#32 · ML / AI methods
Controlling training form and guidance locality for generative design under limited data
The dominant thread is explicit control over what a generative model is trained on or guided by when labeled data are limited. A controlled study of low-data molecular generation reports that randomizing SAFE atom and fragment order raises novel molecule yield 450-fold over canonical SAFE, isolating training representation as the lever. LOCOGEN reformulates diffusion guidance for regulatory DNA design as a locality problem, protecting learned motif positions while damping out-of-distribution guidance. DAPE-PD adapts the autoregressive Evo model into a bidirectional masked diffusion model for promoter generation. Separately, Evo 2 in-context learning is shown to enable few-shot design of proteins, antibodies, and phage genomes, and BEND 2.0 benchmarks DNA language models on variant effect prediction and design. What is new is treating data form, guidance locality, or context as the explicit determinant of performance in these data-constrained settings. The items span molecules, regulatory DNA, and genomes, so the shared thread is methodological rather than a single task.
Preprints
Locality-Controlled Out-of-Distribution Guidance for Robust Regulatory DNA Sequence Design
LOCOGEN reformulates diffusion guidance for regulatory DNA design as a locality problem, protecting learned motif positions and damping OOD guidance only on…
Can agents reliably design therapeutic antibodies?
Benchmarks LLM agents on antibody design: instruction-following fidelity with tools/design history, and an agentic optimizer matching a Bayesian optimization…
BEND 2.0: Benchmarking the Capabilities Needed to Design DNA
BEND 2.0 is a benchmark testing DNA language models on variant effect prediction and sequence design, finding linear readouts and post-training improve…
ProteoCraft: Protein Design as Proposal-Verification Search
ProteoCraft frames protein binder design as tree-based search, using diffusion-model structural gradients as proposals and no-gradient folding verification,…
iGC: Antibody Optimization via Reinforcement Learning over a Learned Somatic Hypermutation Prior
iGC: two-stage RL framework for antibody affinity maturation, learning an SHM mutation prior from B-cell lineage trees and optimizing binding with KL…
Efficient biological design via genomic in-context learning
Shows in-context learning in the genome language model Evo 2 enables few-shot biological sequence design, including proteins, antibodies, and phage genomes,…
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