cudaq-guide
CUDA-Q onboarding guide for installation, test programs, GPU simulation, QPU hardware, and quantum applications.
tao-generate-image-grounding
Two-step image grounding pipeline: extracts referring expressions from (image, caption) pairs and grounds them to pixel-space bounding boxes via a VLM. Use when the user wants to ground captions to bboxes, generate phrase-grounded annotations, auto-label images for grounding, or run the image_grounding pipeline. Triggers include 'image grounding', 'phrase grounding', 'ground captions', 'auto-label image grounding', 'image_grounding'.
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).
Turn (image, caption) pairs into per-image grounded annotations: cleaned captions, referring expressions with character spans, and pixel-space bounding boxes for each expression. A single VLM (Gemini or any OpenAI-compatible endpoint) handles both steps.
Generate phrase-grounded training data for referring-expression and grounding models. The VLM acts as a "teacher" annotator: Step 0 extracts referring expressions from the caption while looking at the image; Step 1 returns one bbox set per expression for each image.
Step 0: Expression extraction → VLM cleans caption, extracts referring expressions + char spans
Step 1: Phrase grounding → VLM returns pixel bboxes + scores per expression
Steps are individually selectable via workflow.steps. Each step writes a per-sample checkpoint to step_<N>_*/.ckpt/<sample_id>.json and skips already-processed records on re-run. Set workflow.force_reprocess: true to ignore checkpoints and reprocess from scratch.
When a user wants to run this pipeline, walk through these steps:
Input JSONL: Ask for the JSONL path. Each line must be one object like {"image_path": "...", "caption": "..."}. image_path can be absolute or relative.
Image root: If any image_path values are relative, set data.image_root to the directory they should resolve from.
API access: Ask the user which VLM endpoint they want to use. Present these five options and act on the choice:
vlm.backend: "gemini"; require GOOGLE_API_KEY (env var or vlm.gemini.api_key).https://inference-api.nvidia.com/v1) — set vlm.backend: "openai"; collect base_url, model_name, and api_key.base_url, model_name, and (optionally) api_key; set vlm.backend: "openai".skills/applications/tao-run-inference-service skill, which stands up a local TAO inference microservice with an OpenAI-compatible API. Before promising a specific model, check skills/applications/tao-run-inference-service/references/service.yaml for valid_network_arch_config_basenames. Once the server is up, collect base_url, model_name, and (optionally) api_key; set vlm.backend: "openai".base_url, model_name, and (optionally) api_key; set vlm.backend: "openai".base_url, model_name, and (optionally) api_key; set vlm.backend: "openai".vlm.backend: "openai"; collect base_url, model_name, and (optionally) api_key.If the user has no endpoint and does not want to set one up, stop and help resolve API access first.
Workflow steps: Choose one of:
["0", "1"]["0"]["1"], which requires existing step-0 output at results_dir/step_0_expression_extraction/annotations.jsonlResume vs fresh run: By default, the workflow reuses checkpoints and skips completed records. To reprocess everything, set image_grounding.workflow.force_reprocess=true.
The pipeline runs inside the TAO Toolkit container via the auto_label CLI:
auto_label generate -e /path/to/spec.yaml \
results_dir=/results \
image_grounding.data.input_jsonl=/data/captions.jsonl \
image_grounding.data.image_root=/data/images \
image_grounding.vlm.gemini.api_key=$GOOGLE_API_KEY
Generate a default spec: auto_label default_specs results_dir=/results module_name=auto_label, then set autolabel_type: "image_grounding". All fields support Hydra dot-notation overrides on the command line.
See references/configuration.md for the full YAML structure, all parameters, model/endpoint setup, and error patterns.
step_0_expression_extraction/annotations.jsonl — are cleaned_caption and expressions[] accurate? Are the right noun phrases captured?step_1_grounding/annotations.jsonl — do the bboxes in expressions[].instances[] look right? Are confidence scores reasonable?gemini-2.5-pro) or raise media_resolution/max_output_tokens, then re-run with force_reprocess=true.Key configuration fields (full reference in references/configuration.md):
| Field | Default | Description |
|---|---|---|
workflow.steps | ["0","1"] | Which pipeline steps to execute ("0" = expressions, "1" = grounding) |
workflow.max_workers | 4 | Parallel threads per step (watch API rate limits) |
workflow.force_reprocess | false | Ignore per-sample checkpoints and reprocess from scratch |
vlm.backend | "gemini" | "gemini" or "openai" (OpenAI-compatible endpoint) |
data.input_jsonl | required | Path to input JSONL with image_path + caption per line |
data.image_root | "" | Optional prefix for resolving relative image_path entries |
A single JSONL file at data.input_jsonl. One JSON object per line:
| Field | Required | Description |
|---|---|---|
image_path | yes | Absolute path, or relative path resolved against data.image_root |
caption | yes | Free-text caption for the image |
image_id | no | Stable identifier; auto-derived from the filename if missing |
width, height | no | Image dimensions in pixels; default to 1920×1080 for bbox clamping if missing |
All outputs go to results_dir/:
step_0_expression_extraction/annotations.jsonl — per-record output enriched with cleaned_caption and expressions[] (each with text, expression_id, char_span, noun_chunk, empty instances[]).step_1_grounding/annotations.jsonl — same records with expressions[].instances[] filled in (each instance has bbox: [x1,y1,x2,y2] in pixel space, score in [0.0, 1.0], and bbox_id).results_dir/annotations.jsonl — copy of the last step's output for convenience.step_<N>_*/.ckpt/<sample_id>.json — per-sample checkpoints used for resume.nvcr.io/nvidia/tao/tao-toolkit:7.2.0-pyt <!-- versions-key: images.tao_toolkit.pyt -->CUDA-Q onboarding guide for installation, test programs, GPU simulation, QPU hardware, and quantum applications.
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