| Description |
1 online resource |
| Contents |
Machine generated contents note: 1. Introduction -- 1.1. A Difficult Problem -- 1.2. The Human Vision System -- 1.3. Practical Applications of Computer Vision -- 1.4. The Future of Computer Vision -- 1.5. Material in This Textbook -- 1.6. Going Further with Computer Vision -- 2. Images -- 2.1. Cameras -- 2.1.1. The Simple Pinhole Camera Model -- 2.2. Images -- 2.2.1. Sampling -- 2.2.2. Quantisation -- 2.3. Colour Images -- 2.3.1. Red-Green -- Blue (RGB) Images -- 2.5.2. Cyan-Magenta -- Yellow (CMY) Images -- 2.5.3. YUV Images -- 2.5.4. Hue Luminance Saturation (HLS) Images -- 2.5.5. Other Colour Spaces -- 2.5.6. Some Colour Applications -- 2.4. Noise -- 2.4.1. Types of Noise -- 2.4.2. Noise Models -- 2.4.3. Noise Generation -- 2.4.4. Noise Evaluation -- 2.5. Smoothing -- 2.5.1. Image Averaging -- 2.5.2. Local Averaging and Gaussian Smoothing -- 2.5.3. Rotating Mask -- 2.5.4. Median Filter -- 3. Histograms -- 3.1. 1D Histograms -- 3.1.1. Histogram Smoothing -- 3.1.2. Colour Histograms -- 3.2. 3D Histograms -- 3.3. Histogram/Image Equalisation -- 3.4. Histogram Comparison -- 3.5. Back-projection -- 3.6. k-means Clustering -- 4. Binary Vision -- 4.1. Thresholding -- 4.1.1. Thresholding Problems -- 4.2. Threshold Detection Methods -- 4.2.1. Bimodal Histogram Analysis -- 4.2.2. Optimal Thresholding -- 4.2.3. Otsu Thresholding -- 4.3. Variations on Thresholding -- 4.3.1. Adaptive Thresholding -- 4.3.2. Band Thresholding -- 4.3.3. Semi-thresholding -- 4.3.4. Multispectral Thresholding -- 4.4. Mathematical Morphology -- 4.4.1. Dilation -- 4.4.2. Erosion -- 4.4.3. Opening and Closing -- 4.4.4. Grey-scale and Colour Morphology -- 4.5. Connectivity -- 4.5.1. Connectedness: Paradoxes and Solutions -- 4.5.2. Connected Components Analysis -- 5. Geometric Transformations -- 5.1. Problem Specification and Algorithm -- 5.2. Affine Transformations -- 5.2.1. Known Affine Transformations -- 5.2.2. Unknown Affine Transformations -- 5.3. Perspective Transformations -- 5.4. Specification of More Complex Transformations -- 5.5. Interpolation -- 5.5.1. Nearest Neighbour Interpolation -- 5.5.2. Bilinear Interpolation -- 5.5.3. Bi-Cubic Interpolation -- 5.6. Modelling and Removing Distortion from Cameras -- 5.6.7. Camera Distortions -- 5.6.2. Camera Calibration and Removing Distortion -- 6. Edges -- 6.1. Edge Detection -- 6.1.1. First Derivative Edge Detectors -- 6.1.2. Second Derivative Edge Detectors -- 6.1.3. Multispectral Edge Detection -- 6.1.4. Image Sharpening -- 6.2. Contour Segmentation -- 6.2.1. Basic Representations of Edge Data -- 6.2.2. Border Detection -- 6.2.3. Extracting Line Segment Representations of Edge Contours -- 6.3. Hough Transform -- 6.3.1. Hough for Lines -- 6.3.2. Hough for Circles -- 6.3.3. Generalised Hough -- 7. Features -- 7.1. Moravec Corner Detection -- 7.2. Harris Corner Detection -- 7.3. FAST Corner Detection -- 7.4. SIFT -- 7.4.1. Scale Space Extrema Detection -- 7.4.2. Accurate Keypoint Location -- 7.4.3. Keypoint Orientation Assignment -- 7.4.4. Keypoint Descriptor -- 7.4.5. Matching Keypoints -- 7.4.6. Recognition -- 7.5. Other Detectors -- 7.5.1. Minimum Eigenvalues -- 7.5.2. SURF -- 8. Recognition -- 8.1. Template Matching -- 8.1.1. Applications -- 8.1.2. Template Matching Algorithm -- 8.1.3. Matching Metrics -- 8.1.4. Finding Local Maxima or Minima -- 8.1.5. Control Strategies for Matching -- 8.2. Chamfer Matching -- 8.2.1. Chamfering Algorithm -- 8.2.2. Chamfer Matching Algorithm -- 8.3. Statistical Pattern Recognition -- 8.3.1. Probability Review -- 8.3.2. Sample Features -- 8.3.3. Statistical Pattern Recognition Technique -- 8.4. Cascade of Haar Classifiers -- 8.4.1. Features -- 8.4.2. Training -- 8.4.3. Classifiers -- 8.4.4. Recognition -- 8.5. Other Recognition Techniques -- 8.5.1. Support Vector Machines (SVM) -- 8.5.2. Histogram of Oriented Gradients (HoG) -- 8.6. Performance -- 8.6.1. Image and Video Datasets -- 8.6.2. Ground Truth -- 8.6.3. Metrics for Assessing Classification Performance -- 8.6.4. Improving Computation Time -- 9. Video -- 9.1. Moving Object Detection -- 9.1.1. Object of Interest -- 9.1.2. Common Problems -- 9.1.3. Difference Images -- 9.1.4. Background Models -- 9.1.5. Shadow Detection -- 9.2. Tracking -- 9.2.1. Exhaustive Search -- 9.2.2. Mean Shift -- 9.2.3. Dense Optical Flow -- 9.2.4. Feature Based Optical Flow -- 9.3. Performance -- 9.3.1. Video Datasets (and Formats) -- 9.3.2. Metrics for Assessing Video Tracking Performance -- 10. Vision Problems -- 10.1. Baby Food -- 10.2. Labels on Glue -- 10.3. O-rings -- 10.4. Staying in Lane -- 10.5. Reading Notices -- 10.6. Mailboxes -- 10.7. Abandoned and Removed Object Detection -- 10.8. Surveillance -- 10.9. Traffic Lights -- 10.10. Real Time Face Tracking -- 10.11. Playing Pool -- 10.12. Open Windows -- 10.13. Modelling Doors -- 10.14. Determining the Time from Analogue Clocks -- 10.15. Which Page -- 10.16. Nut/Bolt/Washer Classification -- 10.17. Road Sign Recognition -- 10.18. License Plates -- 10.19. Counting Bicycles -- 10.20. Recognise Paintings |
| Summary |
"Explains the theory behind basic computer vision and provides a bridge from the theory to practical implementation using the industry standard OpenCV librariesComputer Vision is a rapidly expanding area and it is becoming progressively easier for developers to make use of this field due to the ready availability of high quality libraries (such as OpenCV 2). This text is intended to facilitate the practical use of computer vision with the goal being to bridge the gap between the theory and the practical implementation of computer vision. The book will explain how to use the relevant OpenCV library routines and will be accompanied by a full working program including the code snippets from the text. This textbook is a heavily illustrated, practical introduction to an exciting field, the applications of which are becoming almost ubiquitous. We are now surrounded by cameras, for example cameras on computers & tablets/ cameras built into our mobile phones/ cameras in games consoles; cameras imaging difficult modalities (such as ultrasound, X-ray, MRI) in hospitals, and surveillance cameras. This book is concerned with helping the next generation of computer developers to make use of all these images in order to develop systems which are more intuitive and interact with us in more intelligent ways. Explains the theory behind basic computer vision and provides a bridge from the theory to practical implementation using the industry standard OpenCV libraries Offers an introduction to computer vision, with enough theory to make clear how the various algorithms work but with an emphasis on practical programming issues Provides enough material for a one semester course in computer vision at senior undergraduate and Masters levels Includes the basics of cameras and images and image processing to remove noise, before moving on to topics such as image histogramming; binary imaging; video processing to detect and model moving objects; geometric operations & camera models; edge detection; features detection; recognition in images Contains a large number of vision application problems to provide students with the opportunity to solve real problems. Images or videos for these problems are provided in the resources associated with this book which include an enhanced eBook "-- Provided by publisher |
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"Explains the theory behind basic computer vision and provides a bridge from the theory to practical implementation using the industry standard OpenCV libraries"-- Provided by publisher |
| Bibliography |
Includes bibliographical references and index |
| Notes |
English |
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Print version record and CIP data provided by publisher |
| Subject |
Computer vision.
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Computer vision -- Computer programs
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COMPUTERS -- Computer Vision & Pattern Recognition.
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Computer vision
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Computer vision -- Computer programs
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Engineering & Applied Sciences.
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Applied Physics.
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| Form |
Electronic book
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| LC no. |
2014011499 |
| ISBN |
9781118848739 |
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111884873X |
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9781118848784 |
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1118848780 |
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1118848454 |
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9781118848456 |
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