过程的交通预测
我们提出了一个基于物理的交通出行时间预测统计框架。这种组合方法的优点是解决纯模型驱动或数据驱动方法的缺点,同时利用它们各自的优点。的确,模型是以物理定律为基础的,但不能捕捉到真实现象的所有复杂性。此外,它们很少用于预测,因为这需要未来的数据,如边界条件。另一方面,纯统计输出在其预测中可能违反基本特征动态,并且不能重建交通状况。在这里,一方面,所考虑的数学模型与实际数据的差异用高斯过程表示。另一方面,交通模拟器被输入高斯过程预测的边界数据,被迫满足虚拟点的数学方程,导致多目标优化问题。我们在合成和真实世界的数据上验证了我们的方法,表明与其他方法相比,它提供了更可靠的结果。
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来源期刊
Applied Mathematical Modelling
Applied Mathematical Modelling 数学-工程:综合
CiteScore
9.80
自引率
8.00%
发文量
508
审稿时长
43 days
期刊介绍: Applied Mathematical Modelling focuses on research related to the mathematical modelling of engineering and environmental processes, manufacturing, and industrial systems. A significant emerging area of research activity involves multiphysics processes, and contributions in this area are particularly encouraged. This influential publication covers a wide spectrum of subjects including heat transfer, fluid mechanics, CFD, and transport phenomena; solid mechanics and mechanics of metals; electromagnets and MHD; reliability modelling and system optimization; finite volume, finite element, and boundary element procedures; modelling of inventory, industrial, manufacturing and logistics systems for viable decision making; civil engineering systems and structures; mineral and energy resources; relevant software engineering issues associated with CAD and CAE; and materials and metallurgical engineering. Applied Mathematical Modelling is primarily interested in papers developing increased insights into real-world problems through novel mathematical modelling, novel applications or a combination of these. Papers employing existing numerical techniques must demonstrate sufficient novelty in the solution of practical problems. Papers on fuzzy logic in decision-making or purely financial mathematics are normally not considered. Research on fractional differential equations, bifurcation, and numerical methods needs to include practical examples. Population dynamics must solve realistic scenarios. Papers in the area of logistics and business modelling should demonstrate meaningful managerial insight. Submissions with no real-world application will not be considered.
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