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Computer Science
Computer Vision
Computer Vision
1. Introduction to Computer Vision
2. Digital Image Fundamentals
3. Image Processing and Enhancement
4. Feature Detection and Description
5. Image Segmentation
6. Camera Geometry and 3D Vision
7. Motion Analysis and Video Processing
8. Classical Machine Learning for Vision
9. Deep Learning for Computer Vision
10. Core Vision Tasks with Deep Learning
11. Advanced Computer Vision Topics
12. Implementation and Practical Considerations
13. Ethics and Societal Impact
Motion Analysis and Video Processing
Motion Fundamentals
Types of Motion
Rigid Body Motion
Non-Rigid Motion
Articulated Motion
Motion Models
Translation Model
Affine Model
Projective Model
Optical Flow Model
Optical Flow Estimation
Differential Methods
Lucas-Kanade Method
Brightness Constancy Assumption
Spatial Coherence Assumption
Aperture Problem
Horn-Schunck Method
Global Smoothness Constraint
Variational Formulation
Discrete Methods
Block Matching
Phase Correlation
Dense vs Sparse Optical Flow
Dense Flow Fields
Sparse Feature Tracking
Robust Optical Flow
Handling Occlusions
Large Displacement Flow
Multi-Scale Approaches
Object Tracking
Single Object Tracking
Template Matching
Correlation Filters
Discriminative Correlation Filters
Probabilistic Tracking
Kalman Filters
State Space Models
Prediction and Update Steps
Linear and Extended Kalman Filters
Particle Filters
Sequential Monte Carlo
Importance Sampling
Resampling Strategies
Feature-Based Tracking
Keypoint Tracking
Descriptor Matching
Track Management
Multi-Object Tracking
Data Association
Track Initialization and Termination
Handling Occlusions
Video Analysis
Temporal Segmentation
Shot Boundary Detection
Scene Change Detection
Background Modeling
Background Subtraction
Gaussian Mixture Models
Adaptive Background Models
Activity Recognition
Action Classification
Temporal Feature Extraction
Sequence Modeling
Video Stabilization
Motion Estimation
Motion Compensation
Smoothing Strategies
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6. Camera Geometry and 3D Vision
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8. Classical Machine Learning for Vision