Latest Articles for Materials Science

Discover how enhanced machine learning helps improve composite material production.

Research reveals key factors affecting edge plasmons in V-doped bismuth selenide films.

This study reveals methods to generate laser light with high topological charges using quasicrystals.

This study uncovers how disordered materials behave under pressure.

Exploring the role of high-order singularities and flat bands in material properties.

A look at quantum spin chains and the nested algebraic Bethe Ansatz.

Exploring how alcohol affects phase transitions in living materials.

This study examines the unique electronic properties of anisotropic Dirac semimetals using a holographic model.

A new method uses deep learning to improve quantum many-body energy calculations.

Investigating the integration of parafermions and spin qubits for advanced quantum computing.

Examining defects in materials, particularly hexagonal boron nitride, and their implications for technology.

A new look at the Ising model reveals surprising thermodynamic properties.

Exploring phase transitions in quantum systems influenced by infrared radiation.

A new framework addresses complex nonlinear responses in materials.

New methods improve molecular simulations and interactions for better accuracy.

A new method predicts probe positions for clearer imaging in ptychography.

Research reveals distinct properties of miassite under magnetic fields.

New methods improve understanding of molecular interactions and behaviors.

New hydrogenated materials show superconductivity above 80 K, promising future applications.

Innovative method integrates electron density for improved molecular property predictions.

A new algorithm finds low-energy states in quantum systems despite noise.

An overview of niobium-based superconductors and their applications in modern technology.

Exploring short-range order and local distortions in high entropy oxides.

Exploring how unique shapes influence battery efficiency and durability.

A new FFT-based method improves the study of materials with complex microstructures.

A fresh approach reveals how tiny particles interact under various conditions.

Overview of new developments in crystal technology for double-beta decay studies.

This article explores how vacancies affect graphene's unique properties and potential applications.

Exploring the thermoluminescent properties of Gadolinium aluminate for radiation measurement.

Researchers achieve long-distance polariton propagation at room temperature using perovskite metasurfaces.

This article explores how heavy and light particles interact with changing energy surfaces.

Exploring the potential of lead-free antiferroelectric materials for energy storage solutions.

Research reveals the unique properties of spinel oxides like CrO.

New multi-focus ptychography techniques improve imaging of thick materials at atomic scale.

A new approach uses machine learning to predict tensor properties of crystalline materials accurately.

We analyze numerical methods for the Cahn-Hilliard equation on changing surfaces.

Efficiently converting microwave signals to optical signals is crucial for quantum systems.

Exploring the interactions influencing electron pair formations in layered materials.

This paper discusses hyperuniformity and random measures across different spaces.

A model to reduce beam damage in scanning transmission electron microscopy.