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Auteurs principaux: Lal, Siddhartha, Shreshtha, Mayank
Format: Preprint
Publié: 2024
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Accès en ligne:https://arxiv.org/abs/2501.00447
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author Lal, Siddhartha
Shreshtha, Mayank
author_facet Lal, Siddhartha
Shreshtha, Mayank
contents Almost a century on from the culmination of the first revolution in quantum physics, we are poised for another. Even as we engage in the creation of impactful quantum technologies, it is imperative for us to face the challenges in understanding the phenomenology of various emergent forms of quantum matter. This will involve building on decades of progress in quantum condensed matter physics, and going beyond the well-established Ginzburg-Landau-Wilson paradigm for quantum matter. We outline and discuss several outstanding challenges, including the need to explore and identify the organisational principles that can guide the development of theories, key experimental phenomenologies that continue to confound, and the formulation of methods that enable progress. These efforts will enable the prediction of new quantum materials whose properties facilitate the creation of next generation technologies.
format Preprint
id arxiv_https___arxiv_org_abs_2501_00447
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle The Physics of Quantum 2.0: Challenges in understanding Quantum Matter
Lal, Siddhartha
Shreshtha, Mayank
Strongly Correlated Electrons
Materials Science
Superconductivity
Quantum Physics
Almost a century on from the culmination of the first revolution in quantum physics, we are poised for another. Even as we engage in the creation of impactful quantum technologies, it is imperative for us to face the challenges in understanding the phenomenology of various emergent forms of quantum matter. This will involve building on decades of progress in quantum condensed matter physics, and going beyond the well-established Ginzburg-Landau-Wilson paradigm for quantum matter. We outline and discuss several outstanding challenges, including the need to explore and identify the organisational principles that can guide the development of theories, key experimental phenomenologies that continue to confound, and the formulation of methods that enable progress. These efforts will enable the prediction of new quantum materials whose properties facilitate the creation of next generation technologies.
title The Physics of Quantum 2.0: Challenges in understanding Quantum Matter
topic Strongly Correlated Electrons
Materials Science
Superconductivity
Quantum Physics
url https://arxiv.org/abs/2501.00447