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Open AccessJournal ArticleDOI

A multi-layer social force approach to model interactions in shared spaces using collision prediction

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TLDR
A multi-layer approach for representing the movement of road users and their interaction, based on the Social Force Model, is developed and shows realistic behavior in different traffic situations involving cyclists, pedestrians and pedestrian groups.
Abstract
In shared space environments the movements of road users is not regulated by traffic rules, but is the result of spontaneous interaction between traffic users, who negotiate the priority according to social rules such as eye contact or courtesy behavior. However, appropriate micro simulation tools, which can reproduce the operation of shared spaces, are currently lacking. In this paper, a multi-layer approach for representing the movement of road users and their interaction, based on the Social Force Model, is developed. In a free-flow layer a realistic path is calculated for each user towards his destination, while a conflict layer is used for detecting possible conflict situations and computing an appropriate reaction. The novelty of this work in the field of shared space modeling is in the implementation of group dynamics and a SFM based approach for cyclists. The presented approach is qualitatively tested in different traffic situations involving cyclists, pedestrians and pedestrian groups, and shows realistic behavior.

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Citations
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Journal ArticleDOI

A hybrid social influence model for pedestrian motion segmentation

TL;DR: The results show that HSIM achieves superior pedestrian motion segmentation and outperforms the compared methods in terms of both Jaccard Similarity Metric and F-score.
Journal ArticleDOI

Social Force Model-Based Group Behavior Simulation in Virtual Geographic Environments

TL;DR: The results indicate that the SGFM can enhance social group behaviors in crowd dynamics and the function of Virtual Reality (VR) in crowd simulation visualization.
Journal ArticleDOI

Advances in Complex Systems: Already a New Name!

TL;DR: ‘†{ … Ž‚~„™šs …œ› sc-yžtlŽ‹uv| Ÿ y ‡ $u › yq¡¢Ž-~lŠvt*s‹££ › s‚{js tly tly ¤¥t*s �™Iy-¦-§
Journal ArticleDOI

AMENet: Attentive Maps Encoder Network for trajectory prediction

TL;DR: This work proposes an end-to-end generative model named Attentive Maps Encoder Network (AMENet) for accurate and realistic multi-path trajectory prediction that leverages the target road user's motion information and the interaction information with the neighboring road users at each time step to predict multiple plausible future trajectories conditioned on the observed past trajectories.
Proceedings ArticleDOI

Modeling Interactions of Multimodal Road Users in Shared Spaces

TL;DR: The proposed model consists of three layers: a layer to plan trajectories of road users; a force-based modeling layer to reproduce free flow movement and simple interactions; and a game-theoretic decision layer to handle complex situations where road users need to make a decision over different alternatives.
References
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Journal ArticleDOI

Social Force Model for Pedestrian Dynamics

TL;DR: Computer simulations of crowds of interacting pedestrians show that the social force model is capable of describing the self-organization of several observed collective effects of pedestrian behavior very realistically.
Journal ArticleDOI

Simulating dynamical features of escape panic

TL;DR: A model of pedestrian behaviour is used to investigate the mechanisms of panic and jamming by uncoordinated motion in crowds, and an optimal strategy for escape from a smoke-filled room is found, involving a mixture of individualistic behaviour and collective ‘herding’ instinct.
Journal ArticleDOI

The Walking Behaviour of Pedestrian Social Groups and Its Impact on Crowd Dynamics

TL;DR: Analyzing the motion of approximately 1500 pedestrian groups under natural condition shows that social interactions among group members generate typical group walking patterns that influence crowd dynamics, demonstrating that crowd dynamics is not only determined by physical constraints induced by other pedestrians and the environment, but also significantly by communicative, social interaction among individuals.
Journal ArticleDOI

Self-Organizing Pedestrian Movement

TL;DR: The dynamics of pedestrian crowds is surprisingly predictable and the corresponding computer simulations are a valuable tool for developing optimized pedestrian facilities and way systems.
Journal ArticleDOI

Surrogate safety measures from traffic simulation models

TL;DR: An FHWA-sponsored research project investigated the potential to derive surrogate measures of safety from existing traffic simulation models, which could then be used to support evaluations of various traffic engineering alternatives, including facilities that have not yet been built and strategies that haveNot yet been used.
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