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Editorial Cuvillier

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Computer Vision and Machine Learning in Sustainable Mobility: The Case of Road Surface Defects

EUR 49,90

EUR 34,90

Computer Vision and Machine Learning in Sustainable Mobility: The Case of Road Surface Defects (Volumen 104) (Tienda española)

Sromona Chatterjee (Autor)


Lectura de prueba, PDF (1,9 MB)
Indice, PDF (650 KB)

ISBN-13 (Impresion) 9783736972582
ISBN-13 (E-Book) 9783736962583
Idioma Inglés
Numero de paginas 198
Laminacion de la cubierta Brillante
Edicion 1
Serie Göttinger Wirtschaftsinformatik
Volumen 104
Lugar de publicacion Göttingen
Lugar de la disertacion Göttingen
Fecha de publicacion 18.08.2020
Clasificacion simple Tesis doctoral
Area Economía
Palabras claves Computer vision, image processing, machine learning, artificial intelligence, information systems, IS, decision support system, pavement management system, PMS, pavement condition index, PCI, road monitoring, road surface analysis, cracks, crack detection, surface defect detection, network cracks, single cracks, GPS, e-bike, pedelecs, road detection, Structured and unstructured, pavement detection, region grouping, pairwise assignment, Hungarian algorithm, hierarchical clustering, Superpixel, Random forest, Gradient boosting, Aritifical Neural Network, Support vector machine, Design Science Research, Gray level co-occurrence matrix, defect detection, Gamma mixture fuzzy model, Fuzzy image descriptors, edge detection, KL-divergence, Bildverarbeitung, Maschinelles Lernen, Künstliche Intelligenz, Informationssysteme, IS, Entscheidungsunterstützungssystem, digitale Innovation, Bürgersteig-Management, Bürgersteig-Verwaltungssystem, PMS, Belagszustand index, PCI, Straßenüberwachung, Analyse der Straßenoberfläche, Risse, Risserkennung, Erkennung von Oberflächenfehlern, Netzwerk-Risse, einzelne Risse, GPS, E-Bike, Pedelecs, Straßenerkennung, Strukturiert und unstrukturiert, Fahrbahnerkennung, Gruppierung von Regionen, paarweise Zuordnung, Ungarische Methode, hierarchische Clusteranalyse, Superpixel, Klassifikationsverfahren, Random Forest, Gradient Boosting, künstliche neuronale Netzwerke, Support Vector Machine, Design Science, Gray level co-occurrence matrix, Fuzzy-Bild-Deskriptoren, Fuzzy-Theorie, KL-Divergenz, Entscheidungshilfe, Aerial Vehicle, Luftfahrzeug

Road maintenance has traditionally been a time consuming, expensive, and manual process. Timely maintenance of roads helps in lowering rehabilitation costs, accidents, environmental pollution, while facilitating increased connectivity, trade, and growth. Easily acquirable front-view scene images are seen to be used lately for infrastructure management and road maintenance as they provide quicker, low-cost, and flexible solutions. Such scene images can easily be acquired using standard commodity cameras. In this dissertation, machine learning based approaches have been developed to analyze front-view scene images for detecting cracks automatically on road surfaces across different locations and under various conditions. This work thus contributes toward automated approaches to detect different kinds of cracks on road surfaces, thereby proposing a low-cost solution to road maintenance practices. As a result, different components are developed in this work which are sketched together to form a Decision Support System for the task of crack detection. In this study primarily three algorithmic approaches have been developed. Firstly, an unsupervised graph-based hierarchical clustering technique for road area segmentation has been developed, thus helping in detecting the road area in scene images. Secondly, a classifier and superpixel based supervised learning approach consisting of systematically identifying relevant features for detecting superpixels containing cracks has been developed. Thirdly, an unsupervised learning approach consisting of Gamma Mixture Fuzzy Model based clustering technique and keypoint matching mechanisms have been designed in this work for detecting which road pixels are crack pixels in images. Finally, this study integrates the findings and approaches to propose a Decision Support System for crack detection on road surfaces of easily acquirable front-view scene images. Evaluations performed on an experimentally collected diverse front-view scene image dataset show promising results for crack detection using the developed approaches in this work.