Grain Type Identification Using Machine Learning

byBharath kumar jm

Project Title Grain Type Identification Using Machine Learning 1. Project Overview This project aims to develop a mobile application that can identify different types of grains using Machine Learning and Image Processing. The user captures or uploads an image of a grain, and the system predicts the grain type such as: Rice Wheat Maize Green gram Chickpea Corn Lentils The project uses: Image Classification Convolutional Neural Network (CNN) Mobile/Web Interface 2. Problem Statement Farmers, traders, and consumers often face difficulty in identifying grain varieties accurately. Manual identification requires expertise and consumes time. This project proposes an AI-based mobile application that automatically identifies grain types from images using machine learning techniques. 3. Objectives To classify grain types using image processing To train a machine learning model for accurate prediction To build a simple mobile/web application To improve agricultural automation

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System Requirements

System Requirement Document
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Grain Type Identification Using Machine Learning

Introduction

The "Grain Type Identification Using Machine Learning" project aims to develop a mobile and web application that utilizes machine learning and image processing to identify different types of grains. This application is designed to assist farmers, traders, and consumers in accurately identifying grain varieties, thereby saving time and reducing the need for expert knowledge.

System Overview

The system will leverage image classification techniques, specifically Convolutional Neural Networks (CNN), to predict grain types from images. Users will be able to capture or upload images of grains, and the system will identify the grain type, such as rice, wheat, maize, green gram, chickpea, corn, or lentils. The application will be accessible via both mobile and web interfaces, ensuring ease of use and accessibility.

Functional Requirements

  • As a User, I should be able to upload an image of a grain for identification.
  • As a User, I should receive a prediction of the grain type after uploading an image.
  • As a User, I should be able to view a list of previously identified grains.
  • As a User, I should receive feedback on the confidence level of the prediction.
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User Personas

  • Regular User: Individuals such as farmers, traders, and consumers who upload images of grains to receive type predictions.

Visuals Colors and Theme

  • primary: #2A9D8F (Teal)
  • primary_light: #A8DADC (Light Teal)
  • secondary: #E76F51 (Coral)
  • accent: #F4A261 (Orange)
  • highlight: #E9C46A (Gold)
  • bg: #F1FAEE (Off White)
  • surface: rgba(42, 157, 143, 0.8)
  • text: #264653 (Dark Blue)
  • text_muted: #6D6875 (Muted Gray)
  • border: rgba(233, 69, 96, 0.2)

Signature Design Concept

Imagine a dynamic landing page where users are greeted with an interactive 3D grain field. Using @react-three/fiber and @react-three/drei, the homepage features grains that users can click on to learn more about each type. As users hover over different grains, they animate slightly, providing a tactile feel. The background subtly shifts colors based on the time of day, using gsap for smooth transitions. This immersive experience not only educates but also engages users in a visually captivating manner.

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Interaction Model & Motion Direction

The landing page will employ a "parallax" interaction model, creating a layered depth effect as users scroll. Decorative elements like floating grains and atmospheric particles will move at different speeds, enhancing the storytelling aspect. Internal pages will maintain a "static" model for clarity and ease of use, focusing on functionality over decoration.

Non-Functional Requirements

  • The application should load predictions within 3 seconds.
  • The system must handle at least 100 concurrent users.
  • The application should be accessible on both mobile and web platforms.

Tech Stack

  • Frontend: React for Web, React Native for mobile app
  • Backend: Python, FastAPI
  • Database: MySQL or MariaDB, using Alembic for migrations
  • AI Models: Convolutional Neural Network (CNN)
  • Local Orchestration: Docker, docker-compose
  • Server-side Orchestration: Kubernetes

Assumptions and Constraints

  • The system assumes users have internet access to upload images and receive predictions.
  • The application is constrained to identifying only the specified grain types.
  • The system will primarily support the Indian locale and timezone.
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Glossary

  • CNN: Convolutional Neural Network, a class of deep neural networks, most commonly applied to analyzing visual imagery.
  • Parallax: A scrolling technique where background images move slower than foreground images, creating an illusion of depth.
  • Orchestration: The automated configuration, management, and coordination of computer systems, applications, and services.

This document outlines the comprehensive plan for developing the "Grain Type Identification Using Machine Learning" application, ensuring a seamless and engaging user experience.

Landing design preview
Landing: View Platform
Landing: Upload Grain Image
Register: Create Account
Login: Sign In
Identify: Upload Image
Identify: View Prediction
Identify: View Confidence Score
History: View Past Identifications
History: View Grain Details
Profile: View Profile
Profile: Edit Info