Approximation of human flow in urban areas by a network of electric circuits : Potential fields and fluctuation-dissipation relations
Yohei Shida, Jun'ichi Ozaki, Hideki Takayasu, and Misako Takayasu

TL;DR
This paper models urban human mobility by mapping large-scale GPS data onto an electric circuit analogy, revealing that human flows follow physical laws like fluctuation-dissipation relations, aiding urban planning and policy-making.
Contribution
It introduces a novel approach treating human movement as electric currents, applying physical laws to analyze and predict urban human flow patterns.
Findings
Human flows correlate with electric potential changes over time.
Conductance is nearly proportional to maximum current at locations.
Fluctuation-dissipation theorem applies to human mobility data.
Abstract
Owing to the big data the extension of physical laws on nonmaterial has seen numerous successes, and human mobility is one of the scientific frontier topics. Recent GPS technology has made it possible to trace detailed trajectories of millions of people, macroscopic approaches such as the gravity law for human flow between cities and microscopic approaches of individual origin-destination distributions are attracting much attention. However, we need a more general basic model with wide applicability to realize traffic forecasting and urban planning of metropolis fully utilizing the GPS data. Here, based on a novel idea of treating moving people as charged particles, we introduce a sophisticated method to map macroscopic human flows into currents on an imaginary electric circuit defined over a metropolitan area. Conductance is found to be nearly proportional to the maximum current in…
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Taxonomy
TopicsHuman Mobility and Location-Based Analysis · Evacuation and Crowd Dynamics · Impact of Light on Environment and Health
