nvidia-bionemo/bionemo-agent-toolkit

rfd4-proteina-generate

Use when generating RFD4-Proteina designs from annotated inputs with task, sampling, batch, and inline-metric choices.

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Jak używać

  1. Skopiuj polecenie instalacji i sprawdź źródła przed instalacją we własnym środowisku agenta.
  2. W oryginale sprawdź wymagane narzędzia, dane dostępowe i obsługiwane środowiska.
  3. Opisz dane wejściowe i oczekiwany rezultat; porównaj wynik ze źródłami.
npx skills add https://github.com/nvidia-bionemo/bionemo-agent-toolkit --skill rfd4-proteina-generate

Przed rozpoczęciem

  • Instalacja nie obejmuje subskrypcji modelu, limitu API ani uprawnień do plików.
  • Gwiazdki i instalacje pokazują aktywność, a nie niezależny test jakości lub bezpieczeństwa.
Oryginalny dokument Skill

Treść z repozytorium z zachowaniem nagłówków, przykładów, kodu, tabel, linków i obrazów.

RFD4-Proteína Generate

Purpose

Single-shot generation for RFD4-Proteína. One entry point drives every design task — unconditional monomers/complexes, folding & inverse folding, motif scaffolding, enzyme design, small-molecule binders, protein binders, and DNA binders. The skill's job is to route the request to the right example input and the right overrides, then run one command. Deep input construction, reward-guided search, and oracle metrics live in sibling skills; this skill points at them.

Run everything from the repository root (the directory containing .project-root). All model arguments are Hydra key=value, never --key value.

Prerequisites

A model environment that passes setup preflight, supported GPU, checkpoints, and a validated annotated input or benchmark example.

Use the user-selected model checkout at RFPROTEINA_ROOT for model commands, configs, and upstream manuals. This catalog contains the skills, not that checkout. In helper examples, resolve open-models-skills/rfd4-proteina/<name>/... to its absolute installed path when the catalog and model checkout are separate.

Inputs

Required: the user's task, input CIF or benchmark path, output directory, and design count. Optional: batch size, seed, sampling overrides, and metric tags. Preserve explicit choices and use the documented defaults only for unspecified values.

Instructions

Step 1 — Preflight

Never launch a long run against a broken environment. Confirm venv, GPU, and checkpoints first:

bash
bash open-models-skills/rfd4-proteina/rfd4-proteina-setup/scripts/preflight.sh

Fix every FAIL (see rfd4-proteina-setup) before generating. scripts/download_example_data.sh fetches the release pair composed by configs/inference.yaml, so the default run needs no checkpoint override.

Step 2 — Route the task

Pick the design case, then open its reference for the exact command, example input, task-specific overrides, and gotchas:

Design taskExample input(s) in data/benchmarks/Reference
Unconditional monomermonomer, adherence/monomer_helical, adherence/monomer_igtasks/unconditional.md
Folding / inverse foldingannotated CIF (backbone-only vs C_SEQ)tasks/folding-inverse.md
Motif scaffoldingmotif_scaffolding/motif_indexed, motif_scaffolding/motif_unindexed, motif_scaffolding/motif_indexed_internal_coordstasks/motif.md
Enzyme design (active site)mcsa/mcsa_37, mcsa/mcsa_37_fixed_ligand, mcsa/mcsa_37_no_ligandtasks/enzyme.md
Small-molecule bindersmall_molecule_binder/sm_binder, small_molecule_binder/SAM_hbonds.ciftasks/sm-binder.md
Protein binderppi/ppi_all_atom/tasks/protein-binder.md
DNA binderdna_binder/dna_binder_denovo_valtasks/dna-binder.md

Need an input the request doesn't have? Annotated CIF is the recommended, lossless format. When the task needs coordinate/sequence conditioning, hotspots, fixed ligands, H-bonds, RASA, or unindexed motifs, hand off to rfd4-proteina-annotated-cif to build and validate the CIF, then come back and pass it via inputs=<file>.cif.

Step 3 — Run

General form:

bash
rfd4-generate inputs=<file> num_replicates=<N> out_dir=<dir> [overrides...]

Use the Python environment activated during setup. The installed command runs in that environment; see the installation guide for environment and scheduler settings.

The four parameters you almost always set (defaults are only right for a smoke test):

ParameterWhat to set it toDefault
out_dira real output path./runs/<run_name>
num_replicatesdesigns per example (e.g. 8-80); 1 is a smoke test1
batch_sizestart at 8, but first confirm the longest input fits at batch_size=11
metrics_tagsinline metrics as a bracket-quoted Hydra list; only refolding tags need a container[]

Useful extras: subset_to_examples=monomer-short (run only named keys), seed=<int> (reproducibility), skip_existing=true (resume a run), save_chain_of_interest=true (required for later foldseek clustering).

bash
# 80 designs of each monomer example, 8 at a time
rfd4-generate \
    inputs=data/benchmarks/monomer \
    num_replicates=80 batch_size=8 out_dir=./runs/monomers

Scheduler intent

For any batch run, read the selected scripts/.user_info_<cluster> and the launcher before constructing the command. Preserve the user's partition, account, QoS/priority options, GPU request, runtime, memory, and CPU settings. Use a resource override only when the user explicitly requested it. State the resolved scheduler values before submission; use dry-run or non-submitting tests when validating the workflow.

Step 4 — Pick your overrides

Full cheat sheet: references/overrides.md. The knobs that matter most:

  • Diversity (stochasticity). Backbone temperature

generation.model.bb_ca.simulation_step_params.sc_scale_noise (default 0.3) and sidechain/sequence temperature generation.model.local_latents.simulation_step_params.sc_scale_noise (default 0.1). Roughly: (0.1,0.1) = high designability, (0.5,0.5) = natural UniProt-like sequences, (0.9,0.9) = maximum diversity.

  • Partial diffusion (refine an existing structure). Simple:

generation.args.partial_trajectory_fraction_steps=<f> (fraction of nsteps). Advanced: generation.args.partial_t_backbone=<t> / generation.args.partial_t_latent=<t> (floats in (0,1); near 1 stays close to the input, near 0 approaches full generation), optionally generation.args.couple_partial_t=true. partial_t is a corruption level, not Angstroms.

  • Deterministic (ODE) sampling (no mid-trajectory noise):

generation.model.bb_ca.gt.mode=ode generation.model.local_latents.gt.mode=ode.

  • Steps / recycling. The default 1x schedule uses 60 model evaluations

and 185 trunk passes, with twice the integration-step density in the final 20% of each modality's clock. Select recycle_strategy=thinking_high for the 1.5x recycle-depth variant.

Step 5 — Inline metrics (optional)

Pass metrics_tags='[...]' to compute metrics right after each design; results land in per_example_metrics.csv alongside the CIFs. Common tags include design, unconditional_refolding, ppi_refolding, dna_refolding, motif_scaffold_refolding, sm_binder_refolding, ame_refolding, disco_refolding, hotspot_conditioning, 3d_coordinate_conditioning, rasa_conditioning, and interchain_interactions. Check docs/workflow/metrics.md and the composed metric configs before treating any list as exhaustive.

[!NOTE] Every *_refolding tag runs the AF3 oracle, which needs an apptainer/docker container (see rfd4-proteina-setup for the container, rfd4-proteina-evaluate for what the metrics mean and how to read them). Plain generation needs no container. Deep metric detail belongs to rfd4-proteina-evaluate — this skill only turns the tags on.
bash
rfd4-generate \
    inputs=data/benchmarks/monomer num_replicates=50 batch_size=8 \
    out_dir=./runs/monomers_scored metrics_tags='[unconditional_refolding]'

Reward-guided / beam search

For "generate many, keep the best under an AF3 reward", do not hand-roll it here — use rfd4-proteina-search, which drives configs/inference_experiment/inference_beam_example.yaml and the search config knobs (beam width, branching, checkpoints, metric weights).

Reusable configs

For a repeatable experiment instead of one-off CLI overrides, copy configs/inference_experiment/TEMPLATE.yaml — it documents the three ways to run (in-tree experiment config, CLI overrides, config file anywhere on the filesystem). The default group is inference_on_user_inputs.

Outputs

Each design is an annotated CIF with per-atom provenance columns (SA_SRC, SA_CRDSRC, SA_IDXGRPSRC, SA_UII) tying output atoms back to the input spec. With metrics on, a per_example_metrics.csv is written alongside. Full column table and how to read annotations: references/outputs.md.

Troubleshooting

SymptomFix
Out of memoryLower batch_size; confirm your longest input fits at batch_size=1 first
--inputs/--out_dir not recognized / Hydra config errorUse = not --: inputs=file.cif, never --inputs file.cif
checkpoint not foundConfirm DATA_PATH, then compare ckpt_name and ckpt_path with configs/inference.yaml; override only when intentionally using another checkpoint
DATA_PATH / checkpoint not foundexport DATA_PATH=... then ./scripts/download_example_data.sh "$DATA_PATH"
atomworks not foundRe-run make setup to install the public AtomWorks dependency
hydra not found / import errorssource .venv/bin/activate
Missing runtime data-path or cluster configurationFollow the setup environment reference for the selected checkout; preserve the requested cluster and scheduler settings. Export DATA_PATH in the process environment for local use.
AF3 / *_refolding errorsRefolding metrics need an AF3 container — see rfd4-proteina-setup + rfd4-proteina-evaluate
Segfault in rdkit/posebustersVerify the supported Python and C++ runtime versions using the setup environment reference. Use the checkout-maintained launcher for any required ABI workaround.

For deeper detail: overrides · outputs · per-task guides under references/tasks/.

Limitations

A generated CIF verifies the inference path, not folding, binding, or experimental function. Checkpoints, available conditions, and metrics depend on the selected model revision.

Examples

The Step 3 command generates 80 designs per monomer example. The task table links to conditioned examples; use the user-requested count and validate a single input before scaling.

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