Developing a New Microscopic Approach to Evacuation Modeling by Measuring the Biomechanical Processes and Cognitive Components of Pedestrians Walking in Close Proximities

Hossein Tavana; Peter Thompson; K E Boyce; Hakan Frantzich; Daniel Nilsson; Denise McGrath

Developing a New Microscopic Approach to Evacuation Modeling by Measuring the Biomechanical Processes and Cognitive Components of Pedestrians Walking in Close Proximities

Hossein Tavana, Peter Thompson, K E Boyce, Hakan Frantzich, Daniel Nilsson, Denise McGrath

Research output: Contribution to specialist publication › Article

Abstract

This article presents the findings of experimental work which underpins the development of a new approach to modeling evacuation. We intend that this model can be used in the future to more precisely and accurately model the movement of individuals, characterize complex crowd dynamics, and contribute to the design of safe buildings and infrastructures.

Original language	English
Specialist publication	FPE eXTRA
Publication status	Published (in print/issue) - Sept 2022

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This output contributes to the following UN Sustainable Development Goals (SDGs)

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Investigating biomechanical and spatial dynamics of pedestrian movement in the context of microscopic crowd flow modelling
Tavana, H. (Author), Mc Connell, N. (Supervisor), Zhang, J. (Supervisor) & Boyce, K. (Supervisor), Mar 2024
Student thesis: Doctoral Thesis

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Tavana, H., Thompson, P., Boyce, K. E., Frantzich, H., Nilsson, D., & McGrath, D. (2022). Developing a New Microscopic Approach to Evacuation Modeling by Measuring the Biomechanical Processes and Cognitive Components of Pedestrians Walking in Close Proximities. FPE eXTRA. https://higherlogicdownload.s3.amazonaws.com/SFPE/93e7d31c-6432-4991-b440-97a413556197/UploadedImages/FPE_Extra/Issue_81/2022_September_FPE_Extra.pdf

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abstract = "This article presents the findings of experimental work which underpins the development of a new approach to modeling evacuation. We intend that this model can be used in the future to more precisely and accurately model the movement of individuals, characterize complex crowd dynamics, and contribute to the design of safe buildings and infrastructures.",

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Tavana, H, Thompson, P, Boyce, KE, Frantzich, H, Nilsson, D & McGrath, D 2022, 'Developing a New Microscopic Approach to Evacuation Modeling by Measuring the Biomechanical Processes and Cognitive Components of Pedestrians Walking in Close Proximities' FPE eXTRA. <https://higherlogicdownload.s3.amazonaws.com/SFPE/93e7d31c-6432-4991-b440-97a413556197/UploadedImages/FPE_Extra/Issue_81/2022_September_FPE_Extra.pdf>

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Developing a New Microscopic Approach to Evacuation Modeling by Measuring the Biomechanical Processes and Cognitive Components of Pedestrians Walking in Close Proximities

Abstract

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Student theses

Investigating biomechanical and spatial dynamics of pedestrian movement in the context of microscopic crowd flow modelling

Cite this