Chief Editors: Mr. Irshadullah Asim Mohammed, Dr. Yogesh Mohan Gosavi, and Prof. (Dr.) Vineeta Kaur Saluja
Associate Editor: Mrs. Sruthi S
Co-Editors: Dr. S. Rajeswari, Dr. Nikhil Saini, and Ms. Atreyee Banerjee
ISBN: 978-81-985805-1-1
Chapter: 26
DOI: https://doi.org/10.59646/mrnc26/321
Author: Mahalingam Jaya
Abstract
Quantum physics has revolutionized material science, enabling groundbreaking advancements in electronics. The interplay between quantum mechanics and material properties has led to the development of novel materials, such as topological insulators, quantum dots, and two-dimensional materials, which exhibit unique electrical, optical, and thermal behaviors. These innovations have been instrumental in designing next-generation electronic devices, including ultra-efficient transistors, quantum computing components, and high-performance semiconductors. This paper explores the fundamental principles of quantum mechanics that influence material behavior, the latest advancements in quantum materials, and their applications in modern electronics. It also discusses the challenges associated with integrating these materials into existing technologies and the future prospects of quantum-driven electronic innovations. By analyzing current research trends and technological breakthroughs, this study provides insights into the transformative role of quantum physics in shaping the future of electronic devices and materials.
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