glr-qa

Run goal-driven GameLearningRuntime QA against an authorized game, training adapter, replay, or live probe and produce a dated JSON plus self-contained HTML report. Use when a player asks whether a game works well, wants bug discovery, regression checks, or evidence from bounded training runs.

Turn a plain-language objective into bounded, inspectable QA evidence. Preserve the boundary between deterministic checks, scripted replay, training metrics, and live-host acceptance; a passing smoke command is not proof that the whole game is complete.

1. Restate the goal and identify the authorized project/adapter and evidence scope. Resolve the nearest glr-project.toml or legacy glr-project.json; do not infer a root from an adapter folder name. Reject ambiguous manifests. Keep machine paths and local overrides out of shared reports, even when doctor prints them.
2. Choose finite checks (for example adapter doctor, deterministic regression, replay, and an explicitly bounded training probe). Never invent credentials, game internals, or unrestricted automation.
3. Run the checks with python -m game_learning_runtime.qa or call game_learning_runtime.qa.run_qa. Use --project for the adapter working directory and one or more --check NAME COMMAND... arguments.
4. Inspect result.json and open index.html from the generated .glr-qa/YYYY-MM-DD/<time>/ directory. Report failures with their command output, duration, and likely next investigation; report missing live evidence as an evidence gap.

Example:

powershell

# Install GLR and the downstream package in the selected environment first.
python -m game_learning_runtime.qa "inspect the whole game for bugs" `
  --project . `
  --check doctor glr --project . doctor `
  --check regression python -m pytest tests/test_runtime_integration.py -q `
  --check training python -m your_adapter.train --steps 1000

Do not claim release quality from this report alone. Keep proprietary traces and secrets out of artifacts; publish only evidence the project owner authorized.

For trained-stage installers, read USER_RELEASE.md. Verify installation, startup without source/system Python, inference parity, frozen mode, missing prerequisites, offline operation, version rollback, and uninstall preserving user data. Report synthetic installer tests separately from real application and authorized live-game acceptance.

Verify workbench collection

• Inspect the installed glr --json telemetry schema before assuming a view or reporting feature exists. Read the glr-cli Skill's references/data-collection.md when that Skill is installed.
• Read back glr --json telemetry state RUN_ID and glr --json runs trace RUN_ID --events-after -1 --metrics-after 0 with complete cursor traversal. Match run/environment, source, episode and step before correlating events, metrics, capture frames or evaluator outcomes.
• Inspect legacy JSONL through Process logs or glr --json runs log RUN_ID --path trainer.log --offset 0. Continue byte cursors; a rendered 64 KiB tail, filtered record set or browser export is not the complete history. Confirm truncated/partial records are labelled rather than silently dropped.
• Check one actual event/metric, source-state update and registered artifact. Reopen the observer and verify a completed-run backup to test persistence. Do not fabricate diagnostics or start a live game merely to populate cards.
• A successful ingest, rendered workbench, or process receipt does not establish action success, effective learning or capture alignment. Report missing source instrumentation separately from frontend rendering defects.

Training capture profile

For imported projects, use the sibling package workflow. Record package validity separately from dependency readiness, synthetic conformance, live acceptance and model quality. Import does not execute a QA check, and package conformance is not a QA result: it verifies the envelope, the materialized tree, the declared locks and the prerequisites, and reports training, live_acceptance and policy_quality as not-evaluated. Exit 0 means the synthetic conformance check passed; 4 means reproduction is blocked and blockers names the axis. A blocked reproduction is still a valid, fully materialized package — report both halves rather than one verdict. A model group admitted into a package proves artifact identity, not policy quality.

Before configuring or running recorded training, read the sibling GLR CLI recording contract. Resolve glr capture preset and glr capture layout from the authorized project. Use training-balanced by default and verify the actual finalized video and checksummed frame index before claiming training-data readiness.

For downstream training projects, inspect their QUALITY.md and include static, installed-wheel, offline training-regression, and applicable logging/monitoring checks. Missing packaging, source-path injection, or untested queue/rotation failure paths are quality gaps even when existing source-tree tests pass.