Atomically thin 2D metals may be key ingredients in next-generation quantum and information science applications.
Research Highlights
Lipid membranes are fundamental to many biological processes but are fragile, complicating efforts to incorporate them in synthetic systems.
Current approaches of discovering new topological quantum materials, such as (magnetic) Weyl materials, by screening material-databases or rational design suffer from challenges in growing the material in the desired geometry
The dynamic behavior of electron‐beam irradiated Si atoms in the bulk and at the edges of single‐layer graphene is examined using scanning transmission electron microscopy (STEM).
We developed a Lab-on-a-crystal, the materials science analog to lab-on-a-chip, in which multiple functional modes of a thin film can be probed simultaneously.
Selenium and Palladium vacancy defects in PdSe2 can be charged by a tip-gating effect, where the screened Coulomb interaction between the scanning tunneling microscopy (STM) tip and the charged vacancies creates a disk-like
Although hybrid organic-inorganic perovskites (HOIPs) have made impressive progress in applications in solar cells, light emitters, photodetectors, etc., the quest to advance the fundamental understanding of the photo-physics of HOIPs
This work is the first to directly observe symmetry-dependent electron-phonon coupling in black phosphorus (BP).
Protein-repellent (noncharged), few nanometer thick polymer layers were designed with homopolymer chains physisorbed on solids.
Optical metasurfaces have become versatile platforms for manipulating the phase, amplitude, and polarization of light.