Strategic Objectives
• Deepen your understanding of two-dimensional crystal lattices and layered structures.
• Decode the complex relationship between electronic doping and quantum phases.
• Explore the frontier of 'strange metals' where quasiparticles cease to exist.
• Master the mechanisms behind the highest-temperature superconductors known to science.
The Core Challenge
Traditional superconductivity theory fails to explain why copper-oxide layers allow electricity to flow without resistance at record-breaking temperatures.
01
The Dawn of High-Tc
02
Perovskite Foundations
03
The Copper-Oxide Plane
04
Crystallography of Cuprates
05
The Mott Insulator State
06
The Art of Doping
07
Hole vs. Electron Doping
08
The Strange Metal Phase
09
The Pseudogap Mystery
10
Quantum Criticality
11
The Hubbard Model
12
BCS Theory and Its Limits
13
Cooper Pairs in Cuprates
14
Angle-Resolved Photoemission Spectroscopy
15
Magnetic Fluctuations
16
Charge Density Waves
17
Strongly Correlated Systems
18
The Role of Oxygen
19
LSCO and YBCO
20
Resonant Inelastic X-Ray Scattering
21
The Future of Layered Materials
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