Learning inverse folding from millions of predicted structures

ICML 2022 main track (A*)
ПолеЗначение
AuthorsChloe Hsu, Robert Verkuil, Jason Liu, Zeming Lin, Brian Hie, Tom Sercu, Adam Lerer, Alexander Rives
Year2022
Venue / statusICML 2022 main track (A*)
DOI10.48550/arXiv.2204.07148
URLhttps://proceedings.mlr.press/v162/hsu22a.html
Preprint URLhttps://doi.org/10.1101/2022.04.10.487779
ToolsESM-IF1

Задача и claimed novelty

ПолеЗначение
Main biological taskFixed-backbone inverse folding; interface/multistate sequence design
Claimed noveltyNR

Архитектура

ПолеЗначение
Model architectureGVP geometric encoder + autoregressive Transformer
Input representationNR
Encoder / decoderNR
Generative stateSequence and sequence likelihood conditioned on backbone
ConditioningPartial masks, complexes, interfaces, multistate use cases
SamplingNR

Training

ПолеЗначение
Objectives / lossesNR
DatasetNR
PreprocessingNR

Inference

NR

Baselines и retrospective benchmarks

ПолеЗначение
BaselinesNR
RetrospectiveRetrospective recovery/generalization; later antibody evolution evidence belongs to separate workflow

Prospective experimental validation

ПолеЗначение
ProspectiveNR
Tested designsPrimary paper: no prospective wet lab
Success criterionRetrospective recovery/generalization; later antibody evolution evidence belongs to separate workflow
Main resultsRetrospective recovery/generalization; later antibody evolution evidence belongs to separate workflow

Limitations

Fixed-backbone assumption; scores fold compatibility more directly than therapeutic function; legacy repository.

Что статья показывает

Чего статья не показывает

Размеченные утверждения

УтверждениеТипЛокатор
Learning inverse folding from millions of predicted structuresAuthor-reportedDOI/URL from landscape matrix
Publication status: ICML 2022 main track (A*)Author-reportedlandscape matrix, publication status column

Source-grounded разбор статьи

partially verified Последняя сверка источников: 2026-08-27. bioRxiv HTML Hsu 2022 прочитан. PMLR PDF Table A.1 не развёрнут. Prospective wet-lab designs в статье нет.

ICML paper по inverse folding с 12M AF2 structures. Основной evidence — CATH recovery, ablations и zero-shot DMS correlations. Не путать Spearman 0.69 на Starr RBD с designed-binder validation.

Исследовательский вопрос

[PAPER]Улучшает ли обучение на миллионах predicted structures inverse folding (GVP vs GVP-Transformer) и zero-shot mutation scoring?

Архитектура

[PAPER]GVP-Transformer 142M: 4 GVP + 8+8 Transformer; $p(Y\mid X)=p(Y\mid TX)$. См. /tools/esm-if1.html.

Утверждения и evidence

[PAPER]Recovery 51.6% vs 38.3% CATH-only; buried 72%. Table 3 Starr Spearman 0.69 retrospective mutational scan, требует ACE2+RBM coords. Нет prospective designed proteins.

Что evidence не поддерживает

Ограничения авторов

[PAPER]Predicted structures can leak topology if not filtered (Gene3D/Foldseek); single-point SKEMPI may not improve with extra AF2 data; 100% recovery impossible because many sequences share a fold.

Источники

  1. [1] Hsu et al. PMLR 162:8946–8970 (2022). · источник

Нерешённые научные вопросы