TL;DR
This paper introduces a novel, cost-effective method for distributing bikes in free-floating bike-sharing systems by leveraging customer flow data and influence maximization algorithms, reducing reliance on manual relocation.
Contribution
It proposes a new influence maximization-based approach to optimize bike distribution using existing customer flows, with an efficient approximation algorithm for zone detection.
Findings
The approach effectively spreads bikes over large areas using minimal initial placements.
Zone detection is NP-complete, but a simple approximation algorithm performs well.
Evaluation on Padova's bike-sharing data demonstrates practical applicability.
Abstract
A free-floating bike-sharing system (FFBSS) is a dockless rental system where an individual can borrow a bike and returns it anywhere, within the service area. To improve the rental service, available bikes should be distributed over the entire service area: a customer leaving from any position is then more likely to find a near bike and then to use the service. Moreover, spreading bikes among the entire service area increases urban spatial equity since the benefits of FFBSS are not a prerogative of just a few zones. For guaranteeing such distribution, the FFBSS operator can use vans to manually relocate bikes, but it incurs high economic and environmental costs. We propose a novel approach that exploits the existing bike flows generated by customers to distribute bikes. More specifically, by envisioning the problem as an Influence Maximization problem, we show that it is possible to…
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Taxonomy
Methodstravel james
