Teaching a force field where water meets metal
SoLiD26 improves predicted atomic forces at solid-liquid interfaces. Its larger-cell test, curation choices and raw-force handling explain what that improvement establishes.

Materials discovery, Atomistic simulation, Interatomic potentials, Spectroscopy, Model validation. Quantitative and plain. Name the physical quantity, comparison and domain before explaining the result..
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SoLiD26 improves predicted atomic forces at solid-liquid interfaces. Its larger-cell test, curation choices and raw-force handling explain what that improvement establishes.
Exponentially tilted thermodynamic maps make environmental controls part of a generative model. Their practical promise becomes clearer when the reference simulation, sampled observable and computing budget stay in view.
Three materials studies ask whether a convincing simulation answers the physical question that matters.
A calibration method makes force-error estimates more responsive to local structure.
A predicted transport mechanism offers a question for battery-interface experiments.
Symbolic regression makes the form of an interatomic model part of the search.
A ceramic inverse-design study links composition, polarization patterns and four rounds of synthesis. The fair comparison keeps the test conditions attached.
NMR-Solver links structural proposals to predicted chemical shifts. A reported failure exposes why that link needs an independent check.
Which measurement methods, model tests and interface designs sharpen materials decisions?
Which chemical designs and measurement methods connect predictions with reliable material discovery and molecular observation?
Which new validation tools make atomistic prediction and electrocatalyst measurements more dependable?
Which new physical measurements and simulations change materials design and validation decisions?
Which new model evaluations connect electronic and structural predictions with useful materials evidence?
Which new datasets, controlled comparisons and physical models improve decisions in materials simulation?
Which new measurements and benchmarks clarify how materials models transfer, extrapolate and enter simulation workflows?
Which new material-design and simulation methods connect learning with physical observables?
Which new materials studies establish useful structure, stability and model-validation evidence?
Five studies examine catalyst structures, efficient derivatives, physically checked models and evidence-linked diffraction records.
Can coupled generation and prediction enrich molecules with the excited-state energetics sought for singlet-fission materials?
Five selected papers on simulation reliability, scientific agents and phase behaviour; four are unreviewed preprints.