2019 IEEE Intelligent Transportation Systems Conference (ITSC) 2019
DOI: 10.1109/itsc.2019.8917062
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FaultNet: Faulty Rail-Valves Detection using Deep Learning and Computer Vision

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Cited by 26 publications
(17 citation statements)
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“…Raw data type: it is observed that 70% of studies used image-type raw data for the deep learning models. Nevertheless, acoustic emission signals [65,71,100,103,108] , defectogram [96,109] , speed accelerations [98] , concatenated vector of curve and numbers [101] , current signal [89] , maintenance records [80,99] , synthetic data from generative model [63] , time-frequency measurement data [82] , time-series [60] , geometry data [87] , and vibration signal [119] could all be possible input data sources as well. Purpose of study: it is observed that detection, classification, and/or localizing rail surface defects including various components (rail, insulator, valves, fasteners, switches, track intrusions, etc.)…”
Section: Review Of Rail Track Condition Monitoring With Deep Learningmentioning
confidence: 99%
See 1 more Smart Citation
“…Raw data type: it is observed that 70% of studies used image-type raw data for the deep learning models. Nevertheless, acoustic emission signals [65,71,100,103,108] , defectogram [96,109] , speed accelerations [98] , concatenated vector of curve and numbers [101] , current signal [89] , maintenance records [80,99] , synthetic data from generative model [63] , time-frequency measurement data [82] , time-series [60] , geometry data [87] , and vibration signal [119] could all be possible input data sources as well. Purpose of study: it is observed that detection, classification, and/or localizing rail surface defects including various components (rail, insulator, valves, fasteners, switches, track intrusions, etc.)…”
Section: Review Of Rail Track Condition Monitoring With Deep Learningmentioning
confidence: 99%
“…Multilayer feedforward neural networks based on multi-valued neurons (MLMVN) [60] neural network [96] Point Cloud deep learning [92] ResNet classifier, DenseNet classifier [81]…”
Section: Review Of Rail Track Condition Monitoring With Deep Learningmentioning
confidence: 99%
“…Recently, Machine learning and Deep learning have made significant strides in improving the performance in object detection and segmentation benchmarks [7,8]. Using novel neural networks, we can perform pixel and sub-pixel level 2D object detection [9] and image segmentation [3]. Significant effort is being focused in extending these techniques to 3D where data is captured using modern tools such as 3D XRMs, LiDAR, and RGBD cameras [10].…”
Section: Automated 3d Metrologymentioning
confidence: 99%
“…Machine Learning (ML) and Deep Learning (DL) are fast becoming an integral part of advanced manufacturing and inspection fields such as component design [1], optical inspection [2], and anomaly detection [3]. Such systems, with the availability of vast datasets, have improved significantly over classical handcrafted feature learning approaches in various domains.…”
Section: Introductionmentioning
confidence: 99%
“…O objetivo da segmentação é particionar uma imagem em regiões com uma aparência visual homogênea razoável, ou que corresponda a objetos ou partes de objetos [28] [39]. Entre as técnicas de segmentação estão: buscar a região de interesse e detectar anomalias usando limiar [37] e redes neurais artificiais como a arquitetura U-Net [40]. A extração de características constitui o cálculo de medidas específicas, que caracterizam o sinal [41] a fim de que as classes possam ser discriminadas.…”
Section: Reconhecimento De Padrões De Imagem Com Técnicas Clássicas De Machine Learningunclassified