Evaluating the Effectiveness of Computer Vision Systems Mounted on Shared Electric Kick Scooters to Reduce Sidewalk Riding
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2023-04-01
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Edition:Final Report, 6/1/2022 - 2/28/2023
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Abstract:The objective of this study was to assess the impact of feedback and speed limitations on the riding behavior of e-scooter riders on sidewalks. To do this, we used data provided by Spin, a US-based micromobility company, on Santa Monica e-scooters that were equipped with an AI camera to monitor surface type. We conducted an experiment in which 50 e-scooters had their feedback mechanisms turned off, while the rest 50 had them on. The study was conducted from November 23, 2022 to February 14, 2023, during which time 488 trips were made within the city of Santa Monica, California. We analyzed the data by calculating the time and distance between consecutive events within a trip, and assuming the distance between two GPS coordinates in the events was the actual path taken by the rider. Empirical cumulative distribution function (ECDF) plots and Kolmogorov-Smirnov tests indicated a statistically significant reduction in the fractions of trip time and distance that were spent on sidewalks, and in the length and duration of individual segments of sidewalk riding. To assess whether the feedback decreased the likelihood of choosing the sidewalk as the next surface when the rider is on the street or bike lane, we used a binary logistic regression model. The models' results revealed a statistically significant reduction in transitions onto sidewalks when riders were on feedback-enabled scooters. This suggests that feedback mechanisms can be valuable tools in guiding e-scooter riders' decisions on where to ride, potentially reducing conflicts between pedestrians and scooter riders.
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