cudaq-guide
CUDA-Q onboarding guide for installation, test programs, GPU simulation, QPU hardware, and quantum applications.
tao-generate-video-reasoning-annotations
Multi-step video annotation pipeline that turns raw videos into Chain-of-Thought training data — multi-level captions, structured descriptions, and QA pairs (MCQ, binary, open-ended) with reasoning traces, via VLM/LLM distillation. Use when the user wants to "create video training data", "generate video QA datasets", "build CoT reasoning traces from videos", "auto-label videos", or run the video_reasoning_annotation pipeline. Triggers include "video annotation", "video CoT", "video QA", "chain-of-thought", "video captioning pipeline", "video distillation".
Full skill instructions
Standalone install? If this session was not initialized by the TAO skill bank plugin, run the
tao-setupskill first (host preflight, credentials, cross-skill discovery).
Generate Chain-of-Thought training datasets from videos by producing multi-level captions, structured descriptions, and QA pairs (MCQ, binary, open-ended) with step-by-step reasoning traces. Domain-agnostic by default — customize prompts for any video domain.
Transform raw videos into CoT Q&A training data for video understanding models. VLMs (e.g., Gemini, Qwen) act as "teacher" annotators: Steps 0–1 require the model to see the video (VLM calls); Steps 2–3 are text-to-text (cheaper LLM calls).
Step 0: [Optional] Filter & classify videos → Keep domain-relevant, classify anomaly vs normal
Step 1a: Global + dense captions → VLM: narrative summary + timestamped events
Step 1b: Chunk captions → VLM: fixed-duration segment micro-captions
Step 1c: [Optional, anomaly only] Highlight → LLM extracts anomaly timestamp, VLM captions clip
Step 2: Description synthesis → LLM: synthesize captions into structured narrative
Step 3: QA generation → LLM: MCQ, binary, open-ended with reasoning
Step 4: Parse outputs → Per-task `tao-vl-reason-v1.0` JSON files
Steps are individually selectable via workflow.steps. The pipeline has built-in resume — each step skips already-processed videos, so re-running after a prompt tweak is safe.
When the user invokes this skill, walk through these questions in order. Don't skip — getting domain and VLM access right up front prevents wasted runs.
{"video_path": "..."} per line..mp4 preferred; .avi, .mov, .mkv also walked).Ask the user: "What domain are these videos from?" Choose one of the following branches:
| Domain | What to do |
|---|---|
| general | Use the default prompts. Set prompts_module: "" (or omit). The built-in nvidia_tao_ds.auto_label.video_reasoning_annotation.prompts covers domain-agnostic content. |
| traffic (CCTV intersections, highways; dashcam excluded) | Use the reference module. Set prompts_module: "nvidia_tao_ds.auto_label.video_reasoning_annotation.prompts_traffic", or copy references/prompts_traffic.py into the user's project and tune for their specific camera angles, then point prompts_module at the copy. |
| warehouse (industrial site CCTV — safety, operations, security) | Same pattern. Set prompts_module: "nvidia_tao_ds.auto_label.video_reasoning_annotation.prompts_warehouse", or copy references/prompts_warehouse.py and tune. |
| custom (any other domain) | Run the workshop in references/domain_adaptation.md. It walks through: Phase 1 — question types the user wants the model to answer; Phase 2 — caption-requirements checklist; Phase 3 — fill the [PLACEHOLDER] markers in nvidia_tao_ds.auto_label.video_reasoning_annotation.prompt_template. The two reference modules above are working examples to model after. Do this before any pipeline runs. |
workflow.mode: "auto" (Step 0 classifies each video).workflow.mode: "anomaly", drop Step 0.workflow.mode: "normal", drop Steps 0 and 1c.vlm.backend and llm.backend): user needs GOOGLE_API_KEY set, or to put the key in the YAML.base_url, model_name, and api_key.llm.backend even when vlm.backend is a frontier video model.If the user has no endpoint at all and wants to self-host, point them at the skills/applications/tao-run-inference-service skill — a workflow that stands up a network-specific TAO inference microservice locally and exposes an OpenAI-compatible endpoint. Should support Cosmos, Qwen, and Gemma. Check skills/applications/tao-run-inference-service/references/service.yaml for the current valid_network_arch_config_basenames list before relying on a specific model.
If the user doesn't have endpoint access ready and isn't ready to set one up, stop here and help them figure it out first.
custom, when any prompt was edited, or when this is the user's first run.general / traffic / warehouse once the user has previously verified output quality on the same data type.The pipeline runs inside the TAO Toolkit container via the auto_label CLI:
auto_label generate -e /path/to/spec.yaml \
results_dir=/results \
video_reasoning_annotation.data.video_root=/videos \
video_reasoning_annotation.vlm.gemini.api_key=$GOOGLE_API_KEY \
video_reasoning_annotation.workflow.mode=auto
Generate a default spec to start from:
auto_label default_specs results_dir=/results module_name=auto_label
# then set: autolabel_type: "video_reasoning_annotation"
All fields support Hydra dot-notation overrides on the command line. For the full YAML reference (every field, model/endpoint setup, error patterns), see references/configuration.md.
Use this when running a 5–10 video pilot:
prompts_module and workflow.mode.results_dir/step_1a_caption/captions.jsonl — captions accurate, capturing the right level of detail?results_dir/step_3_qa/qa_output.jsonl — questions meaningful, answers correct, reasoning logical?prompts_module if domain-customized, or fall back to general if a domain module is over-tuned), and re-run. The pipeline auto-skips already-processed videos.data.video_root (or data.input_jsonl_files) at the full set and re-running with the same results_dir (resume) or a fresh one (full re-run).Quality compounds downstream — bad captions produce bad descriptions which produce bad QA. Focus iteration on Step 1a/1b output first; descriptions and QA usually improve once captions are right.
Key fields (full reference in references/configuration.md):
| Field | Default | Description |
|---|---|---|
workflow.steps | ["0","1a","1b","1c","2","3","4"] | Which pipeline steps to execute |
workflow.mode | "auto" | "auto", "anomaly", or "normal" |
vlm.backend | "gemini" | "gemini" or "openai" (OpenAI-compatible) |
llm.backend | "gemini" | Same options; text-only, cheaper model works |
workflow.max_workers | 4 | Parallel threads per step (watch API rate limits) |
license | "" | Optional: written to metadata.license in step 4 outputs (e.g. "CC-BY-4.0") |
description_extra | "" | Optional: extra text appended to per-task descriptions in step 4 metadata |
prompts_module | "" | Dotted import path to custom prompts module |
nvidia_tao_ds.auto_label.video_reasoning_annotation.prompts — domain-agnostic, used by default.nvidia_tao_ds.auto_label.video_reasoning_annotation.prompt_template — same 26 keys with [PLACEHOLDER] markers for domain customization.traffic / warehouse branches): references/prompts_traffic.py, references/prompts_warehouse.py.video_root: Directory of videos (walked recursively for .mp4, .avi, .mov, .mkv).input_jsonl_files: List of JSONL files with {"video_path": "..."} per line. The video key is also accepted; extra fields are allowed.filter_field: Optional boolean field to filter JSONL entries.Provide video_root, input_jsonl_files, or both (lists merge).
All outputs go to results_dir/ with per-step subdirectories (step_0_filter/, step_1a_caption/, …, step_4_output/):
<task>.json per non-empty task type, in the tao-vl-reason-v1.0 envelope. Up to 10 files: mcq.json, mcq_openended.json, bcq.json, bcq_openended.json, open_qa.json, causal_linkage.json, temporal_localization.json, temporal_description.json, scene_description.json, video_summarization.json.Each step 4 file looks like:
{
"format": "tao-vl-reason-v1.0",
"metadata": {"type": "annotation", "task": "<task>", "date": "YYYY-MM-DD",
"description": "<per-task + description_extra>", "license": "<from config>"},
"media_root": "<data.video_root>" | null,
"items": [{"video_id": "...", "question": "...", "answer": "...", "reasoning": "..."}, ...]
}
media_root mirrors data.video_root (or null when unset); each item's video_id is the entry's video path with the video_root prefix stripped. Set license and description_extra in the spec to populate the metadata.
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