
Delve into quantum geometry principles and electron behavior in vibration sensing, exploring advanced physics concepts through expert insights from Prof. Waghmare's C.V. Raman Lecture.

Explore the fascinating intersection of theoretical physics through an expert discussion on active solids, examining cross-disciplinary approaches and fundamental principles in modern physics research.

Explore maximally localized Wannier functions, their theoretical foundations, and latest advancements in quantum materials research.

Explore advanced quantum mechanics concepts, focusing on phase diagrams and transitions beyond harmonic phonons in materials science.

Explore density-functional perturbation theory and its application to phonon calculations in advanced quantum systems.

Explore ab-initio Green's functions methods for molecules and solids, examining their accuracy and applications in computational materials science.

Explore grain boundaries as natural Brownian ratchets and their directional anisotropy in this insightful lecture by Prof. David Srolovitz from The University of Hong Kong.

Explore quantum simulators' potential in understanding materials, comparing experimental results to classical computation and discussing future implications for condensed matter physics.

Explore quantum criticality on compressible lattices through Lorentz-invariant Φ4 theory, examining renormalization group equations and their implications for dynamical exponents and fixed-points.

Explore phonons and structural transitions using DFT and group theory, advancing understanding of material properties and phase changes.

Explore phonons and structural transitions using DFT and group theory, gaining insights into fundamental concepts and advanced computational techniques.

Explore lattice dynamics through an in-depth seminar, gaining insights into crystal structures and their vibrational properties from expert Prof. Bartomeu Monserrat.

Explore computational methods for studying correlated electron materials, focusing on advanced concepts and techniques in materials science and chemistry.

Explore unexpected thermal transport behaviors in materials, focusing on large thermal Hall effects and unusual phonon interactions with defects in key compounds like SrTiO3 and La2CuO4.

Explore quasicrystalline resonant states and nonlinear Landau fan diagrams in van der Waals superlattices, examining unique electron behaviors in incommensurate configurations and moiré potentials.

Explore flatbands in tight-binding systems, their construction, and effects of disorder and interactions. Discover unconventional phases, metal-insulator transitions, and ergodicity breaking phenomena.

Explore a practical and accurate solution to the Poisson equation in full-potential KKR, focusing on the removed-sphere method for disordered materials.

Explore experimental studies of high entropy oxides and their symmetry-breaking properties in compositionally complex systems.

Explore quantum simulation's multidisciplinary frontiers, from theoretical capabilities to experimental progress in trapped-atom and solid-state platforms, with leading researchers in the field.