Forecasting Public Transport Ridership: Management of Information Systems using CNN and LSTM Architectures

Прогнозирование пассажиропотока общественного транспорта: управление информационными системами с использованием архитектур CNN и LSTM
Sergey Khalil, Chintan Amrit, Thomas Koch, Elenna Dugundji
2021-01-01

Augmented Sequential CNN-LSTMConvolutional Neural Network (CNN)Fixed Effects Ordinary Least SquaresLong Short-Term Memory (LSTM)Parallel CNN-LSTMSequential CNN-LSTMdemand modelling for public transportexogenous variablespublic transport ridership forecastingspatio-temporal image-matrix
This research paper provides a framework for the efficient representation and analysis of both spatial and temporal dimensions of panel data. This is achieved by representing the data as spatio-temporal image-matrix, and applied to a case study on forecasting public transport ridership. The relative performance of a subset of machine learning techniques is examined, focusing on Convo-lutional Neural Networks (CNN) and Long Short-Term Memory (LSTM) neural networks. Furthermore Sequential CNN-LSTM, Parallel CNN-LSTM, Augmented Sequential CNN-LSTM are explored. All models are benchmarked against a Fixed Effects Ordinary Least Squares regression. Historical ridership data has been provided in the framework of a project focusing on the impact that the opening of a new metro line had on ridership. Results show that the forecasts produced by the Sequential CNN-LSTM model performed best and suggest that the proposed framework could be utilised in applications requiring accurate modelling of demand for public transport. The described augmentation process of Sequential CNN-LSTM could be used to introduce exogenous variables into the model, potentially making the model more explainable and robust in real-life settings.
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Augmented Sequential CNN-LSTM allows introduction of exogenous variables, potentially improving explainability and robustness in real-world settings.
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Sequential CNN-LSTM produced the best forecasts among tested models for public transport ridership in the case study.
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Spatio-temporal panel data can be represented as a spatio-temporal image-matrix for combined spatial and temporal analysis.
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The proposed framework is suitable for applications needing accurate modelling of public transport demand, demonstrated using data around a new metro line opening.
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The study compares CNN, LSTM, Sequential CNN-LSTM, Parallel CNN-LSTM, and Augmented Sequential CNN-LSTM against Fixed Effects OLS for ridership forecasting.

Public transport ridership (historical panel ridership data for stations/lines) represented as spatio-temporal image-matrix

Forecasting accuracy and modelling of spatial-temporal demand using CNN and LSTM architectures (Sequential, Parallel, Augmented CNN-LSTM) compared to Fixed Effects OLS, including incorporation of exogenous variables and framework explainability/robustness

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2021-01-01
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Sergey Khalil
Chintan Amrit
Thomas Koch
Elenna Dugundji
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