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nemotron-retrieval-recipes

Plan and troubleshoot Nemotron retrieval recipes for embeddings, which turn text into searchable vectors, and reranking, which reorders search results. Review configurations, prepare training and evaluation commands, and check export or deployment requirements.

한국어 요약은 준비 중입니다. 영어 요약을 표시하고 있습니다.

원문원문 설명 보기

Use when planning, debugging, tuning, evaluating, exporting, or deploying public Nemotron `embed`/`rerank` retrieval recipes.

연동 도구Docker
설치 방법 보기

이럴 때 유용합니다

  • Choosing training steps for missing relevant documents
  • Improving the ordering of retrieved passages
  • Reviewing training commands with a dry run
  • Comparing a tuned model with its base model

포함된 파일(11)

  • SKILL.md10.2 KB
  • BENCHMARK.md3.1 KB
  • evals/.gitignore9 B
  • evals/EVAL.md4.3 KB
  • evals/evals.json19.5 KB
  • references/embed.md11.3 KB
  • references/evaluation.md3.5 KB
  • references/remote.md2.0 KB
  • references/rerank.md9.3 KB
  • skill-card.md3.9 KB
  • skill.oms.sig5.8 KB

SKILL.md(원문)

설치하기 전에 에이전트에게 전달되는 지시 내용을 확인할 수 있습니다.

Nemotron Retrieval Recipes

Invocation: $nemotron-retrieval-recipes.

Purpose

Use this skill to work with public Nemotron embedding and reranking retrieval recipes in a source checkout or installed package. Prefer the current checkout over memory, because the recipe CLI, configs, containers, and output paths are actively changing. Treat each recipe family as available only after its recipe directory and matching CLI files are present.

This is a public product skill, not contributor-only guidance. Its value over static docs is to make an agent route the user's retrieval failure to the right recipe family, reconcile docs with the current checkout, avoid accidental long-running launches, preserve secrets, and return concrete preview/execution/run-report commands.

Use it only for tasks tied to the public Nemotron embed or rerank recipe flow. If the request is unrelated retrieval theory, generic vector database selection, generic benchmark advice, or non-recipe Docker/Slurm/NIM troubleshooting, stop with a short scope note and do not inspect recipe files in that turn.

Security Notes

Use Bash for repo-scoped inspection, help, dry-run, and user-approved execution commands. Do not run API, GPU, Docker, Slurm, NIM, or other long-running work unless the user explicitly asks for it. Before Stage 0 SDG for either family, confirm the user's data-governance policy permits sending corpus content to the configured inference endpoints; otherwise use an approved private or air-gapped path. Never run broad environment dumps or commands that expose secret values. Prefer dotlist overrides and config review over editing recipe defaults.

Source Priority

Resolve conflicts in this order:

  1. Current checkout recipe, CLI, config, and source files.
  2. Bundled references in this skill.
  3. User-provided docs or saved snippets.
  4. Memory.

For runnable commands, treat the current checkout as authoritative. If a required recipe directory, CLI command, config, or env profile is missing, report the blocker instead of guessing.

Prerequisites

  • Repo environment: uv sync --all-extras or the smallest relevant extra documented by the checkout.
  • Stage 0 SDG: NVIDIA_API_KEY; never ask users to paste secret values.
  • Stages 1–3 GPU work: CUDA/NVIDIA driver availability and enough VRAM.
  • Stage 4 export: NeMo Export-Deploy container when using TensorRT. The default Nemotron 3 Embed profile intentionally skips export.
  • Stage 5 deploy: Docker. Default Nemotron 3 Embed can use the checked-in vLLM path with backend=vllm, or a compatible NEMOTRON3_EMBED_NIM_IMAGE with backend=nim; Llama Embed and rerank deployment may require NGC access and NGC_API_KEY.
  • Remote execution: root env.toml profile for --run or --batch; load references/remote.md when remote scheduling, logs, or GPU placement matter.

Instructions

  1. Identify the recipe family.
    • Use references/embed.md for embedding, embed, bi-encoder, vector search, first-stage retrieval, low Recall@k, missing relevant documents, NIM embeddings, or nemotron embed.
    • Use references/rerank.md for rerank, reranker, cross-encoder, second-stage retrieval, acceptable recall but poor top-rank ordering, low nDCG with good Recall, or nemotron rerank.
    • Use both references only when the user asks about both families or asks which family to choose.
  2. For embed, choose one model profile before composing stage commands.
    • Run uv run nemotron embed info when the requested model is unclear.
    • Use -c default for nvidia/Nemotron-3-Embed-1B-BF16.
    • Use -c llama for nvidia/llama-nemotron-embed-1b-v2 and its export path.
    • Carry the selected profile and artifact_root through every stage; never combine artifacts from the two profiles.
  3. Choose the model family to tune from the retrieval failure mode.
    • Prefer embedding fine-tuning when relevant documents are absent from the candidate set.
    • Prefer reranker fine-tuning when relevant documents are retrieved but ordered poorly near the top.
    • For production retrieval stacks, remember that these are complementary: embed first, rerank candidates second.
  4. Identify the intent: plan a run, execute a stage, debug a failure, tune hyperparameters, interpret metrics, export/deploy a model, inspect configs, or propose dotlist overrides.
  5. Inspect the current public surface before acting:
    • Recipe files: src/nemotron/recipes/<embed|rerank>/
    • CLI files: src/nemotron/cli/commands/<embed|rerank>/
    • Configs: src/nemotron/recipes/<family>/stage*/config/<profile>.yaml
    • Help and dry runs: uv run nemotron <family> --help, uv run nemotron <family> <stage> -c <profile> -d

Safe Workflow

  1. Gather only context relevant to the task: recipe family, selected profile, corpus path, existing SDG/training/eval data, target stage range, artifact root, checkpoint path, execution mode, GPU IDs, and whether required secrets are configured. Never ask users to paste secret values.
  2. Start with cheap checks before expensive work:
    • uv run nemotron <family> --help
    • uv run nemotron <family> <stage> --help
    • uv run nemotron <family> <stage> -c <profile> -d
    • uv run nemotron <family> run -c <profile> -d --from <stage> --to <stage>
    • run --help may omit inherited -c and -d options even though run -c default -d ... works; validate by running the dry-run when unsure.
    • In an already prepared checkout, uv run --no-sync ... --help or uv run --no-sync ... -d can avoid unexpected dependency sync during read-only checks.
  3. Check prerequisites for the requested stage:
    • Repo environment: uv sync --all-extras or the smallest relevant extra if documented by the repo.
    • Stage 0 SDG: NVIDIA_API_KEY.
    • Stages 1–3 GPU work: CUDA/NVIDIA driver availability and enough VRAM.
    • Stage 4 export: the NeMo Export-Deploy container when using TensorRT. Default Nemotron 3 Embed skips this stage.
    • Stage 5 deploy: Docker plus the selected backend's image and artifact contract; default Nemotron 3 may use the checked-in vLLM image without NIM credentials. Load the family reference before requiring NGC credentials.
    • Remote execution: root env.toml profile for --run or --batch; load references/remote.md when remote scheduling, logs, or GPU placement matter.
  4. Use dotlist overrides instead of editing defaults unless the user asks for reusable config changes. Keep the selected profile, artifact root, sequence length, prefixes, pooling/normalization, prompt templates, and hard-negative counts consistent across stages.
  5. Avoid launching API, GPU, Docker, Slurm, NIM, or long-running jobs unless the user explicitly asked to run them. Offer or run dry-runs, config review, and small pilots first.
  6. For local execution, scope requested GPU IDs with CUDA_VISIBLE_DEVICES=<ids>. For --run or --batch, configure scheduler resources such as gpus_per_node in the selected env.toml profile and let the scheduler assign devices; do not assume submit-shell CUDA_VISIBLE_DEVICES propagates remotely.
  7. For multi-stage local runs, prefer uv run nemotron <family> run -c <profile> --from <stage> --to <stage>. Use default for rerank. The default run target stops at eval; export and deploy are opt-in.
  8. When evaluating quality, compare against the base model on a fixed held-out evaluation set before recommending deployment. Do not substitute a standalone public-benchmark eval for the recipe's own Stage 3 evaluation.
  9. For long-running SDG, prep, finetune, or eval work, start the process in a session-safe way and poll at human-scale intervals: roughly 60 seconds for small pilots and 120-300 seconds for larger runs.
  10. For failures, localize the failing stage, then inspect the stage config, expected inputs, output directory, and corresponding CLI wrapper or run_uv.py.

References

  • references/embed.md: embedding recipe stages, commands, defaults, output paths, and operating patterns.
  • references/rerank.md: rerank recipe stages, commands, defaults, output paths, and operating patterns.
  • references/evaluation.md: metric interpretation, comparison hygiene, and deployment readiness checks.
  • references/remote.md: remote execution profiles, batch/run mode, GPU scoping, logs, and polling.

Examples

User asks: "Recall is decent, but nDCG is poor and the right passage is around rank 40. Should I tune embed or rerank?"

Load references/rerank.md and references/evaluation.md, explain that acceptable recall with poor top-rank ordering points to reranker tuning, then offer a cheap preview before training.

uv run nemotron rerank run -c default -d --from prep --to eval

Troubleshooting

Localize the failing stage, then inspect the stage config, expected inputs, output directory, and corresponding CLI wrapper or run_uv.py.

Limitations

  • Bundled references are condensed snapshots; verify commands, flags, defaults, and output paths against the active checkout before execution.
  • This skill does not provide datasets, checkpoints, credentials, GPU capacity, Docker images, or NIM services.

Output Style

For planning or debugging recommendations, use this shape when it helps: Decision, Why, Required inputs, Preview command, Execution command, Avoid, and Next step. Omit fields that are irrelevant to a short answer.

Give concrete commands and file paths. State assumptions, expected inputs, expected outputs, and the cheapest validation step that proves the next action is ready. For long-running stages, separate preview commands from execution commands so the user can choose deliberately.

When reporting a dry-run or real run, include a compact run report: command, mode, config, dotlist overrides, input paths, output paths, validation signal or metric file, and next cheapest check. Include the checkout commit when it is available.

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