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Quantum-Enhanced Machine Learning

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Volume-10 | Issue-3

Last date : 26-Jun-2026

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Quantum-Enhanced Machine Learning


Dhanashri Werulkar | Mahima Choudhari



Dhanashri Werulkar | Mahima Choudhari "Quantum-Enhanced Machine Learning" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Special Issue | Recent Advances in Computer Applications and Information Technology, March 2026, pp.92-97, URL: https://www.ijtsrd.com/papers/ijtsrd101286.pdf

The contemporary trajectory of computational research has witnessed the emergence of hybrid quantum-classical machine learning as a paradigm of considerable significance, one that synthesizes the theoretical advantages posited by quantum information processing with the robust methodological frameworks developed within classical optimization and statistical learning theory. This investigation presents a comprehensive examination of PennyLane, a Python-based framework that establishes a seamless interface between quantum circuit architectures and conventional machine learning workflows, thereby enabling the systematic construction, optimization, and deployment of variational quantum algorithms. The theoretical underpinnings of this work draw substantially from the foundational contributions of Dunjko Taylor and Briegel who established the agent-environment framework for quantum machine learning and demonstrated that quadratic improvements in learning efficiency are theoretically attainable for deterministic epochal environments through their conceptualization of luck-favoring settings. Our implementation extends these theoretical principles into practical application domains through the development and empirical evaluation of quantum kernel methods, variational quantum eigensolvers, portfolio optimization algorithms, and integrated hybrid architectures that interface with classical machine learning frameworks including PyTorch TensorFlow and JAX. The methodological approach employs concrete Python implementations utilizing widely adopted libraries such as scikit-learn for baseline comparisons pandas for data manipulation and matplotlib for visualization, thereby demonstrating how PennyLane facilitates efficient quantum circuit construction, automatic differentiation through the parameter-shift rule, and hybrid optimization workflows that leverage classical gradient-based methods for quantum parameter updates. Experimental evaluations conducted across multiple domains including medical imaging classification financial portfolio optimization and generative modeling demonstrate that hybrid quantum-classical architectures consistently achieve superior performance metrics relative to classical baselines, with accuracy improvements reaching 3.6 percent on medical imaging tasks and training time reductions of 33 to 37 percent. The 8- qubit circuit configurations consistently outperformed their 4-qubit counterparts, suggesting that increased quantum resources within Noisy Intermediate-Scale Quantum constraints provide enhanced feature representation capabilities. By situating PennyLane within the broader theoretical context established by quantum computing and machine learning research, this work articulates its role as a methodological building block for quantum- enhanced data science and provides researchers and practitioners with a comprehensive reference that bridges foundational quantum computing concepts with applied machine learning practice. Our goal is to provide researchers and practitioners with a concise reference that bridges foundational quantum computing concepts and applied machine learning practice, making PennyLane a default citation for hybrid quantum-classical workflows in Python-based research.

Quantum-Enhanced Machine Learning, Hybrid Quantum–Classical Computing, Quantum Artificial Intelligence, Quantum Machine Learning (QML), Variational Quantum Circuits (VQC), Quantum Neural Networks (QNN), Noisy Intermediate-Scale Quantum (NISQ), Quantum Feature Mapping, Quantum Optimization Algorithms, Hybrid Deep Learning Models.


IJTSRD101286
Special Issue | Recent Advances in Computer Applications and Information Technology, March 2026
92-97
IJTSRD | www.ijtsrd.com | E-ISSN 2456-6470
Copyright © 2019 by author(s) and International Journal of Trend in Scientific Research and Development Journal. This is an Open Access article distributed under the terms of the Creative Commons Attribution License (CC BY 4.0) (http://creativecommons.org/licenses/by/4.0)

International Journal of Trend in Scientific Research and Development - IJTSRD having online ISSN 2456-6470. IJTSRD is a leading Open Access, Peer-Reviewed International Journal which provides rapid publication of your research articles and aims to promote the theory and practice along with knowledge sharing between researchers, developers, engineers, students, and practitioners working in and around the world in many areas like Sciences, Technology, Innovation, Engineering, Agriculture, Management and many more and it is recommended by all Universities, review articles and short communications in all subjects. IJTSRD running an International Journal who are proving quality publication of peer reviewed and refereed international journals from diverse fields that emphasizes new research, development and their applications. IJTSRD provides an online access to exchange your research work, technical notes & surveying results among professionals throughout the world in e-journals. IJTSRD is a fastest growing and dynamic professional organization. The aim of this organization is to provide access not only to world class research resources, but through its professionals aim to bring in a significant transformation in the real of open access journals and online publishing.

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