SkillAtlasSkill 详情

image-attribute-augmentation-workflow

Official, NVIDIA-verified Agent Skills for Claude Code, Codex, and other coding agents.

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项目 README

来源文件:README.md

抓取于 2026年9月2日

NVIDIA Agent Skills

Official, NVIDIA-verified Agent Skills for Claude Code, Codex, and other coding agents.

NVIDIA Agent Skills Spec License

📖 Docs: docs.nvidia.com/skills  ·  📺 Livestream: From Vulnerable to Verified  ·  📝 Blog: NVIDIA Verified Agent Skills: Capability Governance for AI Agents


Skills are portable instruction sets that teach AI agents how to use NVIDIA software optimally: Physical AI and robotics workflows, simulation, CUDA-X libraries, RAG and AI Blueprints, and platform tools. This repository is a catalog: skills are maintained in their respective product repos, and mirrored here daily via an automated sync pipeline. Skills are being added continuously, so check back for updates. We are building this infrastructure in the open, and contributions are welcome. See the Roadmap for what is planned next.


Quickstart

Install NVIDIA skills with the default skills CLI flow:

npx skills add nvidia/skills

The CLI runs through npx and prompts you to choose a skill and install destination. You do not need to clone this repo or copy skill folders by hand.

Requires a current skills CLI (v1.5.16 or newer). Installing via npx skills@latest add nvidia/skills always uses the latest. On older CLIs (v1.5.15 and earlier), skills may install but not appear in Claude Code — see Troubleshooting.

The skill is available the next time your agent loads skills and encounters a relevant task. For example, ask your agent to "solve a linear programming problem with cuOpt" and the skill guides it through the cuOpt Python API. In Claude Code, run /reload-skills to load newly installed skills in your current session.

Install One Skill Without Prompts

Use this when you already know the skill name and want to skip prompts.

npx skills add nvidia/skills --skill cuopt-numerical-optimization-api --yes

Replace cuopt-numerical-optimization-api with any skill name from the Skill Catalog.

Install for a Specific Agent

Use --agent to target a specific AI coding agent. Initially, we'll support common client targets, expanding the list over time. For the full list of clients supported by the spec, see the skills CLI Supported Agents table.

Claude Code

npx skills add nvidia/skills --skill cuopt-numerical-optimization-api --agent claude-code

Codex

npx skills add nvidia/skills --skill cuopt-numerical-optimization-api --agent codex

Snowflake CoCo

npx skills add nvidia/skills --skill cuopt-numerical-optimization-api --agent cortex

Cursor

npx skills add nvidia/skills --skill cuopt-numerical-optimization-api --agent cursor

Kiro

npx skills add nvidia/skills --skill cuopt-numerical-optimization-api --agent kiro-cli

Use --agent more than once to install the same skill into multiple agents.

npx skills add nvidia/skills \
  --skill cuopt-numerical-optimization-api \
  --agent claude-code \
  --agent codex \
  --agent cursor \
  --agent kiro-cli

Keep Skills Up to Date

New skills land continuously, and existing ones are revised, renamed, or consolidated as the catalog evolves. Refresh what you have installed with:

npx skills update

Run it interactively and the CLI also flags skills that were removed or merged upstream (for example, when several skills are consolidated into one) and offers to remove the stale local copies. Use npx skills list to see what is installed and npx skills check to preview what is out of date first.

Browse the Catalog

Use this when you want to see available NVIDIA skills before installing anything.

npx skills add nvidia/skills --list

For non-interactive installs, global installs, agent-specific installs, updates, removals, and fallback manual copying, see Advanced installation.


Skill Catalog

ProductDescriptionSkills
AIQNVIDIA AI-Q Blueprint - deploy local AI-Q services and run shallow or deep research workflows as agent skills.aiq-research, aiq-deploy
CUDA-QCUDA Quantum — onboarding guide for installation, test programs, GPU simulation, QPU hardware, and quantum applications.cudaq-guide
cuDFOfficial NVIDIA-authored guidance for NVIDIA cuDF GPU DataFrames, pandas acceleration, dask-cuDF, ETL, joins, groupby, CSV/Parquet I/O, nullable semantics, and multi-GPU DataFrame workloads.accelerated-computing-cudf
cuOptGPU-accelerated optimization — vehicle routing, linear programming, quadratic programming, installation, server deployment, and developer tools.cuopt-install, cuopt-multi-objective-exploration, cuopt-numerical-optimization-api, cuopt-numerical-optimization-formulation, cuopt-routing-api-python, cuopt-server-api-python
cuPyNumericNumPy and SciPy on multi-node multi-GPU systems — skills to help with installing cuPyNumeric, migrating existing NumPy code, and doing parallel I/Ocupynumeric-hdf5, cupynumeric-install, cupynumeric-migration-readiness, cupynumeric-parallel-data-load
DALIGPU-accelerated data loading and processing with NVIDIA DALI.dali-dynamic-mode
Data DesignerBuild declarative synthetic dataset generation pipelines with NeMo Data Designer.data-designer
DeepStreamAgentic skills for guided DeepStream development.amc-run-rtsp-calibration, amc-run-sample-calibration, amc-run-video-calibration, amc-setup-calibration-stack, deepstream-dev, deepstream-generate-pipeline, deepstream-import-vision-model, deepstream-profile-pipeline, deepstream-run-mv3dt, deepstream-sop, rtvi-cv-customize-model, rtvi-cv-scaffold-vss-service, rtvi-vlm-customize-model
Digital HealthAgent skills for the clinical ASR evaluation flywheel — term curation, synthetic clinical-speech benchmark generation, KER (Keyword Error Rate) scoring, and fine-tune guidance.digital-health-clinical-asr-setup, digital-health-clinical-asr-build, digital-health-clinical-asr-eval, digital-health-clinical-asr-finetune
DOCATeach AI agents to use the NVIDIA DOCA SDK on BlueField DPUs and ConnectX NICs — setup, libraries, services, tools, deployment, and debugging.doca-bare-metal-deployment, doca-bf3-deployment, doca-bf4-deployment, doca-collectx-deployment, doca-container-deployment, doca-debug, doca-hardware-safety, doca-programming-guide, doca-public-knowledge-map, doca-setup, doca-structured-tools-contract, doca-upgrade, doca-version, doca-aes-gcm, doca-argp, doca-comch, doca-common, doca-compress, doca-devemu, doca-dma, doca-dpa, doca-dpdk-bridge, doca-erasure-coding, doca-eth, doca-flow, doca-flow-dpa-provider, doca-gpi, doca-gpunetio, doca-mgmt, doca-pcc, doca-pcc-ztr-rttcc-algo, doca-rdma, doca-rdmi, doca-rmax, doca-sha, doca-sta, doca-telemetry, doca-telemetry-exporter, doca-urom, doca-verbs, doca-argus, doca-dms, doca-firefly, doca-urom-svc, doca-bench, doca-bench-extension, doca-caps, doca-comm-channel-admin, doca-dpa-hl-tracer, doca-flow-dpa-perf, doca-flow-grpc-server, doca-flow-perf, doca-flow-tune, doca-gpunetio-ib-write-bw, doca-gpunetio-ib-write-lat, doca-pcc-counters, doca-sha-offload-engine, doca-socket-relay, doca-spcx-cc, doca-telemetry-utils
DynamoNVIDIA Dynamo deployment bring-up on Kubernetes — pick and deploy recipes, start router modes, validate disagg NIXL/UCX/NCCL interconnect, and triage day-2 failures.dynamo-interconnect-check, dynamo-recipe-runner, dynamo-router-starter, dynamo-troubleshoot
Earth2StudioOpen-source deep-learning framework for exploring, building and deploying AI weather/climate workflows.earth2studio-create-datasource, earth2studio-create-diagnostic, earth2studio-create-prognostic, earth2studio-data-fetch, earth2studio-deterministic-forecast, earth2studio-discover, earth2studio-install
HoloHubBuild, run, debug, benchmark, and develop HoloHub applications and Holoscan Modules with validated lifecycle workflows.holohub-app-lifecycle, holohub-debug-build-run, holohub-module-lifecycle
Holoscan SDKInstall and set up the Holoscan SDK on any platform (container, Debian, Python, Conda, or source).holoscan-install-debian, holoscan-install-source, holoscan-install-wheel, holoscan-install-conda, holoscan-install-container, holoscan-setup
Holoscan Sensor BridgeAgent-ready skills for Holoscan Sensor Bridge devkit workflows, including demo environment bring-up, FPGA flashing for Lattice and VB1940 hardware, example application execution, QA test-plan automation, and support for configuring and using the Holoscan Sensor Bridge FPGA intellectual property (IP) core.hsb-setup, hsb-flash, hsb-app, hsb-test, hsb-ip-def, hsb-ip-packetizer, hsb-ip-create-top
Isaac for Healthcare WorkflowsAgent-ready skills for Isaac for Healthcare agentic and catheter-navigation workflows, covering task authoring, data pipelines, policy training and validation, CT-derived digital twins, DRR rendering, and interactive catheter simulation.i4h-workflow, i4h-workflow-setup, i4h-workflow-create, i4h-workflow-scene-edit, i4h-workflow-dataset-teleop, i4h-workflow-dataset-replay, i4h-workflow-dataset-mimic, i4h-workflow-dataset-annotate, i4h-workflow-dataset-convert, i4h-workflow-finetune, i4h-workflow-validate, i4h-workflow-e2e, i4h-lerobot-viz, i4h-catheter-navigation, i4h-catheter-navigation-setup, i4h-catheter-navigation-digital-twin, i4h-catheter-navigation-render-drr, i4h-catheter-navigation-viewport, i4h-catheter-navigation-smoke, i4h-catheter-navigation-e2e
Jetson BSPAgentic skills for setting up and customizing an NVIDIA Jetson Linux Board Support Package (BSP) — pick a target, prepare image and sources, customize IO (camera, PCIe, USB, pinmux, clocks, and more), then promote, flash, and validate.jetson-build-source, jetson-customize-camera, jetson-customize-clocks, jetson-customize-fan, jetson-customize-mgbe, jetson-customize-nvpmodel, jetson-customize-pcie, jetson-customize-pinmux, jetson-customize-uphy, jetson-customize-usb, jetson-derive-carrier, jetson-download-bsp, jetson-flash-image, jetson-generate-kb, jetson-init-image, jetson-init-source, jetson-init-target, jetson-link-docs, jetson-optimize-memory, jetson-print-bsp-info, jetson-promote-image, jetson-quick-start, jetson-set-target, jetson-validate-image
Jetson DeviceDevice-side agent skills for working with a live NVIDIA Jetson after boot — diagnostics, memory auditing, headless setup, inference memory tuning, LLM serving and benchmarking, packaging guidance, and speculative decoding.jetson-diagnostic, jetson-headless-mode, jetson-inference-mem-tune, jetson-llm-benchmark, jetson-llm-serve, jetson-memory-audit, jetson-package, jetson-print-device-info, jetson-speculative-decoding, jetson-video-benchmark, jetson-video-capability, jetson-video-pipeline, jetson-video-recipe, jetson-video-setup
Medical AI SkillsAgent-ready medical AI skills built on MONAI for DICOM handling, NVIDIA-hosted medical imaging model workflows, segmentation, synthesis, and evidence-oriented evaluation.dicom-metadata-extract, dicom-series-preflight, dicom-series-to-volume, medtech-model-evidence-export, nv-generate-ct-rflow, nv-generate-mr, nv-generate-mr-brain, nv-generate-mr-brain-finetune, nv-generate-vae-finetune, nv-reason-cxr, nv-segment-ct, nv-segment-ct-finetune, nv-segment-ctmr
Megatron-CoreLarge-scale distributed training — model parallelism, pipeline parallelism, and mixed precision.mcore-create-issue, mcore-linting-and-formatting, mcore-run-on-slurm, mcore-split-pr, mcore-testing
NeMo AutoModelNeMo AutoModel - PyTorch-native distributed training for LLMs/VLMs with Hugging Face support, recipes, launchers, and validation workflows.nemo-automodel-distributed-training, nemo-automodel-launcher-config, nemo-automodel-model-onboarding, nemo-automodel-recipe-development
NeMo FabricPortable skills for integrating applications with NeMo Fabric through its public SDK and building compatible third-party adapters.nemo-fabric-integrate, nemo-fabric-build-adapter
NeMo MBridgeNeMo MBridge - PyTorch-native bridge between Hugging Face and Megatron-Core for checkpoint conversion, training recipes, and NVIDIA GPU performance workflows.nemo-mbridge-mlm-bridge-training, nemo-mbridge-multi-node-slurm, nemo-mbridge-perf-activation-recompute, nemo-mbridge-perf-cpu-offloading, nemo-mbridge-perf-cuda-graphs, nemo-mbridge-perf-expert-parallel-overlap, nemo-mbridge-perf-hierarchical-context-parallel, nemo-mbridge-perf-megatron-fsdp, nemo-mbridge-perf-memory-tuning, nemo-mbridge-perf-moe-comm-overlap, nemo-mbridge-perf-moe-dispatcher-selection, nemo-mbridge-perf-moe-hardware-configs, nemo-mbridge-perf-moe-long-context, nemo-mbridge-perf-moe-optimization-workflow, nemo-mbridge-perf-moe-vlm-training, nemo-mbridge-perf-parallelism-strategies, nemo-mbridge-perf-sequence-packing, nemo-mbridge-perf-tp-dp-comm-overlap, nemo-mbridge-recipe-recommender, nemo-mbridge-resiliency
NeMo RelaySkills to help get started and use NeMo Relay - a runtime for instrumenting and controlling AI agents across harnesses, applications, and frameworks.nemo-relay-install, nemo-relay-get-started, nemo-relay-instrument-calls, nemo-relay-instrument-context-isolation, nemo-relay-instrument-typed-wrappers, nemo-relay-plugin-adaptive-tuning, nemo-relay-plugin-build, nemo-relay-plugin-observability, nemo-relay-migrate-from-flow, nemo-relay-debug-runtime-integration
NeMo RetrieverNeMo Retriever - deploy NeMo Retriever Library locally, extract information from corpus of data, and answer questions against the corpus.nemo-retriever
NeMo-RLRLHF training on Ray — GRPO, DPO, and SFT for LLMs and VLMs with FSDP2 and Megatron-Core.launch-nemo-rl, nemo-rl-auto-research, nemo-rl-brev-etiquette, nemo-rl-docs, nemo-rl-session-memory
NemoClawSecure agent sandboxing — run OpenClaw inside NVIDIA OpenShell with managed inference, policy management, remote deployment, sandbox monitoring.nemoclaw-user-guide
NemotronAuthor end-to-end model development, customization, evaluation, and deployment pipelines using the NVIDIA AI stack.nemotron-customize, nemotron-retrieval-recipes, nemotron-policy-generator
Nemotron SpeechDeploy and operate NVIDIA Nemotron Speech (Riva) NIMs — ASR, TTS, and NMT, cloud-hosted via build.nvidia.com or self-hosted on your own GPU.nemotron-speech, nemotron-asr-finetune
Physical AIPhysical AI skills for simulation, synthetic data generation, training, validation and deployment and more.omniverse-cad-to-simready, omniverse-realtime-viewer, omniverse-usd-performance-tuning, physical-ai-infrastructure-setup-and-resilient-scaling, physical-ai-neural-reconstruction, physical-ai-defect-image-generation, physical-ai-video-data-augmentation, physical-ai-image-attribute-augmentation
Physical AI AugmentationAuthor, validate, and run Physical AI Data Factory augmentation pipelines for image and video generation and transformation.paidf-augmentation
Physical AI Auto-LabelingBuild and run Physical AI Data Factory auto-labeling pipelines for video enhancement, tracking, captioning, and question generation.paidf-auto-labeling
Physical AI OrchestrationBuild, run and monitor physical AI data factory pipelines for image and video generation and transformation.paidf-orchestration-write-dag, paidf-orchestration-setup, paidf-orchestration-event-video-generation-workflow, paidf-orchestration-image-attribute-augmentation-workflow
PhysicsNeMoNVIDIA PhysicsNeMo - Open-source deep-learning framework for building, training, and fine-tuning deep learning models using state-of-the-art Physics-ML methods.physicsnemo-discover, physicsnemo-shard-tensor
Portfolio OptimizationGPU-accelerated Mean-CVaR portfolio optimization with NVIDIA cuOpt — CVaR optimization, efficient frontier, scenario generation, backtesting, and rebalancing.portfolio-optimization
RAG BlueprintRAG pipeline — deploy, configure, troubleshoot, and manage retrieval augmented generation with Docker Compose or Helm.rag-blueprint, rag-eval, rag-perf
Skill Card GeneratorReads an agent skill's source files and produces a skill card plus a review table. Use when a skill directory exists and a governance card needs to be generated or updated.skill-card-generator
TAO ToolkitNVIDIA TAO Toolkit - fine-tune and optimize 100+ pretrained vision AI models with your own data using low-code microservices, then export production-ready models for edge or cloud deployment.tao-analyze-changenet-rca, tao-finetune-huggingface-model, tao-port-huggingface-model, tao-run-automl, tao-run-automl-deft-pipeline, tao-run-deft-aoi, tao-run-inference-service, tao-train-single-step, paidf-anomalygen, tao-analyze-gaps-visual-changenet, tao-analyze-gaps-vlm-bcq, tao-convert-dataset-format, tao-generate-image-grounding, tao-generate-referring-expressions, tao-generate-video-reasoning-annotations, tao-mine-aoi-images, tao-route-visual-changenet-samples, tao-validate-dataset-format, tao-finetune-clip, tao-finetune-cosmos-embed, tao-finetune-cosmos-reason, tao-train-action-recognition, tao-train-bevfusion, tao-train-centerpose, tao-train-deformable-detr, tao-train-depth-anything-v2, tao-train-dino, tao-train-fast-foundation-stereo, tao-train-foundation-stereo, tao-train-grounding-dino, tao-train-image-classification, tao-train-mask-auto-encoder, tao-train-mask-auto-label, tao-train-mask-grounding-dino, tao-train-mask2former, tao-train-metric-learning-recognition, tao-train-nvdinov2, tao-train-nvpanoptix3d, tao-train-ocdnet, tao-train-ocrnet, tao-train-oneformer, tao-train-optical-inspection, tao-train-pointpillars, tao-train-pose-classification, tao-train-reid, tao-train-rtdetr, tao-train-segformer, tao-train-sparse4d, tao-train-visual-changenet, tao-run-on-brev, tao-run-on-docker, tao-run-on-kubernetes, tao-run-on-local-docker, tao-run-on-slurm, tao-run-platform, tao-setup-nvidia-gpu-host, tao-launch-workflow, tao-list-capabilities
TileGymTile-based GPU programming — adding new kernels, cross-framework conversion, and performance optimization.tilegym-adding-cutile-kernel, tilegym-converting-cutile-to-julia, tilegym-converting-cutile-to-triton, tilegym-cutile-autotuning, tilegym-cutile-python, tilegym-improve-cutile-kernel-perf, tilegym-monkey-patch-kernels-to-transformers
Video Search and SummarizationVSS Blueprint — deploy profiles, search and summarize video, generate analysis reports, manage alerts and incidents, query VIOS sensors, and use the RTVI VLM microservice.vss-ask-video, vss-deploy-dense-captioning, vss-deploy-detection-tracking-2d, vss-deploy-detection-tracking-3d, vss-deploy-profile, vss-deploy-video-embedding, vss-generate-video-calibration, vss-generate-video-report, vss-manage-alerts, vss-manage-video-io-storage, vss-query-analytics, vss-search-archive, vss-setup-behavior-analytics, vss-setup-video-analytics-api, vss-summarize-video
WarpGPU-accelerated simulation, robotics, and machine learning — evaluate Warp candidates, optimize compile times, and debug gradients.warp-compile-time-optimizer, warp-debug-gradients, warp-eval

Getting Help & Contributing

Where to file an issue depends on what's broken:

  • Skill content issues (a specific skill has a bug, missing functionality, or incorrect content) — file in the source repo for that product, using the per-product table below.
  • Catalog issues (catalog README errors, sync workflow problems, distribution channels, signing/verification flow, docs in this repo) — file here using the catalog issue templates: Bug Report, Feature Request, or Documentation Request or Correction.
  • Questions or general discussion — use Discussions. The issue tracker is reserved for bug reports, feature proposals with a design, and documentation issues.
  • Security vulnerabilities — follow the disclosure process in SECURITY.md; do not open a public issue.

Per-product source repo links:

ProductIssuesDiscussionsContributingSecurity
AIQIssuesDiscussionsContributingSecurity
CUDA-QIssuesDiscussionsContributingSecurity
cuDFIssuesDiscussionsContributingSecurity
cuOptIssuesDiscussionsContributingSecurity
cuPyNumericIssues—Contributing—
DALIIssues—Contributing—
Data DesignerIssuesDiscussionsContributingSecurity
DeepStreamIssues—ContributingSecurity
Digital HealthIssues—ContributingSecurity
DOCAIssues—ContributingSecurity
DynamoIssuesDiscussionsContributingSecurity
Earth2StudioIssuesDiscussionsContributing—
HoloHubIssues—ContributingSecurity
Holoscan SDKIssues—ContributingSecurity
Holoscan Sensor BridgeIssues—Contributing—
Isaac for Healthcare WorkflowsIssues—ContributingSecurity
Jetson BSPIssues—ContributingSecurity
Jetson DeviceIssues—ContributingSecurity
Medical AI SkillsIssues—ContributingSecurity
Megatron-CoreIssuesDiscussionsContributing—
NeMo AutoModelIssuesDiscussionsContributingSecurity
NeMo FabricIssues—ContributingSecurity
NeMo MBridgeIssuesDiscussionsContributingSecurity
NeMo RelayIssuesDiscussionsContributingSecurity
NeMo RetrieverIssuesDiscussionsContributingSecurity
NeMo-RLIssuesDiscussionsContributingSecurity
NemoClawIssuesDiscussionsContributingSecurity
NemotronIssuesDiscussionsContributingSecurity
Nemotron SpeechIssues—ContributingSecurity
Physical AIIssues—ContributingSecurity
Physical AI AugmentationIssues—ContributingSecurity
Physical AI Auto-LabelingIssues—ContributingSecurity
Physical AI OrchestrationIssues—ContributingSecurity
PhysicsNeMoIssuesDiscussionsContributingSecurity
Portfolio OptimizationIssuesDiscussionsContributingSecurity
RAG BlueprintIssuesDiscussionsContributingSecurity
Skill Card GeneratorIssues—ContributingSecurity
TAO ToolkitIssuesDiscussionsContributingSecurity
TileGymIssues—ContributingSecurity
Video Search and SummarizationIssuesDiscussionsContributingSecurity
WarpIssuesDiscussionsContributingSecurity

For issues with this catalog repo itself (README, structure, listing a new product): open an issue here.


Verifying Skills

Every published skill ships with a detached OMS signature (skill.oms.sig). The sync pipeline drops any skill missing the required artifacts before publishing, so every skill in the catalog carries:

  • SKILL.md — the skill instructions consumed by the agent
  • skill-card.md — skill identity and governance card
  • skill.oms.sig — detached OMS signature (verifiable against nv-agent-root-cert.pem)
  • A Tier-3 evaluation dataset — accepted at evals/evals.json, evals/*.json, eval/*.json, or benchmark/evals.json
  • BENCHMARK.md — generated benchmark report capturing verifiable uplift data

Verify a skill against the NVIDIA trust anchor nv-agent-root-cert.pem:

pip install model-signing
model_signing verify certificate SKILL_DIR \
  --signature SKILL_DIR/skill.oms.sig \
  --certificate_chain nv-agent-root-cert.pem \
  --ignore_unsigned_files

A successful verification confirms that the skill contents have not been modified since signing by NVIDIA.

See Verify Signed Agent Skills for signature layout, the trust pipeline, and policy options.


Roadmap

  • ✅ Public skills catalog with NVIDIA-verified skills across multiple products
  • ✅ Automated sync pipeline with skills mirrored from product repos daily
  • ✅ Security scanning for all published skills covering instruction safety and supply-chain integrity
  • ✅ Skills signing so every published skill carries a verifiable NVIDIA signature
  • ✅ Skills universal evaluation criteria and task-specific criteria
  • ✅ Skill Card with machine-readable metadata for identity, provenance, quality, and behavioral boundaries
  • ✅ Sync-time compliance gates — signature drift detection and missing-artifact enforcement
  • ✅ Syndication to external marketplaces — Skills.sh, Codex plugin, Claude Code plugin, ClawHub, Hermes Hub
  • 🔲 Syndication to additional MCP hubs and partner channels

Repository Structure

NVIDIA/skills/
├── skills/                      # NVIDIA-verified skills (count grows continuously),
│   │                              synced from upstream product repos
│   ├── README.md                 # Browser-facing install guidance
│   ├── <product-prefix>-*/       # Flat layout — one dir per skill, product-prefixed
│   │                               # e.g. aiq-*, cuopt-*, cupynumeric-*,
│   │                               # dali-*, deepstream-*, dicom-*, digital-health-*,
│   │                               # dynamo-*, earth2studio-*, holoscan-*, hsb-*,
│   │                               # jetson-*, launch-nemo-rl, mcore-*,
│   │                               # nemo-automodel-*, nemo-data-designer-plugin,
│   │                               # nemo-evaluator-plugin, nemo-mbridge-* (20 skills),
│   │                               # nemo-retriever, nemo-rl-* (4 skills),
│   │                               # nemoclaw-user-guide, nemotron-*, nemotron-speech,
│   │                               # nv-* (medical AI), physicsnemo-*, rag-*,
│   │                               # skill-card-generator, tao-*, tilegym-*,
│   │                               # vss-* (15 skills), accelerated-computing-cudf,
│   │                               # cudaq-guide, portfolio-optimization
│   ├── omniverse-*/              # Physical AI — manually staged (see manual-components.yml)
│   └── physical-ai-*/            # Physical AI — manually staged
├── components.d/                # Product registry — one file per component, teams onboard here
│   ├── README.md                 # Schema and onboarding instructions
│   └── <product>.yml             # one file per registered product
├── plugins/                     # Packaged plugin distributions
│   └── nvidia-skills/            # Curated NVIDIA skills bundle (Claude Code, Codex)
├── plugins.d/                   # Plugin build registry — config for `build-plugins.py`
│   ├── README.md
│   ├── _defaults.yml
│   └── nvidia-skills.yml
├── .claude-plugin/              # Claude Code marketplace metadata
│   └── marketplace.json
├── .agents/plugins/             # Agent marketplace metadata (other clients)
│   └── marketplace.json
├── docs/                        # Long-form documentation (published via Fern)
│   ├── README.md                 # How to build the docs locally
│   ├── index.mdx
│   ├── advanced-install.mdx
│   ├── agent-skill-trust-pipeline.mdx
│   ├── release-checklist.mdx
│   ├── scanning-agent-skills.mdx
│   ├── signing-agent-skills.mdx
│   └── skill-cards.mdx
├── fern/                        # Fern docs site configuration
├── .github/
│   ├── workflows/                # Sync pipeline, plugin validation, DCO check, author verify
│   └── scripts/                  # regenerate-readme.sh, build-plugins.py,
│                                 # manual-components.yml (temp Physical AI catalog
│                                 # exception, removed after Computex 2026),
│                                 # marketplace/metadata.json (skill metadata sidecar)
├── nv-agent-root-cert.pem       # Trust anchor for OMS signature verification
├── skills.sh.json               # Skills.sh marketplace grouping config
├── CHANGELOG.md
├── CONTRIBUTING.md              # Contribution guidelines
├── SECURITY.md                  # Security reporting policy
├── CODE_OF_CONDUCT.md           # Community code of conduct
├── LICENSE-APACHE               # Apache 2.0 (source code)
└── LICENSE-CC-BY-4.0            # CC BY 4.0 (documentation/skills)

Skills are maintained in their respective product repos (see the Source column in the Skill Catalog) and synced to this repo daily. Products only appear under skills/ after the sync pipeline confirms each skill carries:

  • skill.oms.sig — detached OMS-format signature (verifiable against nv-agent-root-cert.pem)
  • skill-card.md — skill identity and governance card
  • A Tier-3 evaluation dataset — accepted at evals/evals.json, evals/*.json, eval/*.json, or benchmark/evals.json

When evaluation runs produce a BENCHMARK.md, it ships alongside the skill so consumers can see verifiable benchmark uplift data.


Standards & Compatibility

This repository adheres to the Agent Skills specification:

  • Skills are portable directories with a SKILL.md file at their root.
  • Metadata uses YAML frontmatter with required name and description fields.
  • Skills follow a progressive disclosure model — lightweight metadata loads at startup, full instructions load on activation.
  • Validate your skill using the skills-ref reference library.

License

Copyright (c) 2026 NVIDIA CORPORATION & AFFILIATES. All rights reserved.

This code is dual-licensed with documentation/skills under the CC-BY-4.0 AND source code under Apache-2.0 license terms. The full license texts can be found in LICENSE-APACHE and LICENSE-CC-BY-4.0 respectively.

Agent / MCP / Skill 创作数据与 AI研究与检索

中风险

  • 来源需自行核对维护者身份。
  • 包含脚本或命令调用,安装前请复核。
  • 可能需要外部 token、网络权限或第三方服务。
  • 未检测到高风险命令。
  • 扫描发现:3 条。

Codex — Git Clone 安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 克隆仓库:git clone https://github.com/NVIDIA/skills.git
  3. 将 "skills/paidf-orchestration-image-attribute-augmentation-workflow" 文件夹复制到 Codex 的 skills 目录中。
  4. 重启 Codex 让新的 skill 生效。

Codex — 手动复制安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 从源仓库下载 SKILL.md 及相关文件。
  3. 在 Codex 的 skills 目录中创建新文件夹。
  4. 将所有 skill 文件复制到新文件夹中。
  5. 重启 Codex 让新的 skill 生效。

Claude Code — Git Clone 安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 克隆仓库:git clone https://github.com/NVIDIA/skills.git
  3. 将 "skills/paidf-orchestration-image-attribute-augmentation-workflow" 文件夹复制到 Claude Code 的 skills 目录中。
  4. 重启 Claude Code 让新的 skill 生效。

Claude Code — 手动复制安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 从源仓库下载 SKILL.md 及相关文件。
  3. 在 Claude Code 的 skills 目录中创建新文件夹。
  4. 将所有 skill 文件复制到新文件夹中。
  5. 重启 Claude Code 让新的 skill 生效。

Cursor — Git Clone 安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 克隆仓库:git clone https://github.com/NVIDIA/skills.git
  3. 将 "skills/paidf-orchestration-image-attribute-augmentation-workflow" 文件夹复制到 Cursor 的 skills 目录中。
  4. 重启 Cursor 让新的 skill 生效。

Cursor — 手动复制安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 从源仓库下载 SKILL.md 及相关文件。
  3. 在 Cursor 的 skills 目录中创建新文件夹。
  4. 将所有 skill 文件复制到新文件夹中。
  5. 重启 Cursor 让新的 skill 生效。

GitHub Copilot — Git Clone 安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 克隆仓库:git clone https://github.com/NVIDIA/skills.git
  3. 将 "skills/paidf-orchestration-image-attribute-augmentation-workflow" 文件夹复制到 GitHub Copilot 的 skills 目录中。
  4. 重启 GitHub Copilot 让新的 skill 生效。

GitHub Copilot — 手动复制安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 从源仓库下载 SKILL.md 及相关文件。
  3. 在 GitHub Copilot 的 skills 目录中创建新文件夹。
  4. 将所有 skill 文件复制到新文件夹中。
  5. 重启 GitHub Copilot 让新的 skill 生效。

Windsurf — Git Clone 安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 克隆仓库:git clone https://github.com/NVIDIA/skills.git
  3. 将 "skills/paidf-orchestration-image-attribute-augmentation-workflow" 文件夹复制到 Windsurf 的 skills 目录中。
  4. 重启 Windsurf 让新的 skill 生效。

Windsurf — 手动复制安装

  1. 安装前请先查看来源仓库和风险报告。
  2. 从源仓库下载 SKILL.md 及相关文件。
  3. 在 Windsurf 的 skills 目录中创建新文件夹。
  4. 将所有 skill 文件复制到新文件夹中。
  5. 重启 Windsurf 让新的 skill 生效。
查看 SKILL.md 原文
name: image-attribute-augmentation-workflow
description: Run the PAIDF Orchestration Image Attribute Augmentation DAG on Kubernetes - person-crop clothing augmentation, attribute search, and augmented dataset generation. Select for requests about image attribute augmentation, person attribute search, person re-identification data, clothing augmentation, attribute captions, augmentation payloads, run status, or result retrieval. Runs environment setup first when controller readiness is unknown. Not for video or defect-image generation.

PAIDF Orchestration — Image Attribute Augmentation

Run the Image Attribute Augmentation DAG end to end: person-crop input preparation, cosmos image-edit augmentation, cosmos post-processing, event and person attribute search, augmented dataset generation, and result retrieval.

DAG selection

The workflow builds one DAG per compute platform from airflow/dags/workflows/image_attribute_augmentation_dag/:

PlatformDAG IDManifest
Kubernetesimage_attribute_augmentation_dag_k8simage_attribute_augmentation_k8s_manifest.yaml

Kubernetes is the only platform whose manifest is checked in, so image_attribute_augmentation_dag_k8s is the only DAG this repository registers. A DAG is registered only if its manifest exists; a missing manifest means the DAG is absent from Airflow rather than broken. List the DAGs Airflow actually loaded before triggering, and never name a DAG ID that is not in that list.

There is a single end-to-end pipeline — there are no augmentation-only or labeling-only DAG variants. If a user asks for augmentation without attribute search, tell them the checked-in DAG does not offer that flow rather than inventing a DAG ID.

Manual payload entry in the Airflow UI

If the user wants to enter their own payload directly in the Airflow UI rather than have you construct and trigger one, your job is limited to getting them to the UI: confirm controller readiness, ensure make port-forward is running (see airflow-direct-api.md), and report the reachable URL. Do not render a payload, run preflight, or trigger a run yourself in this case — the user is doing that from the UI. Resume monitoring (step 6 below) once they tell you a run has been triggered; you can find it via the Airflow API without needing the payload they used.

Scope

Before building any payload, collect all of the following from the user. Do not fall back to repository defaults, CI payloads, or any hardcoded endpoint URL or bucket path.

RequiredFieldWhat to ask
Alwaysinput_pathS3 (or HTTP/HTTPS) URL whose immediate subdirectories are person-ID folders
Alwaysoutput_directoryWritable S3 URL where results should be written
Alwaysservice modeexternal (user provides endpoint URLs) or internal (DAG deploys services in-cluster)
External modecosmos.vlm_service_urlFull HTTPS URL for the VLM inference endpoint
External modecosmos.llm_service_urlFull HTTPS URL for the LLM inference endpoint
External modecosmos.image_edit_service_urlFull HTTPS URL for the image-edit inference endpoint
Optionalmax_imgsNumber of person-ID folders to process (default: 1; 0 or negative = all)
Optionalcosmos.num_augmentationClothing variants per person (default: 1)
Optionalcosmos.variable_distributionClothing attribute distribution file path (see payload-contract.md)

If the user does not provide a required value, ask for it explicitly before proceeding. Do not invent or reuse values from previous runs or checked-in files.

Always run the following readiness checks before triggering a run. The checks are short-circuiting — stop at the first failure and route to the environment-setup skill immediately.

Before any check, establish the cluster connection. The cluster is reached only through credentials the user supplies — they are never part of the repository. Check whether the cluster credential file path is already exported in the shell environment; if not, ask the user for the absolute path before running any cluster command. Never assume a path or fall back to any on-disk default — see setup-and-preflight.md for the full procedure.

The controller (Airflow) and DAG compute tasks run on the same cluster unless a different remote cluster connection was configured. GPU capacity is checked on this cluster.

  1. Controller pods — check that the Airflow controller pods (not DAG task pods) are Running. DAG task pods in Pending or Failed state are normal and must not be mistaken for controller failures:

    kubectl get pods -n sdg-workflow -l "release=sdg-workflow-controller"
    

    All pods matching the release=sdg-workflow-controller label must be Running. If the namespace is absent, this is a first-install condition — route to the environment-setup skill, do not diagnose further.

  2. Airflow API — reachable only if check 1 passes. First establish AIRFLOW_URL from the Kubernetes ClusterIP (always routable from the host, no port-forward required):

    AIRFLOW_URL="http://$(kubectl get svc -n sdg-workflow \
      sdg-workflow-controller-api-server \
      -o jsonpath='{.spec.clusterIP}'):8080"
    

    Then confirm the target DAG is loaded and is_paused: False. See airflow-direct-api.md for the full auth + check sequence. If the API is unreachable, route to the environment-setup skill.

  3. Pools — only if check 2 passes. Required pools with open slots: k8s_gpu_1, default_pool, and the augmentation pool for the chosen mode (external_image_edit_service_pool for external, iaa_internal_image_edit_service_pool for internal).

  4. Compute-cluster GPUs — check the cluster (using the cluster connection established above):

    kubectl get nodes \
      -o custom-columns='NAME:.metadata.name,GPU_ALLOC:.status.allocatable.nvidia\.com/gpu'
    # Also check pods already consuming GPUs — capacity ≠ availability on a shared cluster
    kubectl get pods -n sdg-workflow \
      --field-selector=status.phase=Running -o wide
    

    The compute cluster is shared — other users' runs may be active. Report GPUs as free-versus-total, not just allocatable. External mode needs no GPUs for inference — every task pod (augmentation, cosmos_post_processing, event_and_person_attribute_search) runs on a CPU profile, unlike EVG's k8s_gpu_task-profiled auto-labeling stages. Internal mode needs at least one GPU per service replica (VLM, LLM, image-edit = at minimum three).

  5. Stale failed pods — before triggering, check for accumulated failed pods in the compute namespace and report them. They are retained by design and do not affect run correctness, but they consume namespace quota and clutter log searches:

    kubectl get pods -n sdg-workflow \
      --field-selector=status.phase=Failed \
      -o custom-columns='NAME:.metadata.name,AGE:.metadata.creationTimestamp,DAG:.metadata.labels.dag_id'
    

    Clean up only pods whose dag_id label matches a run you own, after confirming with the user.

Document each check result explicitly.

If any check fails: invoke the environment-setup skill automatically — do not wait for the user to say "set up" or ask them to name the skill.

If the user's request implies first-time or explicit deployment ("deploy", "install", "set up", "reinstall", "redeploy", "full setup"): invoke the environment-setup skill even if all checks pass, and confirm the planned commands first.

If all checks pass and the user only wants to run the workflow: proceed directly to payload and trigger.

Bundled tools

  • scripts/upload_images.py: validate/upload local <person_id>/<image>.(jpg|jpeg|png) data.
  • scripts/payload.py: render or validate a standalone ImageAttributeAugmentationDagPayloadConfig-compatible JSON.
  • scripts/summarize_results.py: summarize a downloaded augmented_data.json dataset.
  • scripts/workflow.py: drive the SDG webserver API — submit a run, poll its status, retrieve results, or cancel a single named run by ID (cancels only that run; does not touch cluster resources or other runs). Requires WEBSERVER_ENDPOINT and NGC_API_KEY. Prefer the Airflow API path below for normal operation.

Run commands from this skill directory. Credentials must be inherited from the shell that launched the agent; never ask the user to paste secret values into the prompt.

Procedure

  1. Determine the input source.

    • For local data, validate before upload:

      python scripts/upload_images.py --path /path/to/crops --validate-only
      
    • Then upload while preserving the hierarchy:

      python scripts/upload_images.py \
        --path /path/to/crops --destination-path image-attribute-augmentation/my-run
      
    • For an existing storage URL, use it unchanged after confirming it contains person-ID subdirectories. Each immediate subdirectory of input_path is treated as one person ID, and its images are combined into a single horizontal strip per person.

  2. Select service mode.

    • external requires explicit VLM, LLM, and image-edit endpoint URLs.
    • internal lets the DAG's service lifecycle deploy all three services in-cluster.
    • Choose service mode independently from controller placement. A local controller may use external inference endpoints.
    • Keep nested service mode and output directory consistent with the top level.
    • On Kubernetes each deployed endpoint claims one GPU from k8s_gpu_1, so internal mode needs at least three allocatable GPUs (more if any replicas value is raised); external mode needs none for inference.
  3. Read payload-contract.md, then render a payload from the values collected above. Do not copy checked-in dev or CI payloads — they contain deployment- specific endpoint URLs and bucket paths that must not be inherited by user runs.

    External:

    python scripts/payload.py render \
      --input-path s3://bucket/input/person-crops/ \
      --output-directory s3://bucket/output/image-attribute-augmentation/ \
      --service-mode external \
      --vlm-url https://vlm.example/v1 \
      --llm-url https://llm.example/v1 \
      --image-edit-url https://image-edit.example/v1 \
      --max-imgs 10 --num-augmentation 3 \
      --variable-distribution assets/variable-distribution.json \
      --output /tmp/iaa-payload.json
    

    Internal:

    python scripts/payload.py render \
      --input-path s3://bucket/input/person-crops/ \
      --output-directory s3://bucket/output/image-attribute-augmentation/ \
      --service-mode internal \
      --max-imgs 10 --num-augmentation 3 \
      --output /tmp/iaa-payload.json
    

    Show the user the rendered payload (or its validated contents) and get explicit confirmation before proceeding. Only continue to preflight and triggering if they confirm; if they want changes, re-render and re-confirm.

  4. Preflight the DAG through the Airflow API. Check that the DAG is loaded, required pools have slots, and controller pods are healthy — see airflow-direct-api.md#preflight-direct-path. Confirm presence only; never print credential values.

  5. Submit exactly one DAG run. Pass the payload from step 3 as conf.payload — see airflow-direct-api.md#trigger-a-run for the full request shape. Record and return the dag_run_id, input path, output directory, and service mode.

  6. Immediately after triggering — without waiting to be asked — monitor the run until it reaches a terminal state (success or failed). Poll the Airflow API every 60–120 seconds:

    # Poll run state
    RESPONSE=$(curl -s -H "Authorization: Bearer $TOKEN" \
      "$AIRFLOW_URL/api/v2/dags/$DAG_ID/dagRuns/$RUN_ID")
    RESPONSE="$RESPONSE" python3 -c "import json, os; print(json.loads(os.environ['RESPONSE'])['state'])"
    

    For a per-task breakdown when state is running or failed, see airflow-direct-api.md.

    Stop polling as soon as the run state is success or failed. Use the polling loop that fits your runtime — a shell while loop, a background process, or a tool-native scheduler. Do not block the user waiting for each poll; report state changes as they occur.

    Tell the user they can also watch progress live in the Airflow UI. make port-forward runs in the foreground and never exits, so start it as a background job — and prefer that the user runs it in their own terminal, since an agent-owned forward dies with the session. Resolve the host's real address rather than reporting a placeholder or localhost, which is meaningless from another machine:

    HOST_IP=$(hostname -I | awk '{print $1}')
    echo "Airflow UI: http://$HOST_IP:8080"
    

    Default credentials are admin/admin, defined in deploy/values.yaml under airflow.createUserJob.defaultUser (not webserver.defaultUser). Update them before production use.

    For a full per-task breakdown see airflow-direct-api.md.

    To stop an in-progress run: open the Airflow UI, find the active DagRun, locate the running task, and mark it Failed (task menu → Mark Failed). This triggers the DAG's shutdown path, cleaning up Deployments, Services, and GPU pods. Do not delete the DagRun or the DAG — that bypasses cleanup and leaves stale cluster resources.

  7. After the run reaches success or failed, ask the user: "Would you like to download and analyze the results?" Do not download automatically — wait for confirmation.

    If the user confirms, use whatever AWS credentials are already available in the shell environment (standard AWS_ACCESS_KEY_ID / AWS_SECRET_ACCESS_KEY / AWS_DEFAULT_REGION, an AWS profile, or instance role). Never ask the user to paste credentials into the prompt. Run artifacts live under <output_directory>/<run_id>/, where <output_directory> is the payload value and <run_id> is the dag_run_id from step 5. The final dataset is in augmented_dataset/:

    aws s3 sync "<output_directory>/<run_id>/augmented_dataset/" /tmp/iaa-results/
    python scripts/summarize_results.py --results-dir /tmp/iaa-results/augmented_dataset
    

    To inspect intermediate augmented images instead, sync <output_directory>/<run_id>/cosmos/ and read output_metadata.json from each <person_id>/<augmentation_index>/ folder.

    Read outputs.md before interpreting files.

Guardrails

  • Never use default endpoint URLs, bucket paths, or input paths from the codebase or checked-in payloads. Always ask the user for every deployment-specific value before building a payload. If a required value is missing, stop and ask — do not substitute a guess.
  • Preserve explicit user inputs and endpoint/model selections throughout the session.
  • Do not submit if payload validation, local dataset validation, or Airflow preflight fails.
  • Do not show AWS credentials, Airflow bearer tokens, or S3 signed URLs.
  • Do not start multiple runs unless the user explicitly requests them.
  • Ask for a dataset location if none was supplied; this workflow has no implicit demo dataset.
  • Do not invent augmentation-only or labeling-only DAG IDs — only the DAG listed above exists.
  • Only offer a platform whose manifest exists and whose DAG is loaded in Airflow.

References

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