Computer Engineered 2D Materials - Host for Unconventional Properties
Offered By: International Centre for Theoretical Sciences via YouTube
Course Description
Overview
Explore the fascinating world of computer-engineered 2D materials and their unconventional properties in this 50-minute lecture by Tanusri Saha Dasgupta. Delve into the cutting-edge research on emergent electronic, magnetic, and topological phenomena in two-dimensional synthetic structures of quantum materials. Learn how reduced dimensionality and the interplay between electronic correlations, spin-orbit coupling, crystal structure, symmetry, and topology lead to novel collective phenomena. Discover the potential of artificially engineered heterostructures, including oxide interfaces, twisted van der Waals materials, and other innovative layered materials. Gain insights into the latest developments in magnetism, topological superconductivity, flat bands, correlated phenomena, and quantum simulators using engineered 2D materials. This lecture is part of the "Engineered 2D Quantum Materials" program organized by the International Centre for Theoretical Sciences, bringing together physicists and materials scientists to explore the frontiers of 2D material engineering and its implications for future technological advancements.
Syllabus
Computer Engineered 2D Materials: Host for Unconventional Properties by Tanusri Saha Dasgupta
Taught by
International Centre for Theoretical Sciences
Related Courses
Quantum Supremacy - Checking a Quantum Computer with a Classical SupercomputerSimons Institute via YouTube Dynamical Control of Electronic Interactions in Quantum Materials - Matteo Mitrano
Kavli Institute for Theoretical Physics via YouTube More and Different - Increasing Diversity in Quantum Materials - KITP Blackboard Talk by Lucile Savary
Kavli Institute for Theoretical Physics via YouTube Physics Matters - Dimensionality in Materials Science by Prof. Antonio Castro Neto
APS Physics via YouTube Magic-Angle Graphene Superlattices - A New Platform for Strongly Correlated Physics
APS Physics via YouTube