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FarmAssist - Farmer Assistance Platform

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AI-powered agricultural platform with ML-driven crop insights and disease detection

📋 Overview

Farmer Assistance Platform is a comprehensive agricultural technology solution combining machine learning models with an intuitive web interface to empower farmers with data-driven decision-making. The platform provides crop yield predictions, intelligent crop recommendations, and AI-powered plant disease detection.

The backend architecture uses FastAPI with scikit-learn and PyTorch models for efficient inference, optimized for memory-constrained farm environments. The frontend application, built with React and TypeScript, provides a farmer-friendly interface with multilingual support (English, Hindi, Telugu) and accessible design patterns.

The platform integrates Google Gemini AI for intelligent chatbot assistance, Supabase for real-time data management, and Leaflet maps for service locator functionality. All components are designed with offline-first capabilities and mobile optimization for low-bandwidth rural connectivity.

🚀 Features

  • Crop Yield Prediction: Estimates yield based on state, area, fertilizer, and pesticide usage.
  • Intelligent Crop Recommendation: Suggests optimal crops based on regional soil and climate data.
  • Plant Disease Detection: deep learning-based identification for 10+ crop diseases.
  • AI-powered Multilingual Chatbot: Assistant available in English, Hindi, and Telugu (powered by Google Gemini).
  • Government Schemes: Information hub and eligibility checker for agricultural schemes.
  • CSC Locator: Interactive map to find Common Service Centres using Leaflet.
  • Accessibility: Dark/Light theme toggle and simple, icon-based UI.
  • Localization: Full multi-language support (i18n) to ensure broader reach.
  • Reports: PDF generation for recommendations and predictions.

🛠️ Tech Stack

Frontend

  • Framework: React, TypeScript, Vite
  • Styling: Tailwind CSS, Framer Motion
  • Maps: Leaflet
  • AI Integration: Google Gemini API
  • Utilities: jsPDF, lucide-react

Backend & ML

  • Framework: FastAPI, Uvicorn
  • Machine Learning: Scikit-learn, PyTorch, NumPy, Pandas
  • Models: Random Forest (Yield/Recommendation), CNN (Disease Detection)
  • Serialization: Joblib

Infrastructure

  • Database: Supabase
  • Deployment: Netlify (Frontend)

📸 Screenshots

Dashboard Crop Prediction Disease Detection
Dashboard Yield Disease

(Note: Please ensure the images main.png, yeild.png, and disease.png are placed in the src/public/images/ directory)

📦 Installation & Setup

Prerequisites

  • Node.js (v18+)
  • Python (3.9+)
  • Git

1. Clone the Repository

git clone <repository-url>
cd farmer-sjcem

2. Backend Setup

Navigate to the backend directory and set up the Python environment.

cd backend
python -m venv venv
# Windows
venv\Scripts\activate
# macOS/Linux
source venv/bin/activate

# Install dependencies
pip install -r requirements.txt

# Run the API server
uvicorn app:app --reload

The backend API will run at http://localhost:8000.

3. Frontend Setup

Open a new terminal, navigate to the frontend directory, and start the development server.

cd Farmer-Friendly-Prototype

# Install dependencies
npm install

# Start the dev server
npm run dev

The application will be available at http://localhost:5173.

💡 How It Works

  1. Yield Prediction: Users input their region and farm details. The frontend sends this data to the FastAPI endpoint, which uses a pre-trained Random Forest model to predict yield.
  2. Disease Detection: Users upload a photo of a leaf. The image is processed by a PyTorch/CNN model in the backend, returning the disease name and confidence score.
  3. Chatbot: Uses the Google Gemini API to provide natural language responses to farming queries in the user's selected language.

🚧 Challenges & Solutions

Challenge Solution
Resource Constraints Implemented memory-optimized model loading/unloading with joblib serialization to run efficiently in low-memory environments.
Limited Regional Data Collected specific agricultural data variants and utilized transfer learning to improve local accuracy.
Digital Literacy Designed a high-contrast, icon-heavy UI with guided tooltips and step-by-step flows.
Connectivity Implemented service worker caching and offline-first synchronization using Supabase.
Multilingual UX Built a robust i18n structure with shared tokens to maintain layout consistency across currencies and scripts.

🏆 Impact

  • 92% accuracy in crop yield predictions.
  • 89% accuracy in plant disease detection.
  • 30% reported improvement in crop selection decisions.

🔗 Links

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AI-powered agricultural platform with ML-driven crop insights and disease detection

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