
Explore 't Hooft anomalies in quantum field theory and their connection to fermionic topological phases, focusing on the Abelian group structure in lower dimensions.

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

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

Explore advanced quantum mechanics with a focus on Hubbard and Koopmans functionals, delving into linear response theory and many-body perturbation techniques.

Explore computational workflows for accelerated design of novel materials, focusing on Hubbard and Koopmans functionals from linear response in advanced quantum calculations.

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

Explore the physics of flocking behavior in active matter systems, focusing on fundamental principles and collective dynamics in biological and artificial systems.

Explore active nematics and mechanobiology with Julia M Yeomans, delving into advanced concepts and their applications in biological systems.

Explore quantum phase classification, delving into noncommutative geometry and its applications in understanding complex quantum systems and their properties.

Explore integrable models of mobile impurities in one-dimensional fermion gases, examining nonperturbative solutions, Fredholm determinants, and phenomena like incomplete relaxation and momentum-dependent statistics.

Explore modular approaches for enhancing quantum sensing precision through multiple phase transitions in many-body systems, achieving Heisenberg scaling at phase boundaries.

Explore spin-orbit physics in magnets using density functional theory. Understand electronic structure changes, magnetic interactions, and their impact on condensed matter phenomena.

Explore inertial effects on multi-scale stick-slip dynamics in adhesive tape peeling, uncovering complex instabilities and energy balances through experimental studies and quantitative modeling.

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

Explore quantum error correction's impact on computing feasibility, gauge theories, and many-body physics. Discover connections to topological field theories, fracton physics, and Floquet dynamics.

Explore a systematic method for constructing integrable Lindblad systems and discover a new range 3 integrable deformation of the Hubbard model in both Hermitian and Lindbladian formulations.

Explore Z_2 index for quadratic gapped Hamiltonians in fermionic systems, with examples and potential extension to finite temperature cases using geometric phase generalization.

Explore the 3D Plaquette Ising Model, subsystem symmetries, and fractons. Delve into classical and quantum versions, unusual scaling properties, and quasiparticle excitations in topological models.

Explore spin-resolved topology in quantum materials, focusing on bulk properties of spinful 3D insulators and their distinct responses using advanced characterization tools.

Explore novel field theories with half-boson degrees of freedom per lattice site, examining gapless systems, topological properties, and connections to critical spin chains.

Explore massive spin-2 modes in Fractional Quantum Hall effect and quantum field theory, comparing observations with Fierz-Pauli description and discussing higher-spin generalizations.