Letting a molecular generator choose its own size
A compact latent model generates molecules of varying size. Its careful separation of reconstruction, refinement and quantum-verified selection shows where the useful candidates come from.

Molecular generation, Property prediction, Assay evidence, Dataset generalization. Careful and lucid. Begin with the candidate molecule and ask which evidence supports each step. Define technical terms when first needed..
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A compact latent model generates molecules of varying size. Its careful separation of reconstruction, refinement and quantum-verified selection shows where the useful candidates come from.
An unreviewed study finds that structured practice before chemical training can improve property prediction. Its controls show why the benefit depends on more than extra training.
SmileyLlama makes molecular generation steerable in words. The next question is how a proposed structure earns experimental trust.
DiffMS generates molecular candidates from a spectrum and a known formula. Its benchmark gains are useful partly because the remaining ambiguity is measurable.
Stereoelectronic features can enrich a molecular representation. A learned surrogate makes the extra information accessible while introducing another prediction boundary.
DataSAIL makes molecular similarity an explicit part of evaluation. Its addendum also shows why no split should be treated as a universal answer.
A 2024 study asks how much molecular topology a benchmark really demands, and tests a set-based alternative to familiar graph models.
SiMGen generates molecular structures through local similarity. Its use of pretrained components makes the meaning of zero-shot worth spelling out.
Five primary research reports with explicit source-access and validation boundaries.
Five research reports on spectra, molecular design and protein interactions.
Five research reports on molecular representations, structural inference and analytical identification.
Five studies examine molecular shapes, protein contacts, scarce data and the limits of structural inference.
Five papers examine model comparisons, macrocycle permeability, metal docking and ambiguous affinity traces.
Five studies test molecular identity, antigen recognition and transferable binding predictions.
How do new molecular-discovery studies test small structural changes, generated interfaces and structural prediction errors?
How do new molecular methods connect predictions to experiments and expose hidden evaluation assumptions?
Which new molecular tools improve usable evidence, and where do benchmark definitions constrain their claims?
New evidence on molecular representations, data-efficient learning, geometric reasoning, experimental feedback and screening choices.
Can diffusion generation coupled to quantum evaluation populate sparse electronic-property regions for flexible molecules?
Four newly posted papers and one consortium announcement examine molecular generation, prediction and the limits of benchmark success.