
Embark on a complete learning path in computer vision, from Python basics and NumPy to OpenCV image processing, real-time object tracking, OCR, RoboFlow labeling, and YOLO training.
Computer vision detects dogs accurately in images videos
Computer vision identifies bees inside hive environments accurately
Computer vision detects birds accurately across diverse natural environments
Computer vision detects cats accurately in images videos
Computer vision detects fire early in complex visual scenes
Computer vision detects fish underwater in realtime environments
Computer vision detects fruits on trees in orchards
Computer vision detects rodents in natural outdoor environments
Computer vision detects harmful insects on vegetables accurately
Computer vision detects snakes accurately in natural environments
Computer vision detects bears in natural wildlife environments
Computer vision identifies ground objects from aerial imagery accurately
Computer vision detects fishing ships in maritime environments
Computer vision detects luggage accurately in busy airport scenes
Computer vision detects eggs accurately on moving conveyor systems
Computer vision distinguishes genuine and counterfeit banknotes accurately
Computer vision detects bags accurately on factory conveyor systems
Computer vision detects bottle caps on industrial production lines
Computer vision detects bolts and nuts in industrial scenes
Computer vision detects skin abnormalities from medical images and videos
Computer vision tracks ball movement in foosball games
Computer vision detects football players from aerial camera views
Computer vision identifies dangerous gases in volcanic emission streams
Computer vision detects shrimp accurately in underwater environments
Computer vision detects scorpions on soil in natural environments
Computer vision identifies plants and monitors growth stages accurately
Computer vision detects basketball players from top-down views
Computer vision detects gloves accurately in laboratory environments
Computer vision detects mobile phone usage in workplace environments
Computer vision identifies components of industrial machinery accurately
Computer vision identifies mechanical components in complex industrial systems
Computer vision identifies edible nuts in food processing lines
Computer vision detects backgammon pieces on game boards
Computer vision detects the moon in night sky images
Computer vision verifies postal package integrity and correctness
Computer vision detects damaged potholes on asphalt road surfaces
Computer vision identifies spinal vertebrae in MRI images
Computer vision identifies lung lesions in cancer patients
Computer vision detects surgical instruments in operating room scenes
Computer vision detects safety helmets in workplace environments
Computer vision identifies critical equipment in airport environments
Computer vision detects people in crowded airport environments
Computer vision identifies critical signs inside aircraft cabins
Computer vision identifies fuel supply systems in airport environments
Computer vision detects microscopic water particles using imaging
Computer vision detects aircraft wheels during ground operations
Computer vision identifies aircraft loading systems in airport environments
Computer vision tracks sparse trees across desert landscapes
Create variables to store a name and an age, then print welcome messages. Show how to use f-strings for formatted output, add a decorative separator, and print a multiline message.
Explore variables, data types, and operators in Python, and build a small program step by step to practice basic programming and calculations with numbers and text.
Explore conditional statements in Python by using if and else to make decisions, and learn to check numbers, temperatures, and students' scores with simple code.
Explore how loops power Python code by iterating over lists, using for and while loops, and applying break to stop a loop.
Explore Python lists as a powerful tool for storing multiple pieces of information in one place, access and modify elements, and loop through data to keep code clean and efficient.
Master Python lists by creating and manipulating lists, indexing and slicing, combining and repeating, and modifying with append, insert, remove, and pop, plus looping and nested lists.
Explore tuples, dictionaries, and sets in Python, learning immutable ordered data, fast key-value lookups, and set operations like union, intersection, and difference.
Learn to install and import the psuTL library and monitor real-time system health by checking CPU usage, memory usage, and disk usage in Python.
Set up OpenCV in Visual Studio Code, install and verify libraries, and run your first Python script to load and display an image, establishing the foundation for image processing tasks.
Install OpenCV in Visual Studio Code, import cv2, load an image with cv2.imread, display it with cv2.imshow, wait for a key, and close windows, handling load errors.
Load an image with OpenCV, draw a rectangle with cv2.rectangle and add text with cv2.putText, then display with cv2.impshow and save with cv2.imwrite.
Import the OpenCV library, load an image, split it into blue, green, and red channels in BGR order, and visualize each channel to analyze color intensities.
Apply Otsu's thresholding to convert grayscale images into binary images, loading a grayscale image and separating foreground from background for document scanning and object detection.
Import cv2 and numpy, load a grayscale image, convert it to binary via thresholding, define a 5x5 kernel, apply closing to remove noise and display.
Load a grayscale image and apply the Kanye edge detection algorithm, tuning its parameters to identify sharp changes in intensity as edges for improved object detection and shape analysis.
Learn edge detection with OpenCV and NumPy by loading a grayscale image, applying canny edge detection, and displaying results before closing windows.
Load a color image and perform simple corner detection to identify key points where edges meet. Detecting corners aids object tracking, image alignment, and 3D reconstruction by revealing image structure.
Locate a smaller image inside a larger one using template matching with OpenCV, loading both images to identify where the template appears for object detection, quality control, and automation.
Use template matching with OpenCV and NumPy to load images, convert to grayscale, apply cv2.matchTemplate, threshold, locate matches with NumPy, and draw bounding boxes to visualize detections.
Explore how image histograms depict pixel intensity distributions and apply histogram equalization and CLAHE to enhance contrast in low-contrast images. Visualize histograms with Matplotlib to understand the changes.
Enhance image contrast by applying histogram equalization and Klahe to grayscale images, compute and compare histograms, and visualize results using OpenCV, NumPy, and Matplotlib.
Explore advanced object tracking with OpenCV by detecting and tracking colored objects in real-time video using HSV color space, color masks, bounding boxes, and object labeling.
Use OpenCV and NumPy to load and process video, detecting red, blue, and green objects with HSV color thresholds, drawing bounding boxes and contours, and displaying tracked output.
Extract text from images using Python, OpenCV, and Tesseract OCR through pre-processing, thresholding, and dilation to detect text regions and draw bounding boxes.
Explore advanced shape detection with OpenCV to identify and classify triangles, squares, rectangles, pentagons, and circles using preprocessing, contour detection, and shape recognition in Python.
Learn to build a shape detection pipeline in python with opencv: load an image, convert to grayscale, blur, detect edges, find contours, classify shapes, and annotate the results.
Build a real-time face detection system with MediaPipe FaceMesh and OpenCV by capturing webcam video, detecting facial landmarks, and visualizing results on screen.
Extract and print pixel coordinates for nose tip, left eye, and right eye from the MediaPack face mesh model, converting normalized values to pixels for head position and orientation.
New Version
Explore Roboflow to label images, prepare datasets, and train a YOLO model for real-time object detection. Create a workspace, invite teammates, and configure deployment options for collaboration.
Create a new raw flow project, select object detection to train a YOLO model, then upload images and start labeling with bounding boxes to prepare the dataset.
Learn to annotate images for object detection by drawing bounding boxes and naming objects with manual labeling. Use tools like polygon and smart polygon to create accurate training data.
Learn to speed up image labeling with label assist and box prompting using pre-trained models like mscoco, then refine with smart polygon annotations to achieve precise object labels for training.
Annotate and add images to the dataset, then configure train/validation/test splits and finalize the assignment using 70/20/10 for training and evaluation.
Train your model by selecting custom training, defining a dataset version, and configuring source image, train/test split, and pre-processing options like auto-orient, resize, grayscale, and normalization to optimize learning.
Boost contrast using histogram-based auto-adjustment to improve edge detection and detail under uneven lighting. Learn contrast stretching, histogram equalization, adaptive equalization, and tile pre-processing for small objects in aerial imagery.
Apply data augmentation to improve model generalization by increasing training data diversity through random transformations like flip, rotate, crop, grayscale, exposure, and hue.
Augment training images with saturation, brightness, blur, and noise to improve robustness to lighting. Use cutout, mosaic, and bounding box transformations—flip, rotation, crop, and shear.
Open Colab, create a new notebook, and configure runtime to use the GPU; connect to Google Drive and prepare workspace for data processing and training, installing OpenCV and YOLO dependencies.
Open Google Colab, set a Python 3 runtime with a T4 GPU, install YOLOv12 and required libraries, upload an image, and run object detection with YOLOv12.
Create a RoboFlow project, import images, and label objects using smart polygon tools; apply augmentation with rotated, flipped, and scaled images to prepare a structured dataset for training.
Explore smart labeling techniques in computer vision and deep learning with part a from the course Super 50 real projects in computer vision and deep learning.
Advance YOLO training by selecting YOLO version 12x for accuracy, upgrading to Colab Pro for an A100 GPU, and running 100 epochs to download best.pt.
Test a trained YOLO model on local videos using OpenCV, annotate detected objects by drawing bounding boxes, and save the processed output video to evaluate real-world performance.
Test the YOLO model on local videos on a PC, moving testing from Colab to a local environment, learn to run the model, process video files, and troubleshoot deployment issues.
Install the required libraries, load the trained YOLOv12 model, and run object detection on a video, drawing bounding boxes and labels, and save the result as output_underline_detected.mp4.
Enable real-time object detection with a trained YOLO model using your webcam, drawing bounding boxes and labels via annotators, and displaying live results with OpenCV.
Equip yourself to train, test, and deploy object detection models to elevate your computer vision projects. Turn images into actionable ai models that deliver smarter, more impactful results.
Do you want to truly master Computer Vision and Deep Learning by building real systems, not just watching theory?
This comprehensive course is designed to take you from fundamentals to advanced real-world AI applications by building 50 practical, end-to-end computer vision projects using modern deep learning techniques.
This is not a theory-heavy course.
It is project-driven, hands-on, and industry-focused.
You will work on problems inspired by industry, healthcare, agriculture, robotics, security, sports, satellites, and smart cities, gaining the exact skills companies look for in AI and Computer Vision engineers.
What Makes This Course Different?
50 complete projects — not demos or toy examples
Focus on real-world challenges, datasets, and constraints
Learn how to design, train, evaluate, and deploy vision systems
Strong emphasis on practical workflows and best practices
Suitable for portfolio building, job preparation, and research foundations
Each project is self-contained, with its own dataset, goal, challenges, and final outcome.
What You Will Learn
Throughout the course, you will learn how to:
Use Python for computer vision and deep learning projects
Apply OpenCV for image processing and video analysis
Train and fine-tune deep learning models for detection and classification
Prepare, clean, and label datasets correctly
Work with real camera feeds, videos, medical images, aerial imagery, and industrial data
Build systems that work in real time
Understand when and why to choose specific vision techniques
Think like a Computer Vision Engineer, not just a model trainer
Who This Course Is For
This course is ideal for:
Students who want practical AI skills
Engineers building real vision systems
Researchers needing strong applied foundations
Developers creating portfolio projects
Anyone tired of theory-only AI courses
Basic Python knowledge is helpful, but everything else is taught step by step.
50 Hands-On Computer Vision Projects
Agriculture & Nature
Tree detection in desert environments
Fruit detection on trees
Plant growth monitoring over time
Pest insect detection on vegetables
Rodent detection in natural environments
Bird detection in the wild
Bear detection in forests
Snake detection on soil
Scorpion detection in desert terrain
Bee detection inside beehives
Underwater & Marine
Fish detection underwater
Shrimp detection underwater
Fishing vessel detection at sea
Underwater object recognition
Aquatic species classification
Medical & Healthcare
Skin lesion detection
Lung lesion detection in cancer patients
Spine vertebra detection in MRI images
Surgical instrument recognition
Microscopic particle detection in water
Industry & Manufacturing
Egg detection on conveyor belts
Bag detection on factory conveyors
Bottle cap detection on production lines
Bolt and nut detection
Mechanical component recognition
Industrial machine part detection
Quality inspection of packaged products
Security & Safety
Fire detection in visual scenes
Safety helmet detection at workplaces
Glove detection in laboratories
Mobile phone usage detection at work
Dangerous gas detection near volcanoes
Transportation & Infrastructure
Road pothole detection
Train container detection
Airport equipment detection
Aircraft wheel detection
Aircraft loading system recognition
Airport fuel system detection
Sports & Games
Foosball ball tracking
Basketball player detection from top view
Soccer player detection from aerial view
Backgammon piece detection
Aerial & Satellite Vision
Ground object detection from aerial imagery
Moon detection in night sky images
Aerial people detection
Container detection from aerial footage
Retail & Smart Systems
Currency recognition and verification
Postal package integrity verification
Airport luggage detection
Passenger detection in crowded environments
What You’ll Have at the End
By the end of this course, you will have:
50 complete AI projects you can showcase
Strong confidence in computer vision problem solving
A portfolio suitable for jobs, PhD applications, or startups
The ability to design your own vision systems from scratch
Important Note
Some tools and workflows such as dataset labeling, training pipelines, and evaluation methods may appear across different projects or courses.
However:
Every project uses a different dataset
Every project solves a unique real-world problem
Every project delivers a distinct learning outcome
This course is fully self-contained and designed to give you a complete, professional, and practical Computer Vision experience.