Latest Articles for Computational Physics

A study on quantum chaos through out-of-time-order correlators in the sparse SYK model.

New methods improve efficiency in studying complex quantum systems using iPEPS.

Using machine learning to classify entangled and separable quantum states efficiently.

This research explores the link between quantum superposition and spin glass behavior.

Research on symplectic gauge theories reveals new insights into particle behavior.

A new method enhances accuracy and efficiency in neutron transport simulations.

Research reveals insights into single-molecule magnets and their application in quantum technologies.

A novel approach improves simulation of complex bosonic systems for quantum technologies.

New method improves simulation of complex quantum systems interactions.

Learn how electron-phonon interactions impact material properties and the role of computational tools.

This article examines three algorithms for simulating quantum-classical dynamics using the MMST Hamiltonian.

A new approach improves training of neural networks for solving complex physical equations.

An overview of the Xatu code for studying excitons in materials like hBN and MoS.

Using machine learning to improve turbulence simulations through superresolution methods.

New methodologies enhance performance in complex systems with hard dimers.

Exploring the significance of randomness in quantum computing through Brownian circuits.

Researchers refine methods to simulate quantum states with low energy variance effectively.

New techniques improve the efficiency of calculating quantum thermal averages.

Quantum computers face hurdles when addressing chaotic and turbulent systems.

Researchers present a method to improve fermionic calculations in quantum simulations.

Combining quantum techniques with VMC for improved accuracy and speed.

A novel method improves how we study materials that conduct electricity.

Investigating the influence of boundary conditions on deformed superspin chains and their behaviors.

This article examines the energy levels and behavior of quasi-periodic spin chains.

A new approach in theoretical physics enhances parameter analysis in quantum field theories.

A look into Cwebs and their impact on particle interactions.

Exploring holographic QCD's impact on our understanding of baryons and the strong force.

This article investigates mass calculations using various methods in gauge theory.

New numerical techniques offer insights into quantum field theories and particle interactions.

An in-depth look at how relaxing systems behave under various conditions.

Researchers simplify building projected entangled pair states for quantum systems.

Exploring how randomness can influence success in quantum games and tasks.

A new model reveals how measurements affect quantum systems over time.

Introducing BubbleDet for calculating functional determinants in cosmology.

MuST leverages GPU technology to enhance electronic structure calculations in solid materials.

A new method streamlines the study of multiple fermion flavors in particle physics.

Learn how state redistribution improves numerical stability in complex simulations.

A detailed comparison of two Lattice Boltzmann models simulating electrodynamics.

Learn quantum optics basics and perform calculations using MATLAB.

A library for calculating Green's functions in complex quantum systems.