Feeds — 2026-04-05

Directly addresses tunable moiré materials and Berry physics—core HIGH PRIORITY interest in moiré heterostructures and flat bands.

Focuses on structural relaxation in twisted bilayer MoTe2 with transfer learning—bridges moiré physics, relaxation methods, and computational techniques.

Theory of excitonic polarons from first principles—directly combines HIGH PRIORITY interests in exciton-phonon coupling, GW/BSE methods, and polaron physics.

Ultrafast topological defect formation in charge density waves—directly addresses HIGH PRIORITY CDW physics with time-resolved ultrafast dynamics.

Polaron engineering for optical properties—targets HIGH PRIORITY polaron physics and electron-phonon coupling in 2D materials.

Foundational 1941-citation review of Raman spectroscopy in graphene-based 2D materials—underpins experimental characterization of core materials (graphene, TMDs).

Highly-cited (993) review of thin-film ferroelectric materials—foundational for understanding strain engineering and materials design principles.

Classic 894-citation review of structure-property relationships in nanocomposites—fundamental for heterointerface engineering and multi-component systems.

High-citation (665) Nature Communications on first-principles cluster catalysis—exemplifies computational materials discovery via DFT-guided design.

Foundational work on top-down fabrication of MoS2 nanoribbons—demonstrates nanostructure engineering principles in 2D TMD materials.

Deep networks for system identification—surprising bridge between neural approaches and materials characterization that could enhance computational workflows.

Latent Dynamics Networks learning spatio-temporal evolution—novel neural ODE approach that could extend JAX-based solvers to complex dynamical systems in materials physics.