Towards Universal Urban Patterns-of-Life Simulation

Fuente: arXiv
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Auteurs principaux: Reia, Sandro M., de Arruda, Henrique F., Ruan, Shiyang, Anderson, Taylor, Kavak, Hamdi, Pfoser, Dieter
Format: Preprint
Publié: 2026
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author Reia, Sandro M.
de Arruda, Henrique F.
Ruan, Shiyang
Anderson, Taylor
Kavak, Hamdi
Pfoser, Dieter
author_facet Reia, Sandro M.
de Arruda, Henrique F.
Ruan, Shiyang
Anderson, Taylor
Kavak, Hamdi
Pfoser, Dieter
contents Understanding urban mobility requires models that capture how people interact with and navigate the built environment. We present a scalable, generalizable agent-based framework in which daily schedules emerge from the interplay between mandatory (e.g., work, school) and flexible (e.g., errands, food, leisure) activities, driven by evolving individual needs. The results of our model are validated against empirical patterns from the 2017 U.S. National Household Travel Survey, including activity distributions, origin-destination flows, and trip-chain length distributions. We introduce a normalized similarity metric to quantify agreement between simulated and empirical patterns. Most cities achieve scores above 0.80, demonstrating strong alignment without the need for city-specific calibration. The model scales efficiently to over 20 million agents, enabling full-population simulations of large metropolitan areas. This combination of universality and scalability enables scenario analysis for infrastructure stress testing, disaster recovery, innovation diffusion, and disease spread in urban systems.
format Preprint
id arxiv_https___arxiv_org_abs_2601_22099
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Towards Universal Urban Patterns-of-Life Simulation
Reia, Sandro M.
de Arruda, Henrique F.
Ruan, Shiyang
Anderson, Taylor
Kavak, Hamdi
Pfoser, Dieter
Physics and Society
Understanding urban mobility requires models that capture how people interact with and navigate the built environment. We present a scalable, generalizable agent-based framework in which daily schedules emerge from the interplay between mandatory (e.g., work, school) and flexible (e.g., errands, food, leisure) activities, driven by evolving individual needs. The results of our model are validated against empirical patterns from the 2017 U.S. National Household Travel Survey, including activity distributions, origin-destination flows, and trip-chain length distributions. We introduce a normalized similarity metric to quantify agreement between simulated and empirical patterns. Most cities achieve scores above 0.80, demonstrating strong alignment without the need for city-specific calibration. The model scales efficiently to over 20 million agents, enabling full-population simulations of large metropolitan areas. This combination of universality and scalability enables scenario analysis for infrastructure stress testing, disaster recovery, innovation diffusion, and disease spread in urban systems.
title Towards Universal Urban Patterns-of-Life Simulation
topic Physics and Society
url https://arxiv.org/abs/2601.22099