2019
DOI: 10.1007/s41060-019-00197-x
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Traffic signal detection from in-vehicle GPS speed profiles using functional data analysis and machine learning

Abstract: The increasing availability of large-scale Global Positioning System (GPS) data stemming from in-vehicle embedded terminal devices enables the design of methods deriving road network cartographic information from drivers' recorded traces. Some machine learning approaches have been proposed in the past to train automatic road network map inference, and recently this approach has been successfully extended to infer road attributes as well, such as speed limitation or number of lanes. In this paper, we address th… Show more

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Cited by 16 publications
(11 citation statements)
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References 41 publications
(27 reference statements)
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“…Using a mixture of physical 1 and statistical 2 features, both supervised (Random Forests) and unsupervised methods (Spectral clustering) are tested for a 3-class classification problem (stop-signs, traffic lights, uncontrolled intersections), achieving an over 90% classification accuracy. Moreover, Meneroux et al (2020) detect traffic lights using speed-profiles. By testing three different ways of deriving features (speed-profiles), namely 1. functional analysis of speed logs, 2. raw speed measurements and, 3. image recognition technique, they demonstrate that the functional description of speed profiles with wavelet transforms, outperforms the other approaches.…”
Section: Related Workmentioning
confidence: 99%
“…Using a mixture of physical 1 and statistical 2 features, both supervised (Random Forests) and unsupervised methods (Spectral clustering) are tested for a 3-class classification problem (stop-signs, traffic lights, uncontrolled intersections), achieving an over 90% classification accuracy. Moreover, Meneroux et al (2020) detect traffic lights using speed-profiles. By testing three different ways of deriving features (speed-profiles), namely 1. functional analysis of speed logs, 2. raw speed measurements and, 3. image recognition technique, they demonstrate that the functional description of speed profiles with wavelet transforms, outperforms the other approaches.…”
Section: Related Workmentioning
confidence: 99%
“…train in city X and test in city Y, to show the transferability of the learned models). Meneroux et al (2019) addressed the problem of detecting traffic lights by suggesting a speed-profile-based method under a classification perspective. By testing three different ways of deriving features, they demonstrate that a functional description of speed profiles with wavelet transformation outperforms the other approaches (raw speed measurements and image recognition technique).…”
Section: Related Workmentioning
confidence: 99%
“…In this paper, we propose a sequence-to-sequence deep learning model using GPS tracks as a time sequence for realizing the goal mentioned above. The majority of previous works suggests using the statistical features extracted from GPS tracks, such as stop times and stop duration [5,25,26], slowdown and standstill events [27][28][29] or speed-profiles [30][31][32]. These types of features summarize the dynamics of vehicles' motion in the relevant junctions over time.…”
Section: From Gps-tracks To Traffic-regulator Detectionmentioning
confidence: 99%
“…It reports high recall but low precision and F-measure for predicting traffic-light regulator. Similarly, Méneroux et al [32] detect traffic-signals by using speed-profiles. They test three different ways of deriving features: functional analysis of speed logs, raw speed measurements and image recognition technique.…”
Section: Related Workmentioning
confidence: 99%