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INSPIRATION
The inspiration for the AI Exam Evaluator came from witnessing the overwhelming burden on students facing biased and unfair grading—and on educators, who spend countless hours manually grading exam papers. During conversations with students and professors, I consistently heard the same issues: evaluation consistency, biased grading, and a lack of detailed feedback—different graders might score the same paper differently, and producing comprehensive comments is time-consuming. That’s why I built an AI‑powered solution to keep grading consistent and unbiased while delivering detailed, constructive feedback that helps students improve—and gives educators their time back.
WHAT IT DOES
AI Exam Paper Evaluator
• Accepts scanned PDF versions of O-level, A-level, and IELTS handwritten exam scripts.
• Extracts questions and handwritten answers from multi-page PDFs and divides them into individual cells.
• The system provides grades and intelligent feedback for each response.
• Flag It identifies blank answers and presents the final output for human review. (Human-on-the-Loop Approach)
• Generates and stores reports, marks, feedback, and overall grade.
Question Paper Generation
• Generates Cambridge IGCSE 0653 Science Combined questions (MCQ, short/long answer, numerical, and diagram-based questions)
• The user can change difficulty and topic coverage using settings.
• It follows the Cambridge IGCSE 0653 Science Combined question paper template, and the user can export the generated questions to PDF format.
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📌 Disclaimer
This project has been developed with the assistance of Kiro: Agentic AI development and is released as open-source software under the MIT License. The codebase is AI-generated and/or AI-assisted and is not the proprietary property of any individual or organization. You are free to use, modify, distribute, and build upon this project in accordance with the terms of the MIT License. For additional context and validation, please refer to the supervisor’s recommendation letter provided below:
Abstract
Around the half of the population in the world are affected by oral diseases, making it one of the most common health conditions. Quantum implementation in medical domain has revealed its potential and versatile applicability especially in medical imaging. This paper explores oral disease identification using hybrid quantum-classical neural networks (HQCNN) and quantum convolution neural networks (QCNN). Our work investigates the possibilities of quantum machine learning in processing complicated dental image data and the contributions it can make in oral healthcare. We implemented a hybrid and a pure QNN leveraging Qiskit framework and a whole dataset of annotated oral disease dataset. Our 8 qubit structured QCNN model and 2 qubit architecture of HQCNN model extract the image features by encoding the features into quantum circuits enabling more expressive demonstration employing fewer parameters. The final result showcases that QCNN and HQCNN perform better than CNNs in disease classification and promise better accuracy, generalization and computational efficiency. This experiment highlights a pioneering step in applying quantum inspired models for oral diagnostics, identifying promising avenues for improving oral healthcare worldwide.
Keywords: Quantum Machine Learning, Hybrid Quantum-Classical Neural Networks (HQCNN), Quantum Convolution Neural Networks (QCNN), Oral Diseases Detection, Parameterized Quantum Circuits, Principal Component Analysis (PCA), Angle Encoding
https://www.preprints.org/manuscript/202605.0525
📌 Disclaimer
This Project was promised to teach and help through guidance and mentorship under Mahdy Research Academy’s private thesis program after taking approximately 70,000 BDT, (shared among 6 participants for Part A and Part B); however, The code implementation and quantum machine learning components were self-learned from Qiskit repositories and tutorials and were not guided or assisted by the academy. All coding and writing were carried out independently by the authors (Md. Shakhawat Hossain and Md. Mehedi Hasan), based on publicly available resources including this video tutorial: https://www.youtube.com/watch?v=IohyKm9c4_Q and relevant documents https://qiskit-community.github.io/qiskit-machine-learning/tutorials/11_quantum_convolutional_neural_networks.html, https://files.batistalab.com/teaching/attachments/chem584/vic_hqcnn.pdf; not by the Academy;
This project builds upon the Quantum Convolutional Neural Network (QCNN) framework by Isaac Cong et al., with implementations adapted from IBM’s Qiskit. Parts of the code are modified from original Qiskit resources and retain required Apache License 2.0 notices and attributions. This work is part of a Qiskit-based project and complies with IBM licensing policies. The extended codebase is released under the MIT License, allowing free use, modification, and distribution.
INSPIRATION
Permafrost thaw is a high‑impact climate tipping element. When it destabilizes, carbon and methane releases accelerate global warming. Existing dashboards often treat variables in isolation. Cryo‑Scope fuses temperature anomalies + methane atmospheric context + per‑region risk modeling and automates NASA‑style scientific PDF reporting for immediate decision support.
WHAT IT DOES
Mission: Reduce research latency & increase transparency in Arctic climate intelligence through open, reproducible tooling.
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