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 Duration 28 hours

Course Outline

Image Fundamentals and MATLAB Image Processing

1. Introduction to Digital Image Processing

  • Concepts of digital images and pixels
  • Image dimensions, resolution, and data types
  • Overview of the MATLAB Image Processing Toolbox
  • Grasping the fundamental image-processing workflow

2. Importing and Visualizing Images

  • Loading images into MATLAB
  • Displaying and examining image properties
  • Managing image dimensions and data types
  • Evaluating different image representations

3. Working with Color Images

  • Understanding RGB color images
  • Accessing individual red, green, and blue channels
  • Merging and modifying color channels
  • Converting between various color representations

4. Grayscale and Binary Images

  • Transforming RGB images into grayscale
  • Comprehending intensity values
  • Generating binary images
  • Basics of thresholding
  • Contrasting grayscale and binary representations

5. Image Masks and Regions of Interest

  • Understanding the concept of image masks
  • Generating logical masks
  • Applying masks to images
  • Identifying and analyzing specific regions of interest

6. Saving and Exporting Images

  • Storing processed images
  • Managing various image formats
  • Exporting outcomes for subsequent analysis

Hands-on exercise: Construct a fundamental MATLAB workflow to load, examine, manipulate, mask, and save an image.

Image Enhancement, Noise Reduction, Registration and Feature Detection

1. Interactive Image Analysis

  • Interactively exploring images
  • Examining pixel values and specific image regions
  • Selecting specific regions of interest
  • Contrasting original and processed images

2. Image Enhancement

  • Enhancing image clarity
  • Modifying image intensity
  • Improving contrast
  • Preparing images for further analysis

3. Noise and Image Restoration

  • Understanding common types of image noise
  • Recognizing noise within images
  • Implementing smoothing techniques
  • Evaluating different noise-reduction strategies
  • Balancing noise removal with the preservation of image details

4. Image Alignment and Registration

  • Understanding the principles of image registration
  • Aligning images with differing viewpoints or positions
  • Choosing suitable registration methods
  • Assessing alignment accuracy

5. Creating Panoramic Images

  • Merging overlapping images
  • Identifying corresponding image features
  • Aligning and blending images
  • Constructing a panoramic scene

6. Detecting Geometric Features

  • Detecting straight lines
  • Detecting circles
  • Understanding the concept of the Hough transform
  • Applying line and circle detection to real-world images

Hands-on exercise: Eliminate noise from an image, align multiple images, create a panorama, and detect geometric features.

Histograms, Filtering and Image Segmentation

1. Image Histograms

  • Understanding intensity distributions in images
  • Generating and interpreting histograms
  • Performing histogram-based image analysis
  • Leveraging histograms to aid in threshold selection
  • Comparing image characteristics via histograms

2. 2D Image Filtering

  • Understanding spatial filtering
  • Fundamentals of image convolution
  • Designing 2D filter kernels
  • Applying filters to images
  • Smoothing and sharpening effects
  • Comparing responses from different filters

3. Edge Detection

  • Understanding image edges
  • Gradient-based edge detection
  • Detecting object boundaries
  • Selecting suitable edge-detection methods
  • Enhancing edge detection via preprocessing

4. Object Segmentation

  • Introduction to image segmentation
  • Isolating foreground objects from backgrounds
  • Threshold-based segmentation
  • Intensity-based segmentation
  • Assessing segmentation outcomes

5. Color-Based Segmentation

  • Understanding color spaces
  • Selecting relevant color information
  • Segmenting objects based on color attributes
  • Managing variations in illumination

6. Texture-Based Segmentation

  • Understanding texture information
  • Identifying objects using texture characteristics
  • Integrating texture information with other segmentation techniques

Hands-on exercise: Develop a comprehensive segmentation workflow utilizing filtering, edge detection, intensity, color, and texture information.

Automated Image Analysis, Morphology and Object Measurement

1. Batch Image Processing

  • Understanding automated image-processing workflows
  • Reading multiple images from a directory
  • Applying consistent processing steps to image collections
  • Storing and organizing analysis results
  • Creating reusable MATLAB scripts for image analysis

2. Morphological Image Processing

  • Introduction to mathematical morphology
  • Structuring elements
  • Erosion and dilation operations
  • Opening and closing operations
  • Filling holes and eliminating unwanted regions
  • Refining binary segmentation results

3. Shape-Based Object Segmentation

  • Identifying objects based on shape
  • Separating connected objects
  • Removing small or irrelevant objects
  • Refining object boundaries
  • Integrating segmentation and morphological techniques

4. Measuring Object Properties

  • Detecting individual objects
  • Measuring object area and perimeter
  • Bounding boxes and centroids
  • Shape and geometric measurements
  • Extracting object properties for further analysis

5. Quantitative Image Analysis

  • Transforming image-processing results into numerical data
  • Generating measurement tables
  • Comparing objects
  • Identifying objects based on measured properties
  • Exporting analysis results

6. End-to-End Image Processing Workflow

Participants will integrate the techniques acquired throughout the course to develop a complete image-analysis workflow:

Image acquisition → preprocessing → enhancement → filtering → segmentation → morphological processing → object detection → measurement → reporting

Hands-on exercise: Develop an automated MATLAB application that processes a collection of images, segments objects, extracts shape properties, and produces quantitative results.

Practical Exercises

Throughout the course, participants will engage in practical examples covering:

  • Image enhancement and visualization
  • Analysis of RGB and grayscale images
  • Noise reduction
  • Image filtering
  • Panorama creation
  • Line and circle detection
  • Edge detection
  • Color and texture segmentation
  • Morphological processing
  • Shape-based object detection
  • Object measurement
  • Automated batch processing

Requirements

Fundamental understanding of computer programming and images.

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