Multivariate Demand Forecasting for Rental Bike Systems Based on an Unobserved Component Model

Many German cities, municipalities and transport associations are expanding their bike-sharing systems (BSS) to offer citizens a cost-effective and climate-friendly means of transport and an alternative to private motorized transport (PMT). However, operators face the challenge of generating high-qu...

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Main Authors: Christian Wirtgen, Matthias Kowald, Johannes Luderschmidt, Holger Hünemohr
Format: Article
Language:English
Published: MDPI AG 2022-12-01
Series:Electronics
Subjects:
Online Access:https://www.mdpi.com/2079-9292/11/24/4146
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author Christian Wirtgen
Matthias Kowald
Johannes Luderschmidt
Holger Hünemohr
author_facet Christian Wirtgen
Matthias Kowald
Johannes Luderschmidt
Holger Hünemohr
author_sort Christian Wirtgen
collection DOAJ
description Many German cities, municipalities and transport associations are expanding their bike-sharing systems (BSS) to offer citizens a cost-effective and climate-friendly means of transport and an alternative to private motorized transport (PMT). However, operators face the challenge of generating high-quality predictive analyses and time series forecasts. In particular, the prediction of demand is a key component to foster data-driven decisions. To address this problem, an Unobserved Component Model (UCM) has been developed to predict the monthly rentals of a BSS, whereby the station-based BSS VRNnextbike, including over 2000 bikes, 297 stations and 21 municipalities, is employed as an example. The model decomposes the time series into trend, seasonal, cyclical, auto-regressive and irregular components for statistical modeling. Additionally, the model includes exogenous factors such as weather, user behavior (e.g., traveled distance), school holidays and COVID-19 relevant covariates as independent effects to calculate scenario based forecasts. It can be shown that the UCM calculates reasonably accurate forecasts and outperforms classical time series models such as ARIMA(X) or SARIMA(X). Improvements were observed in model quality in terms of AIC/BIC (2.5% to 22%) and a reduction in error metrics from 15% to 45% depending on the considered model.
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spelling doaj.art-f6e2a9ebb20e434a8096642610c66a6c2023-11-24T14:31:04ZengMDPI AGElectronics2079-92922022-12-011124414610.3390/electronics11244146Multivariate Demand Forecasting for Rental Bike Systems Based on an Unobserved Component ModelChristian Wirtgen0Matthias Kowald1Johannes Luderschmidt2Holger Hünemohr3Department of Design, Computer Science, Media, RheinMain University of Applied Sciences, 65197 Wiesbaden, GermanyDepartment of Architecture and Civil Engineering, RheinMain University of Applied Sciences, 65197 Wiesbaden, GermanyDepartment of Design, Computer Science, Media, RheinMain University of Applied Sciences, 65197 Wiesbaden, GermanyDepartment of Design, Computer Science, Media, RheinMain University of Applied Sciences, 65197 Wiesbaden, GermanyMany German cities, municipalities and transport associations are expanding their bike-sharing systems (BSS) to offer citizens a cost-effective and climate-friendly means of transport and an alternative to private motorized transport (PMT). However, operators face the challenge of generating high-quality predictive analyses and time series forecasts. In particular, the prediction of demand is a key component to foster data-driven decisions. To address this problem, an Unobserved Component Model (UCM) has been developed to predict the monthly rentals of a BSS, whereby the station-based BSS VRNnextbike, including over 2000 bikes, 297 stations and 21 municipalities, is employed as an example. The model decomposes the time series into trend, seasonal, cyclical, auto-regressive and irregular components for statistical modeling. Additionally, the model includes exogenous factors such as weather, user behavior (e.g., traveled distance), school holidays and COVID-19 relevant covariates as independent effects to calculate scenario based forecasts. It can be shown that the UCM calculates reasonably accurate forecasts and outperforms classical time series models such as ARIMA(X) or SARIMA(X). Improvements were observed in model quality in terms of AIC/BIC (2.5% to 22%) and a reduction in error metrics from 15% to 45% depending on the considered model.https://www.mdpi.com/2079-9292/11/24/4146smart mobilitytime series analysisunobserved component modeldemand forecastingvisualizationdashboard
spellingShingle Christian Wirtgen
Matthias Kowald
Johannes Luderschmidt
Holger Hünemohr
Multivariate Demand Forecasting for Rental Bike Systems Based on an Unobserved Component Model
Electronics
smart mobility
time series analysis
unobserved component model
demand forecasting
visualization
dashboard
title Multivariate Demand Forecasting for Rental Bike Systems Based on an Unobserved Component Model
title_full Multivariate Demand Forecasting for Rental Bike Systems Based on an Unobserved Component Model
title_fullStr Multivariate Demand Forecasting for Rental Bike Systems Based on an Unobserved Component Model
title_full_unstemmed Multivariate Demand Forecasting for Rental Bike Systems Based on an Unobserved Component Model
title_short Multivariate Demand Forecasting for Rental Bike Systems Based on an Unobserved Component Model
title_sort multivariate demand forecasting for rental bike systems based on an unobserved component model
topic smart mobility
time series analysis
unobserved component model
demand forecasting
visualization
dashboard
url https://www.mdpi.com/2079-9292/11/24/4146
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