Latest Articles for Computer Modeling

Learn how modern techniques speed up wave problem solving.

New methods improve understanding of heart issues in infants.

A fresh approach enhances drug candidate generation and effectiveness in pharmaceutical research.

Bayesian emulators enhance decision-making in petroleum well control under uncertainty.

New model helps predict microstructure changes during heat treatments in LPBF-processed alloy.

Machine learning tools like CHGNet reshape materials research and predictions.

Comparing three surrogate models to enhance weather forecasting accuracy.

This study explores how AI can mimic human visualization of moving flags.

New model reveals key processes in star cluster evolution.

A look into how intermediate-mass stars evolve and the factors affecting their models.

HTOCSP speeds up predictions for organic crystal structures using automated methods.

New methods improve material behavior predictions using advanced neural networks.

Using deep learning to improve data assimilation for weather forecasting.

GenMS transforms material research by generating new crystal structures from simple language inputs.

Researchers develop an innovative model for studying dark matter halos.

New models enhance prediction of material properties through atomic arrangements.

A look at the ARP-GEM1 model's improvements in climate prediction.

This study examines how temperature and angle impact mixed convective flow.

A computer model improves predictions for cancer drug combinations, enhancing treatment plans.

Discover how randomness improves weather predictions and climate understanding.

A study comparing codes modeling blazar energy emissions and neutrinos.

A new dataset transforms how we build 3D models from text.

Discover how microstructures impact engineering through geometric modeling.

A look into quantum annealing and its effects on materials like -CoV O.

New models accelerate predictions of turbulent flow for innovative design.

New techniques enhance surgery simulations for complex vascular conditions.

Discover how innovative models are changing our understanding of bacterial communities.