Spatial distribution of foot traffic in New York City and applications for urban planning

Walking is the most prevalent yet least systematically measured mode of urban travel. We present a first city-wide foot-traffic model for peak travel periods in New York City and examine the model’s use as a baseline for targeted infrastructure investments and hazard analysis in urban planning. Comparing estimated pedestrian volumes with the city’s official street classifications shows that many streets in the outer boroughs experience foot-traffic levels comparable with those in central Manhattan but remain undercategorized for pedestrian priority, highlighting potential inequities in infrastructure investment. Linking pedestrian volumes with crash data further shows that intersections with the highest pedestrian injury risk are often outside Manhattan, where exposure-adjusted danger is the greatest. Our findings demonstrate how a systematic analysis of pedestrian volumes can uncover hidden patterns of accessibility, inequity and risk, providing a foundation for more inclusive and evidence-based urban design and policy. New York City’s walkability and climate goals require better city-scale pedestrian data, yet such data are mostly absent. This study develops a foot-traffic model for New York City, revealing undercounted pedestrian corridors, with major implications for planning and safety interventions.

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Publication Details

Journal
Nature Cities
Published
2026-02-06
DOI
https://doi.org/10.1038/s44284-025-00383-y
Citations
1
Primary Topic
Urban Transport and Accessibility
Type
article
Field-Weighted Citation Impact
64.52
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article

Spatial distribution of foot traffic in New York City and applications for urban planning

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1 citations
Nature Cities
Urban Transport and Accessibility
64.52
article

Spatial distribution of foot traffic in New York City and applications for urban planning

Rounaq Basu, Justin Kollar, Liu Liu, Andres Sevtsuk, Abdulaziz Alhassan
article en
1 citations

Abstract

Walking is the most prevalent yet least systematically measured mode of urban travel. We present a first city-wide foot-traffic model for peak travel periods in New York City and examine the model’s use as a baseline for targeted infrastructure investments and hazard analysis in urban planning. Comparing estimated pedestrian volumes with the city’s official street classifications shows that many streets in the outer boroughs experience foot-traffic levels comparable with those in central Manhattan but remain undercategorized for pedestrian priority, highlighting potential inequities in infrastructure investment. Linking pedestrian volumes with crash data further shows that intersections with the highest pedestrian injury risk are often outside Manhattan, where exposure-adjusted danger is the greatest. Our findings demonstrate how a systematic analysis of pedestrian volumes can uncover hidden patterns of accessibility, inequity and risk, providing a foundation for more inclusive and evidence-based urban design and policy. New York City’s walkability and climate goals require better city-scale pedestrian data, yet such data are mostly absent. This study develops a foot-traffic model for New York City, revealing undercounted pedestrian corridors, with major implications for planning and safety interventions.

Nature CitiesVol. 3(2)
Georgia Institute of Technology (US), Massachusetts Institute of Technology (US)
Climate action
Openalex Percentile: Top 0%
Urban Transport and Accessibility
64.52
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