PneuXNet An Enhanced Feature Extraction and Transformation Approach for Pneumonia Detection

Project Code :TCMAPY2316

Objective

The primary objective of the Hybrid Quantum project is to develop a hybrid deep learning framework capable of classifying chest X-ray images into four distinct categories: Normal, Pneumonia, COVID-19, and Tuberculosis. This is achieved by combining Convolutional Neural Networks (CNN) for feature extraction with Quantum Support Vector Machine (QSVM) for classification. The CNN is responsible for automatically extracting spatial features such as lung structures and disease indicators from the X-ray images, while QSVM is utilized to classify these features into the appropriate categories, leveraging quantum computing for improved decision boundaries and faster convergence compared to traditional SVMs. Furthermore, Hybrid Quantum incorporates a severity assessment feature, which provides a confidence score for each prediction, helping healthcare professionals assess the reliability of the results. Additionally, the integration of Explainable Quantum AI (XQAI) ensures transparency and interpretability, allowing clinicians to trust and understand the model's reasoning. The aim is to create a comprehensive and efficient tool for respiratory disease detection and assessment.

Abstract

The rise of respiratory diseases such as Pneumonia, COVID-19, and Tuberculosis highlights the need for advanced, accurate diagnostic systems. This paper presents Hybrid Quantum, a novel hybrid deep learning framework designed for multi-class medical image classification and severity assessment. The system classifies chest X-ray images into four categories: Normal, Pneumonia, COVID-19, and Tuberculosis. The model combines Convolutional Neural Networks (CNN) for efficient feature extraction with Quantum Support Vector Machine (QSVM) for classification. CNN excels in automatically extracting relevant spatial features from X-ray images, such as lung structures and disease markers, using convolutional and pooling layers. QSVM is employed to perform the final classification, leveraging quantum computing principles to improve decision boundaries and speed up convergence compared to traditional SVMs. The framework also incorporates severity assessment by generating a confidence score for each classification, helping clinicians assess the certainty of the predictions. Furthermore, Explainable Quantum AI (XQAI) is integrated to enhance transparency and interpretability, allowing healthcare professionals to trust and understand the model's decision-making process. Initial results from testing on a diverse dataset of chest X-rays demonstrate promising classification accuracy and computational efficiency. This hybrid model presents significant potential for real-time clinical decision support and paves the way for future advancements in AI and quantum computing integration for healthcare applications.

Keywords: Multi-class classification, Convolutional Neural Networks (CNN), Quantum Support Vector Machine (QSVM), Explainable Quantum AI (XQAI), Pneumonia, COVID-19, Tuberculosis, Chest X-ray, Severity assessment, Prognosis prediction, Deep learning, Quantum computing, Medical image classification, AI in healthcare, Quantum-enhanced classification, Diagnostic systems.

NOTE: Without the concern of our team, please don't submit to the college. This Abstract varies based on student requirements.

Block Diagram

Specifications

4.1 SOFTWARE REQUIREMENS

Operating System                               :  Windows 7/8/10

Server side Script                                :  HTML, CSS, Bootstrap & JS

Programming Language                     :  Python

Libraries                                              Flask, Pandas, Torch, Keras, Sklearn,                                                                                        Numpy , Seaborn

IDE/Workbench                                  :  VSCode

Server Deployment                             :  Xampp Server

Database                                             :  MySQL    

 

4.2 HARDWARE REQUIREMENTS

Processor                                   - I3/Intel Processor

RAM                                       - 8GB (min)

Hard Disk                                - 128 GB

Key Board                               - Standard Windows Keyboard

Mouse                                      - Two or Three Button Mouse

Monitor                                    - Any

Demo Video