Structure prediction
Atomic models of proteins and full biomolecular complexes — ligands, nucleic acids, and modified residues — in one framework.
Public milestones · 2020–2026
Mapping molecules to medicine — how machine learning is reshaping structure, design, and discovery across the living world.
A curated showcase of verified public progress. Not medical advice.
01 — Why it matters
Biology is chemistry at planetary scale. Proteins fold, genomes encode, cells decide. For decades, mapping that chain — sequence → structure → function → therapy — was painfully slow. AI is compressing each step: predicting shapes, designing new proteins and molecules, reading multi-omics atlases, and automating the lab loop that turns hypotheses into experiments.
02 — Timeline
Verified public themes. Wording is careful where claims are still early or company-reported.
AlphaFold 2 (DeepMind, 2020–2021) cracked high-accuracy protein structure prediction. The companion AlphaFold Protein Structure Database, with EMBL-EBI, released predictions for over ~200 million protein sequences. In October 2024, Demis Hassabis and John Jumper shared half of the Nobel Prize in Chemistry for protein structure prediction; David Baker received the other half for computational protein design.
Nobel Prize press release · AFDB / EMBL-EBI
Published in Nature (8 May 2024), AlphaFold 3 predicts joint structures of complexes including proteins, DNA, RNA, small-molecule ligands, ions, and modified residues. DeepMind and Isomorphic Labs reported substantially improved accuracy versus prior specialized tools across many interaction types — including protein–ligand and protein–nucleic acid cases highlighted in the paper.
Abramson et al., Nature 2024 · doi:10.1038/s41586-024-07487-w
Meta’s Evolutionary Scale Modeling (ESM) lineage treats amino-acid sequences like language: large transformers learn evolutionary grammar, enabling structure and function inference at massive scale from sequence alone. ESMFold and related models complement structure predictors and open high-throughput annotation of metagenomic “dark matter.”
Meta AI / ESM publications & open models
Diffusion and graph models turned prediction into invention. Tools such as RFdiffusion (backbone generation) and ProteinMPNN (sequence design) — alongside generative chemistry platforms — let researchers propose novel binders, enzymes, and drug-like molecules, then filter them in silico before wet-lab synthesis.
Baker lab & community open-source methods
Rentosertib (ISM001-055 / INS018_055), an AI-originated small molecule from Insilico Medicine targeting TNIK for idiopathic pulmonary fibrosis (IPF), has been reported as the first generative-AI-originated drug to advance into late-stage (Phase III) trials. Company and press statements in September 2026 announced first-patient dosing in GENESIS-IPF-3 (NCT07687459). The candidate remains investigational — no regulatory approval, and this site makes no efficacy claims.
Insilico / PR Newswire · ClinicalTrials.gov NCT07687459
Alphabet’s Isomorphic Labs published the IsoDDE (Drug Design Engine) technical report (February 2026), describing a unified computational system that aims to go beyond AlphaFold 3 for structure, ligand binding, affinity, and antibody–antigen tasks. Public comments have targeted first-in-human trials for an AI-designed candidate around end of 2026 — timelines and candidates remain company-reported and subject to change.
isomorphiclabs.com · Pharma Letter / Semafor coverage
Parallel waves span foundation models for DNA/RNA, single-cell atlases, AI microscopy and phenotyping, and closed-loop lab automation — shortening the cycle from hypothesis to measured result across academia and industry.
03 — Frontiers
Atomic models of proteins and full biomolecular complexes — ligands, nucleic acids, and modified residues — in one framework.
In silico pocket finding, affinity estimation, and generative chemistry feeding preclinical pipelines and early clinical programs.
De novo binders, enzymes, and nanomaterials designed by diffusion and sequence models — then validated at the bench.
Foundation models and atlases that connect genotype, transcriptome, and proteome to phenotype across tissues and species.
AI that reads cells and tissues at scale — from microscopy segmentation to high-content screens and digital pathology.
Robotic wet labs and closed-loop experiment planners that turn model proposals into measured data overnight.
04 — By the numbers
Only publicly reported figures. Soft wording where counts evolve.
05 — Sources
This showcase summarizes public reporting for a scientific audience. It is not medical advice, an endorsement of any company or drug, or a claim of clinical efficacy. Trial status and company timelines can change.