Summary of travel time prediction using machine learning approaches
| Author (year) | Location | Roadway category | Data source | Method category | Data type | Prediction method |
|---|---|---|---|---|---|---|
| Wunderlich et al. (2000) | N/A | N/A | Simulated data from | Navie model | Travel time | Exponential filtering |
| Dion et al. (2004) | Virginia, USA | N/A | Simulated data from integration | Traffic theory-based model | Travel time | Delay models |
| Van Lint et al. (2002) | N/A | Freeway | Freeway operations simulation (FOSIM) | Non-parametric | Travel time, travel speed | State-space neural network |
| Wu et al. (2005) | Taiwan | Highway | Loop detector | Non-parametric | Travel speed | SVR |
| Schmitt and Jula (2007) | California, USA | Urban road | Loop detector | Navie model | Travel time | Switch model |
| Zou et al. (2008) | Maryland, USA | Highway | Roadside detector | Hybrid non-parametric | Travel time | Combined clustering neural networks |
| Li et al. (2009) | Atlanta, USA | N/A | Simulated data from VISSIM | Hybrid non-parametric | Travel time, travel speed | Combined boosting and neural network |
| Papageorgiou et al. (2010) | N/A | N/A | Simulated data from MATANET | Traffic theory-based model | Travel time | Macroscopic simulation |
| Hamner (2010) | N/A | N/A | GPS | Non-parametric | Travel speed | RF |
| Myung et al. (2011) | Korea | N/A | ATC system | Non-parametric | Travel time | KNN |
| Wisitpongphan (2012) | Bangkok, Thailand | Highway | GPS | Non-parametric | Travel time, GPS | BP neural network |
| Zheng et al. (2013) | Delft, The Netherlands | Urban road | GPS data | Non-parametric | Vehicle position, travel speed | State-space neural network |
| Yildirimoglu and Geroliminis’s (2013 ) | California, USA | Freeway | Loop detector | Hybrid non-parametric | Travel time | Combined Gaussian mixture, PCA and clustering |
| Zhang and Haghani (2015) | Maryland, USA | Interstate highway | INRIX | Non-parametric | Travel time | Gradient boosting |
| Joao et al. (2015) | Porto, Portugal | Urban road | STCP system | Hybrid non-parametric | Travel time | Combined RF, projection pursuit regression and SVM |
| Duan et al. (2016) | England | Highway | Cameras, GPS and loop detectors | Non-parametric | Travel time | LSTM neural network |
| Li and Bai (2016) | Ningbo, China | N/A | N/A | Non-parametric | Truck trajectory, travel time, travel speed | Gradient boosting |
| Liu et al. (2017) | California, USA | Interstate highway | PeMS | Non-parametric | Travel time | LSTM neural network |
| Fan et al. (2018) | Taiwan | Highway | Electric toll | Non-parametric | Travel time, vehicle information | RF method |
| Yu et al. (2017) | Shenyang, China | bus route | AVL system | Non-parametric | Bus travel time | RF and KNN |
| Wang et al. (2018) | Beijing, China | Urban road | Floating ar data | Non-parametric | Taxi travel time, vehicle trajectory data | LSTM neural network |
| Wei et al. (2018) | China | Urban road | Vehicle passage records | Non-parametric | Travel time | LSTM neural network |
| Wang et al. (2018) | Beijing and Chengdu, China | Urban road | GPS | Non-parametric | Vehicle trajectory data | LSTM neural network |
| Gupta et al. (2018) | Porto, Portugal | Urban road | GPS | Non-parametric | Taxi travel speed | RF and gradient boosting |
| Moonam et al. (2019) | Madison, Wisconsin, USA | Freeway | Bluetooth detector | Non-parametric | Travel speed | KNN, KF |
| Kumar et al. (2019) | Chennai, India | Urban road | GPS | Non-parametric | Travel time | KNN |
| Cristóbal et al. (2019) | Gran Canaria, Spain | Urban road | Public transport network | Non-parametric | Travel time | K-medoid clustering technique |
| Kwak and Geroliminis (2020) | California, USA | Freeway | PeMS | Parametric | Travel time | Dynamic linear model |
| Fu et al. (2020) | Beijing, Suzhou, Shenyang, China | Urban road | Ride-hailing platform | Non-parametric | Travel time | Graph attention network |
| Chiabaut and Faitout (2021) | Lyon, French | Highway | Loop detector | Non-parametric | Travel time | PCA and Clustering |
| Wu et al. (2021) | Houston, USA | Urban | AWAM | Parametric | Travel time | Autoregressive with exogenous inputs (NARX) model and feed-forward neural network |
| Author (year) | Location | Roadway category | Data source | Method category | Data type | Prediction method |
|---|---|---|---|---|---|---|
| N/A | N/A | Simulated data from | Navie model | Travel time | Exponential filtering | |
| Virginia, USA | N/A | Simulated data from integration | Traffic theory-based model | Travel time | Delay models | |
| Van Lint | N/A | Freeway | Freeway operations simulation (FOSIM) | Non-parametric | Travel time, travel speed | State-space neural network |
| Wu | Taiwan | Highway | Loop detector | Non-parametric | Travel speed | SVR |
| California, USA | Urban road | Loop detector | Navie model | Travel time | Switch model | |
| Maryland, USA | Highway | Roadside detector | Hybrid non-parametric | Travel time | Combined clustering neural networks | |
| Atlanta, USA | N/A | Simulated data from VISSIM | Hybrid non-parametric | Travel time, travel speed | Combined boosting and neural network | |
| N/A | N/A | Simulated data from MATANET | Traffic theory-based model | Travel time | Macroscopic simulation | |
| Hamner (2010) | N/A | N/A | GPS | Non-parametric | Travel speed | RF |
| Myung | Korea | N/A | ATC system | Non-parametric | Travel time | KNN |
| Wisitpongphan (2012) | Bangkok, Thailand | Highway | GPS | Non-parametric | Travel time, GPS | BP neural network |
| Zheng | Delft, The Netherlands | Urban road | GPS data | Non-parametric | Vehicle position, travel speed | State-space neural network |
| California, USA | Freeway | Loop detector | Hybrid non-parametric | Travel time | Combined Gaussian mixture, PCA and clustering | |
| Maryland, USA | Interstate highway | INRIX | Non-parametric | Travel time | Gradient boosting | |
| Joao | Porto, Portugal | Urban road | STCP system | Hybrid non-parametric | Travel time | Combined RF, projection pursuit regression and SVM |
| Duan | England | Highway | Cameras, GPS and loop detectors | Non-parametric | Travel time | LSTM neural network |
| Li and Bai (2016) | Ningbo, China | N/A | N/A | Non-parametric | Truck trajectory, travel time, travel speed | Gradient boosting |
| Liu | California, USA | Interstate highway | PeMS | Non-parametric | Travel time | LSTM neural network |
| Taiwan | Highway | Electric toll | Non-parametric | Travel time, vehicle information | RF method | |
| Yu | Shenyang, China | bus route | AVL system | Non-parametric | Bus travel time | RF and KNN |
| Wang | Beijing, China | Urban road | Floating ar data | Non-parametric | Taxi travel time, vehicle trajectory data | LSTM neural network |
| Wei | China | Urban road | Vehicle passage records | Non-parametric | Travel time | LSTM neural network |
| Wang | Beijing and Chengdu, China | Urban road | GPS | Non-parametric | Vehicle trajectory data | LSTM neural network |
| Porto, Portugal | Urban road | GPS | Non-parametric | Taxi travel speed | RF and gradient boosting | |
| Moonam | Madison, Wisconsin, USA | Freeway | Bluetooth detector | Non-parametric | Travel speed | KNN, KF |
| Chennai, India | Urban road | GPS | Non-parametric | Travel time | KNN | |
| Gran Canaria, Spain | Urban road | Public transport network | Non-parametric | Travel time | ||
| California, USA | Freeway | PeMS | Parametric | Travel time | Dynamic linear model | |
| Beijing, Suzhou, Shenyang, China | Urban road | Ride-hailing platform | Non-parametric | Travel time | Graph attention network | |
| Lyon, French | Highway | Loop detector | Non-parametric | Travel time | PCA and Clustering | |
| Houston, USA | Urban | AWAM | Parametric | Travel time | Autoregressive with exogenous inputs (NARX) model and feed-forward neural network |
Notes:
SVR = support vector regression; VISSIM = Verkehr In Städten - SIMulationsmodell (German for “Traffic in cities - simulation model”); PeMS = performance measurement system; GPS = global positioning system; ATC = air traffic control; KNN = k-nearest neighbours; AVL = automatic vehicle location; KF = K filter; AWAM = anonymous wireless address matching; NARX = nonlinear autoregressive exogenous model
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