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P(all-atom) Is Unlocking New Path For Protein Design

ICML 2025 · Probabilistic and scientific modeling › Molecules and proteins · approach: Generative protein structure design · 11 citations (OpenAlex)

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Pallatom generates all-atom protein structures and sequences jointly by diffusing an atom14 point cloud with a dual-track residue/atom decoder, trained on PDB and AFDB.

Problem

Protein generation usually models structure and sequence in separate steps (backbone then sequence, or hallucination plus sequence redesign), and existing all-atom generators such as Protpardelle yield sequences that fail to encode the intended fold, so the joint distribution P(structure, seq) is no

Approach

Learn P(all-atom) directly with an EDM-style diffusion over a fixed-size atom14 point cloud (virtual atoms pad every residue to 14 atoms), using a dual-track residue/atom AtomDecoder with traversing atom embeddings and differentiable recycling, and predict sequence from aggregated atom embeddings with a linear head.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
use atom14 instead of hybrid14 representation (ablation)Pallatom · protein generationDES-aa: 5% -> 87%Helped
use atom14 instead of hybrid14 representation (ablation)Pallatom · protein generationDES-bb(w): 68% -> 95%Helped
use atom14 instead of hybrid14 representation (ablation)Pallatom · protein generationDES-bb(wo): 82% -> 95%Helped
add differentiable recycling (ablation)Pallatom · protein generationDES-aa: 21% -> 87%Helped
add differentiable recycling (ablation)Pallatom · protein generationDES-bb(w): 93% -> 95%Helped
add differentiable recycling (ablation)Pallatom · protein generationDES-bb(wo): 95% -> 95%No clear effect
increase sampling step scale η from 1.75 to 2.75Pallatom · L=100 samplingDES-aa: 57% -> 94%Helped
increase sampling step scale η from 1.75 to 2.75Pallatom · L=100 samplingDIV-str: 56 -> 55Mixed
reduce additional noise level γ0 from 0.2 to 0.1Pallatom · L=100 samplingDES-aa: 87% -> 89%Helped
reduce additional noise level γ0 from 0.2 to 0.1Pallatom · L=100 samplingDIV-str: 64 -> 52Hurt
use Pallatom rather than Multiflowall-atom protein generation · CO-DESIGN 1DES-aa: 62.74% -> 85.03%Helped
use Pallatom rather than Multiflowprotein generation · PMPNN 1DIV-str: 184 -> 318Helped

Surprising findings

Limitations

Experimental setup

Datasets: PDB AlphaFold Database

Benchmarks: CO-DESIGN 1 mode (DES-aa, DIV-str/seq, NOV-str) PMPNN 1 mode (DES-bb, DIV-str, NOV-str)

Metrics: DES-aa DES-bb DIV-str DIV-seq NOV-str aaRMSD pLDDT

Baselines: Protpardelle ProteinGenerator Multiflow RFdiffusion ProteinMPNN

Builds on: EDM AlphaFold3 Protpardelle RFdiffusion

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