YoVDO

A Tale of Two Kinds of Superconducting Nickelates

Offered By: International Centre for Theoretical Sciences via YouTube

Tags

Superconductivity Courses Materials Science Courses Electronic Structure Courses Condensed Matter Physics Courses Quantum Materials Courses Strongly Correlated Systems Courses

Course Description

Overview

Save Big on Coursera Plus. 7,000+ courses at $160 off. Limited Time Only!
Explore the fascinating world of superconducting nickelates in this 52-minute lecture by Frank Lechermann at the International Centre for Theoretical Sciences. Delve into the intricacies of two distinct types of superconducting nickelates as part of the "Engineered 2D Quantum Materials" program. Gain insights into emergent electronic, magnetic, and topological phenomena in two-dimensional synthetic structures of quantum materials. Discover how reduced dimensionality and frustrated coupling across 2D interfaces can lead to new electronic band structures and host emergent behaviors. Learn about artificially engineered heterostructures, including oxide interfaces, twisted van der Waals materials, and other novel moire or layered materials. Explore topics such as magnetism, topological superconductivity, flat bands, correlated phenomena, and quantum simulators using engineered 2D materials.

Syllabus

A Tale of Two Kinds of Superconducting Nickelates by Frank Lechermann


Taught by

International Centre for Theoretical Sciences

Related Courses

Quantum Phases of Matter - Non-perturbative Luttinger Relations
International Centre for Theoretical Sciences via YouTube
News on Tensor Network Simulations for Quantum Matter and Beyond
Institute for Pure & Applied Mathematics (IPAM) via YouTube
Field-Induced Phenomena and Fermi Surfaces in Strongly Correlated Spin-Triplet Superconductor UTe2
Kavli Institute for Theoretical Physics via YouTube
Superconductivity in Strongly Correlated Systems and Flat-Bands - Bounds
Kavli Institute for Theoretical Physics via YouTube
Numerical Studies of Strongly Correlated Systems - Beating the Exponential Growth in Computation Time
APS Physics via YouTube