
Explore real-time tomato ripeness detection using YOLO v ten to identify ripe and unripe tomatoes, then deploy the system on the web and as a mobile app for field use.
Collect a clean, balanced set of ripe and unripe tomato images under varied lighting and angles to train a ripeness detector. Organize files into images and labels with clear filenames.
Learn to annotate tomato images with Annotate Lab by configuring the project, labeling ripe and unripe tomatoes with bounding boxes for YOLO v2 training.
Annotate ripe and unripe tomatoes using bounding boxes, polygons, or circles in AnnotateLab, then export annotations in COCO format as a COCO JSON for training object detection models.
Perform exploratory data analysis on a tomato ripeness dataset for YOLO training, examining image dimensions, class distribution, mixed images, and bounding box annotations.
Train a yolo v10 tomato ripeness detector and evaluate with precision, recall, IoU, and mAP to show generalization across ripe and unripe classes.
Train YOLO v10 on the tomato ripeness dataset to detect ripe and unripe tomatoes with bounding boxes, using an 80/20 train-val split and 130 training epochs.
Explore how early stopping saves the best YOLO model with high mean average precision for tomato ripeness, while reading box, class, and differential losses with precision and recall.
Export a trained YOLO v1 model for mobile deployment with the ultraluxe yolo flutter package, integrate it into a flutter app, and enable real-time detection of ripe and unripe tomatoes.
Quantize the YOLO model from 32-bit to 16-bit or 8-bit precision. TensorRT f16 yields 2.3x faster inference with nearly identical accuracy and similar size.
Export the best trained weights and deploy the tomato detection model on Hugging Face spaces, using a Gradio app or a Hugging Face interface, and experiment with data and parameters.
Count ripe and unripe tomatoes in real time using a YOLO model and object tracking on video with a Gradio interface, updating frame-by-frame counts via IOU matching.
Measure the operational carbon footprint of an AI model by using CodeCarbon to track emissions in data preparation, training, and inference, and quantify kg CO2e across stages.
Learn how computer vision and artificial intelligence enable waste detection from annotation to training a yolo model that identifies recyclables, paper, and hazardous materials for smarter sorting.
Prepare a waste dataset by selecting seven categories from Kaggle garbage classification v2, extracting ~50 jpg images per class, and renaming with class index.jpg pattern for annotation and yolo conversion.
Annotate waste images with annotate lab to prepare a bounding-box dataset for object detection, labeling items such as cardboard, glass, metal, paper, plastic, and trash for YOLO.
Perform exploratory data analysis on the annotated waste dataset to understand structure, class distribution, and labeling quality before training a YOLO object detector.
Enhance waste detection performance by applying data augmentation to the object detection dataset, with flipping, rotation, and color tweaks and updated YOLO bounding boxes for five augmented versions.
Define the difference between image classification and object detection, showing how detection locates multiple waste items with bounding boxes using YOLO, and guides training a waste detector with Annotate Lab.
Train a yolo v10 nano model on annotated Kaggle waste dataset to detect and classify seven classes plastic, metal, glass using Ultralytics yolo, with a data yaml and 50 epochs.
Are you ready to apply computer vision to real-world problems?
In this hands-on course, you’ll build two complete object detection projects: one for identifying household waste items (like plastic, glass, and paper), and another for detecting ripe and unripe tomatoes using the latest YOLOv10 model.
We’ll walk you through each step of the pipeline from dataset preparation and annotation to training and deploying your own AI models. You'll gain practical experience with tools like Annotate Lab, Gradio, and Ultralytics YOLO, while also learning how data augmentation and evaluation metrics can improve model performance.
Whether you're interested in sustainability, agriculture, or real-time AI applications, this course provides both the theory and implementation you need to bring AI to life.
By the end of this course, you will:
Train a YOLOv10 model to detect ripe vs. unripe tomatoes
Build an object detector for sorting waste categories
Annotate images using Annotate-Lab with YOLO format
Apply data augmentation to boost performance
Deploy your model using Gradio on Hugging Face Spaces
Export and run your model on mobile devices (optional module)
This course is ideal for:
Developers and data scientists curious about object detection
Environmental and agri-tech enthusiasts
Anyone looking to learn YOLOv10 with practical projects
Enroll today and build AI tools that make an impact from waste bins to tomato fields.