
Advanced machine learning system for automated apple weight prediction, quality classification, and disease detection using computer vision and ensemble ML models. Built with Flask, XGBoost, and OpenCV for agricultural quality control.
Flask | Python | scikit-learn | XGBoost | OpenCV | Bootstrap 5 | JavaScript | Random Forest | Ridge Regression | Matplotlib | Seaborn | Pillow | NumPy | Pandas
The AI-Powered Apple Weight Estimation and Quality Grading System represents a cutting-edge solution in agricultural technology, combining computer vision and machine learning to revolutionize apple quality assessment. This comprehensive final year project demonstrates practical applications of artificial intelligence in the agricultural sector, making it an ideal choice for students pursuing AI and ML specializations.
This system leverages advanced image processing techniques and ensemble machine learning algorithms to simultaneously predict apple weight in grams, classify quality levels (Fresh, Average, Bad), and detect common apple diseases including Scab, Bitter Rot, and Sooty Blotch & Flyspeck. The multi-faceted approach ensures comprehensive quality assessment, making it valuable for commercial orchards, fruit processing facilities, and quality control laboratories.
The system employs three distinct machine learning algorithms - Random Forest, XGBoost, and Ridge Regression - to predict apple weight with high accuracy. Through comprehensive feature selection methods including Boruta, RFE (Recursive Feature Elimination), and Random Forest Importance, the model achieves optimal performance by identifying the most relevant features from image data and quality metrics.
Advanced classification algorithms categorize apples into three quality grades based on multiple parameters extracted from images and CSV data. The quality grading system considers factors such as color consistency, size uniformity, surface texture, and other visual indicators to provide reliable quality assessments.
Utilizing computer vision techniques powered by OpenCV, the system identifies three major apple diseases:
Built with Flask and Bootstrap 5, the responsive web application provides an intuitive user experience. Users can upload apple images through file upload or camera capture, receiving instant predictions with detailed metrics including R-squared scores, MSE, RMSE, MAE, and MAPE values.
The feature extraction pipeline processes both image data from the Fruits-360 dataset and tabular data from apple_quality.csv, creating a rich feature set that captures color histograms, texture features, morphological characteristics, and quality indicators.
The system evaluates models across three different split ratios (80-20, 70-30, 60-40) to ensure robustness and detect overfitting. This comprehensive evaluation approach provides confidence in model generalization.
Each training session produces detailed outputs including feature selection reports, model comparison charts, actual vs predicted plots, residual analysis, correlation heatmaps, and R-squared performance across splits.
Orchard owners and fruit distributors can implement this system for automated quality sorting, reducing manual labor costs while improving consistency and accuracy in grading operations. The disease detection capability enables early intervention, minimizing crop losses and optimizing harvest timing.
Processing facilities can utilize the weight estimation feature for portion control, inventory management, and pricing optimization. Quality classification ensures only premium-grade apples reach high-value markets.
Agricultural research institutions can leverage this AI and ML project for studying fruit development patterns, disease progression, and quality factors. The comprehensive data analytics provide insights for breeding programs and cultivation optimization.
Logistics companies handling fruit transportation can use quality predictions to optimize storage conditions, shelf-life estimation, and market allocation decisions.
This project serves as an excellent final year project for computer science and engineering students, demonstrating integration of machine learning, computer vision, and web development technologies in solving real-world agricultural challenges.
The Flask-based backend handles image processing, feature extraction, model inference, and API endpoints. The modular architecture separates concerns between data processing, model training, and web serving components.
The ML pipeline implements a sophisticated workflow:
The responsive frontend built with HTML5, Bootstrap 5, and modern JavaScript provides a seamless user experience across devices. Features include drag-and-drop image upload, real-time camera capture, and dynamic result visualization.
Trained models are serialized using pickle, ensuring fast loading times and consistent predictions. Configuration files maintain model versioning and feature sets for reproducibility.
Students implementing this project will gain hands-on experience in:
The project utilizes two data sources:
The system exposes four RESTful endpoints:
This project stands out as an exceptional AI final year project because it:
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Complete package includes:
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We'll install and configure the project on your PC via remote session (Google Meet, Zoom, or AnyDesk).
1-hour live session to explain logic, flow, database design, and key features.
Want to know exactly how the setup works? Review our detailed step-by-step process before scheduling your session.
Fully customized to match your college format, guidelines, and submission standards.
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