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Travel Behaviour and Society· 2026Q1

A predictive geospatial engine for city-wide pedestrian-centric urban regeneration

Mohamed Shamroukh, Asya Natapov, Taimaz Larimian

Short summary

A GeoAI framework, the Geospatial Pedestrian Activity Engine (GPAE), predicts city-wide pedestrian activity at high resolution by fusing WiFi sensor data and video counts with urban context features using LightGBM.

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Key points

  • Introduces the Geospatial Pedestrian Activity Engine (GPAE), a GeoAI framework for predicting city-wide pedestrian activity.
  • Fuses WiFi sensor data and computer vision-derived video counts (29 points) with spatial context features using LightGBM.
  • Achieved high predictive performance validated by Leave-One-Out Cross-Validation (R²=0.89, MAE=400 pedestrians/day).
  • Identifies social amenities, daily necessities, and residential density as key drivers of pedestrian activity, more so than transit infrastructure.

AI-generated from the title and abstract; the full text is not read.

Abstract

Predicting pedestrian activity across unmonitored urban space from sparse sensor data remains a fundamental challenge for evidence-based policy and decision-making. Effective urban regeneration depends on understanding mobility patterns that shape accessibility, vitality, and social equity, yet limited monitoring infrastructure creates spatial blind spots that undermine investment decisions, risking misallocation toward low-activity areas while neglecting underserved neighbourhoods. This paper introduces the Geospatial Pedestrian Activity Engine (GPAE), a GeoAI framework that bridges human activity patterns, emerging sensing technologies, and urban planning by learning non-linear relationships between the built environment and pedestrian activity. Applied to Loughborough, UK, GPAE fuses WiFi sensor data and computer vision-derived video counts (29 monitoring points) with engineered spatial context features, deploying LightGBM gradient boosting to predict city-wide, high-resolution pedestrian activity data. Model performance was validated using Leave-One-Out Cross-Validation against raw observation points (R 2 = 0.89, MAE = 400 pedestrians/day). Feature importance analysis reveals that pedestrian activity is associated with the combined contribution of social amenities, daily necessities, and residential density rather than transit infrastructure alone, directly informing active travel and public realm policy. The resulting intelligence, when combined with infrastructure provision data, supports a Policy Decision Framework which is designed to classify urban areas into four actionable intervention typologies: overburdened, underutilised, neglected, and effectively supported, enabling planners to target infrastructure upgrades, active travel investment, and equity-informed regeneration based on predicted activity rather than reactive observation. Beyond prediction accuracy, GPAE shows how existing pedestrian data can be transformed into decision-ready evidence for sustainable mobility and pedestrian-focused urban planning supporting modal shift to walking and contributing to sustainable urban mobility goals.

The authors' abstract, as published at the source. Travel Behaviour and Society, 2026 · DOI ↗

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Field: Transportation

TransportationSocial Sciences