Physics - Mesoscale and Nanoscale Physics

Exploring the potential of polariton states in thin materials for technology.

Study reveals how voltage and defects affect trilayer graphene's electronic states.

Gatemon qubits show promise in enhancing quantum computing through unique materials and structures.

Research on metasurfaces enhances light control for efficient displays and lighting.

Research reveals how doping changes grain boundaries in ceria-zirconia materials.

New method clarifies classification of nodal line semimetals based on winding numbers.

Graphene-based modulators pave the way for faster data transmission.

Researchers propose a new way to measure corner charges in advanced materials.

Exploring new findings in quantum states, particularly involving charge order and topological order.

Research reveals WSe2's behavior under magnetic fields, highlighting its electronic properties.

Exploring how magnetic fields influence heat movement in unique materials.

Examining how temperature affects charge carrier interactions in HgTe quantum wells.

Research reveals how antifreeze proteins bind and are engulfed by ice.

Doped TMDs show potential for magnetic semiconductor applications in spintronics.

This article explores non-Abelian charges and the measurement of band singularities in materials.

Researchers study how surface charges affect chemical reactions in nanoparticles using advanced techniques.

This article examines nonreciprocal entanglement in cavity magnomechanics and its implications.

Exploring the unique properties and potential of twisted bilayer graphene.

Exploring how machine learning enhances the understanding of the anomalous Hall effect in non-collinear magnets.

Research on cooling magnetic domain walls could improve quantum computing efficiency.

Exploring how particles move through topological pumping in quantum systems.

Enhancements in measurement speed and accuracy for spin qubits are crucial for quantum computing.

Investigating exceptional points in open quantum systems and their implications.

A deep dive into the unique properties of higher-order topological insulators.

An overview of unique properties and potential applications of two-dimensional Weyl semimetals.

Study explores resistance in lead islands on graphene under temperature and electric fields.

Research focuses on error correction methods for quantum computing reliability.

This article details the performance of cryogen-free SPMs with minimized vibrations.

Research on skyrmions and their instabilities offers insights into future data storage solutions.

Examining the behavior of metallic nanowires on semiconducting materials.

Researchers study gold/silver nanoalloys for enhanced properties in various applications.

Exploring the significance of non-Hermitian random matrices in complex physical systems.

Research reveals new insights into light-emitting properties of OCCs in carbon nanotubes.

A look at tunneling dynamics and their implications in quantum mechanics.

New findings on exceptional points reveal intriguing behaviors and their connections to symmetry.

This article explores interactions between light and two-dimensional materials, focusing on exciton-polariton condensates.

MXenes and Janus MXenes show potential for efficient heat-to-electricity conversion.

Examining magnetic states in quantum spin chains through environmental coupling methods.

Research explores superfluid helium's unique phase transitions under controlled conditions.

This study reveals how altermagnets influence the Kondo effect and its applications.