## Thinking Path > - Paperclip is the open source app people use to manage AI agents for work. > - Agent Chat lets a person assign work through a conversation. > - Feature and API maps do not prove that a natural request produces the right saved result. > - Product E2E already owns isolated fixtures, browser runs, evidence and cleanup. > - This pull request adds a chat scenario catalog and two real task workflows in that framework. > - Independent checks verify the task, its author, the saved output and the reply in chat. > - The benefit is a small executable foundation for broader chat coverage. ## Linked Issues or Issue Description **What existing behavior does this improve?** It adds real task creation and delegation coverage for Agent Chat. **Current behavior** Existing maps describe features and agent access. Existing chat evals cover specific protocols and handoffs. They do not connect a broad human-request catalog to independent saved-state checks. **Proposed behavior** Keep 244 planned scenarios across 35 feature areas. Promote two requests into the explicit-only `chat-features` suite. One saves a backlog task without starting work. The other delegates an announcement and returns the saved result to the original chat. **Reason and benefit** A successful tool call or confident reply does not prove the requested result exists. These evals check public API state, attribution and browser access after a real model run. **Breaking changes** No API or data schema changes. Chat instructions now require actual relative task links. The local E2E private-state scanner recognizes Codex account ownership metadata while continuing to reject credentials and model-visible identity leaks. **Additional context** Related prior work: #13969 and #13762. This improves verification of the existing Agent Chat roadmap item. It does not add a new core product feature. ## What Changed - Add YAML scenarios with capability IDs, starting context, user requests and expected outcomes. Validate all area files against their schema, global ID uniqueness and exact feature-map capability coverage. - Add two local native Codex subscription cells. Send the exact catalog request once through Chromium. - Seed only prerequisites through public APIs. Use shipped agent instructions and explicit disposable budget policies for unpriced subscription usage. - Check task ownership, creation audit, no premature execution, current worker-authored output, automatic completion delivery and usable links after reload. - Keep private Codex account ownership metadata distinct from bearer credentials. Scan rollout message content, all tokens and published evidence as before. - Teach normal chat instructions to use relative task links instead of invented hosts. Update tests, maps and the runbook. - Repair existing E2E contract drift: include the active Copilot identity in the image digest and update Pi profile expectations. Keep global catalog cardinality in its owning catalog test. Product E2E owns the new flow and grader. Its existing launch and report paths remain in use. The shared scanner change is limited to owner-private temporary Codex runtime metadata. Other callers retain the full secret scan. No UI, endpoint, schema or permission behavior changes. ## Verification - `node scripts/check-maps.mjs` passed: 35 areas and 191 capability IDs. - Product E2E typecheck and focused tests passed before rebase: 225 Vitest tests and 137 Node tests. Conversation service tests passed 40/40. Five existing runner turn-binding regressions passed. - Historical live measurement used real Chromium, server, database and native Codex with no automatic retries. The initial same-definition batch passed 5/6 cells. Backlog passed 3/3; delegation passed 2/3. One CEO startup failed because the runner did not receive a provider turn identity. The cause is unresolved. - An unchanged follow-up passed delegation three times and backlog twice. Combined evidence is backlog 5/5 and delegation 5/6. Each attempt passed cleanup. Later passes do not erase the earlier failure or prove a runner repair. - Earlier failed revisions exposed an invented task hostname, private account metadata false positives and missing funding for unpriced subscription usage. Those led to the specific changes above; the failed records remain retained locally. - The runbook records campaign identifiers and definition provenance. Generated result artifacts are not committed. Historical live results predate this branch rebase; fresh PR-source live evidence and final validation are recorded below. - Full workspace typecheck and production build passed on the rebased branch. Product E2E typecheck passed. - The full Product E2E support suite first reproduced four baseline failures: two missing active Copilot image-identity inputs and two stale Pi/catalog expectations. The narrow contract fixes above resolved them. The full rerun passed 4,282 Vitest tests plus 137 Node tests, with two skipped. Image checks verify mutation changes the hash, unchanged input stays stable, and an input closure without Copilot is unaffected. Original failed logs remain retained. - The repo-wide local Vitest run has reported two failures in unchanged service files. The Workspace connection test passed an isolated recheck and its full file passed 469/469 unchanged. The recovery test hit a 15-second timeout; its full file passed 89/89 unchanged. The run later hit explicit PostgreSQL `semget` resource exhaustion and was interrupted after those observed failures; no final aggregate counts or full local pass are claimed. Its complete available log is retained. No assertion or timeout was weakened. Matching remote server CI passed on the same source. - On clean PR head `39ad80b523ce194c90aafafd077d48dd9a36b4c5`, backlog passed in `local-2026-10-26T19-24-13-014Z`. The parallel delegation fixture failed during PostgreSQL initdb, before browser or model execution; its failed cleanup grade is retained. A disposable standalone initdb probe then passed. No semaphore sets or kernel settings were changed before that probe/recheck. After confirming no remaining fixture process, its private temporary files were removed. - One separate delegation recheck passed in `local-2026-10-26T19-29-24-800Z`, with one attempt, zero automatic retries and successful cleanup. Both passing current-source cells use definition `3f2c9ba2d03e3dcddde47ddab3b43bc52de977f25e256fceae0a24c9128e204b`. The earlier bootstrap failure and the historical provider startup failure remain distinct. These local results omit automatic source-SHA metadata; the clean checkout SHA is recorded here from the execution session. - The later broad local run reported `could not create semaphores: No space left on device`. A bounded cleanup removed 32 current-user PostgreSQL sets with 17 members, marker 537, a dead recorded creator and zero waiters. No live process or kernel limit was changed by that cleanup. The test process group was subsequently stopped; no broad rerun is planned. This direct later resource failure does not prove the precise cause of the earlier live initdb failure. - Review follow-up adds only static catalog validation and documentation of the existing five-minute journey bound. The executable definition is unchanged. Focused catalog/oracle tests passed 28/28; no redundant live run is claimed. - Final head `30fcb36ac9ae1f0270a589dbfafcec91ca6a03f3` passed all required and underlying CI checks in [run 40391402347](https://github.com/paperclipai/paperclip/actions/runs/40391402347), including `ci / verify` and `ci / e2e`. Greptile and Paperclip Review both scored this head 5/5, with all review threads resolved. The static follow-up leaves every executable definition input byte-identical to the live-tested source at `39ad80b`. Normal squash auto-merge is enabled. Actual merge is pending eligible code-owner approval for the owned dependency manifest; no protection is bypassed. ## Risks - Live model behavior can vary. One missing turn-start event remains unexplained; this PR does not claim provider reliability or broad catalog qualification. - Subscription costs are unpriced. Explicit fixture funding admits that usage. Run counts and deadlines remain bounded, but the dollar limit cannot cap unknown cost. - Account identity exceptions apply only to known private Codex runtime files. Token reuse, unknown files and model-visible rollout content remain blocking findings. - Deterministic checks establish saved state, output structure, required brief facts and access. They do not score all prose quality. Initial samples also require human inspection. ## Model Used OpenAI Codex, GPT-6 family, with reasoning, code execution, browser and repository tools. The precise model revision and context window are not exposed to this session. Live eval agents used `gpt-5.6-sol`; that is the evaluated model, not a claim about the authoring model. ## Checklist - [x] I have included a thinking path that traces from project context to this change - [x] I have specified the model used (with version and capability details) - [x] I have checked ROADMAP.md and confirmed this PR does not duplicate planned core work - [x] I have searched GitHub for duplicate or related PRs and linked them above - [x] I have either (a) linked existing issues with `Fixes: #` / `Closes #` / `Refs #` OR (b) described the issue in-PR following the relevant issue template - [x] I have not referenced internal/instance-local Paperclip issues or links (only public GitHub `#NNN` / `github.com/paperclipai/paperclip` URLs) - [x] My branch name describes the change (e.g. `docs/...`, `fix/...`) and contains no internal Paperclip ticket id or instance-derived details - [x] I have run local tests; focused suites pass and the interrupted full-run failures are documented above - [x] I have added or updated tests where applicable - [x] I have updated relevant documentation to reflect my changes - [x] I have considered and documented any risks above - [x] All Paperclip CI gates are green - [x] Greptile is 5/5 with no open P2s, recommendations, or follow-ups - [x] I will address all Greptile and reviewer comments before requesting merge --------- Co-authored-by: Paperclip <noreply@paperclip.ing>
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Paperclip evaluation guide
The explicit-only chat feature evals promote two natural-language task scenarios into local native Product E2E cells. They verify saving an unstarted task and delegating a saved announcement back to chat, using ordinary production instructions, real browser messages and independent state/provenance checks. The broader YAML catalog remains planning inventory.
The explicit-only Daytona restart continuity journey extends the existing native restart oracle to a 125-second controller outage, using the recorded Claude and Codex models in disposable development fixtures. It requires same-process adoption, saved files and finalization without replay; local regression checks and catalog discovery are separate from live acceptance.
The explicit-only GitHub review bot journey converts the Ponytail walkthrough into attended App setup, scoped installation, automatic PR review, and independent two-service checks. It supports attached self-hosted/Cloud targets and separately selected local/Daytona agents. Account and credential bindings stay in the private eval repo; registration and oracle tests do not establish a completed live pass or unattended CI qualification.
The explicit-only necessary free-text question journey checks one essential input, the rendered prompt and context, the real answer, one bound continuation, and an exact saved confirmation. Its four development cells use the recorded Codex and Claude models. Registration and calibration do not establish Slack, staging authentication, warm lifecycle, or live qualification.
Reusable Product journeys add explicit
deployment targets and starting-state recipes. The shared task-properties
journey uses no model; Cloud onboarding supplies reusable verified state. Cloud
fleet operations and trusted CI remain private. Local eval gateway qualification
does not qualify Cloud routes, and these selections stay outside --all.
The explicit-only case handoff workflow
contains arithmetic and receipt smoke cells for a same-task round trip among three native agents using real case/task
APIs, saved documents, handoff receipts, and browser readback. Receipt smoke has
an explicit terminal handoff to done on its fourth run, proving case closure
through normal task completion without a fifth provider run. It also has
an initial task-owned brief supplied at kickoff through initialDocuments,
ordinary native task document reads/writes, and case-page rollup readback.
Earlier case-document campaign results remain preserved and do not qualify
this subsequent document ownership change. The suite has
separately selectable local Codex API-key and subscription profiles with the
same model and limits. The API profile uses an encrypted company-secret
reference; the subscription profile receives only an explicitly supplied private
login fixture. The original arithmetic cell remains subscription-only.
The receipt cell declares exactly four task work runs, 90-second work-run limits,
a five-minute attempt, and 100-cent accounted-work budgets. Initial agent setup
also performs production hello probes outside heartbeat counts, budget accounting
and the work-run usage report. Up to three initial probes are expected; their
detailed tokens and cost are unavailable, and a timeout need not cancel an
in-flight probe immediately. These limits do not establish an absolute provider
inference cap, and unknown setup usage is not free. The original arithmetic cell
retains its own limits.
Service tests and workflow discovery remain distinct from a completed provider run.
The Slack connector probe catalog
organizes eleven manual model acceptance probes and a selector for existing
deterministic regressions (pnpm test:slack-connector). It is not a registered
model campaign; transport fixtures do not prove that an agent chooses a tool
or that a real Slack interaction completes.
The explicit-only live provider connection suite is a Product E2E workflow for fresh subscription/API-key/gateway connections, with attended login and independent artifact checks against local or staging targets.
The bounded personal Muse receiver probe uses ordinary task APIs and retained native receipts to measure unattended receiver behavior. It is a separate manual qualification probe, not a registered Product E2E campaign. Synthetic receiver tests cannot qualify personal Muse; real setup, clarification and fresh-conversation collaboration remain separate release gates.
Paperclip has two live eval families with different questions, owners, and evidence. Choose the family before selecting a model, profile, or case.
The explicit-only native instruction consolidation comparison uses six Product E2E cells per source variant. It measures the completion constraint reduction separately from the earlier native tool-description trial. Provider-free start/resume payload capture is a byte measurement; behavioral qualification requires the original paired live outcomes and retained content. Neither source admission nor a scripted pass proves model behavior.
- Runner Evals: real Runner/provider behavior against a seeded mock control
plane. Definitions live in
paperclip-evals/evals/paperclip-runner; see the direct live protocol evals. - Product E2E Evals: real browser, Paperclip server, database, Runner,
provider, and (where selected) Daytona, using an isolated instance and
grading oracle. See
tests/runner-e2eand Everyday Workflows.
The chat scenario catalog is a planning inventory within Product E2E: natural user requests, assumed context and expected outcomes linked to the feature and agent-access maps. It includes conditional setup, permission, approval and recovery journeys. Its YAML files are not registered runnable cells and contribute no passing coverage or scores.
Runner Evals answer whether a real runner/provider can perform a bounded protocol operation against the expected control-plane contract. Product E2E Evals answer whether a person can complete a product workflow through the real Paperclip surfaces and whether the resulting artifact and state are usable. The names describe the system under test; “headless” is an execution option, not an eval category.
The explicit Product E2E completion-updates suite compares onboarding and
idle, busy, multiple-task, and restart Agent Chat handoffs on native Claude/Codex. It separates mechanical
completion delivery/result access from semantic review of the retained answer;
see the probe contract.
The explicit-only task-titles suite checks that production guidance causes a real native agent to name prompt-only standard/Ask tasks early, while preserving user-supplied titles. Its oracle correlates browser creation, native tool receipts, durable titles, audit ownership, and the reloaded task UI; fixture prompts contain no naming instructions.
The explicit-only native connection guidance suite adds neutral decline prompts, same-task run-attributed explanations, and measured no-use controls across three native local profiles. Its fifteen configured cells are preparation for future matched instruction comparisons, not a live result. Historical Everyday cases and production prompts are preserved.
Selecting a family
Pi's explicit-only pi-controls Product suite tests Stop while native permission
is unanswered and browser-originated same-turn steering, locally and on Daytona.
Its fixture contract separates
control acknowledgment, actual message consumption and owned process retirement.
The current Pi matrix has 26 explicit cells (13 local and 13 Daytona), including
these four controls, pending-native-question controller restart, and a Daytona-only
exact-Pi-child provider-death journey. Provider death must expire the original
unanswered card and reject stale replies without a replacement run; any durable
fallback is distinct from restoration. File editing
also requires native edit/validation events and a registered artifact download.
All remain unqualified until measured on the exact candidate runtime and harness.
Use Runner Evals for a runner protocol, adapter, transport, native session,
tool grant, or one-turn provider qualification question. The workflow checks
out an exact paperclip-evals revision, builds the Runner and viewer, runs a
live roster, and renders the canonical Evalbook report. The control plane is a
seeded test authority, so a passing result does not prove browser UX, production
server behavior, database persistence, Daytona behavior, or a real third-party
mutation.
Use Product E2E Evals for browser interaction, issue/task lifecycle, approval and clarification UI, project/repository selection, persistence over a controller restart, artifact delivery, billing/evidence behavior, or runner continuity in local or Daytona environments. The harness creates a fresh Paperclip instance per cell and uses public APIs and the production browser surface. The suite's Everyday Workflows are Product E2E even when their results are imported into Evalbook.
Do not combine a partial Runner campaign and a partial Product E2E campaign into one score. A campaign is comparable when its definition/grader, model/profile, environment, and contract match. The evaluated Paperclip revision may intentionally differ for a before/after fix comparison; record it as a comparison axis.
Ownership and codepaths
Runner Evals are owned by the Runner/evals maintainers. Definitions, rosters,
case prompts, and the report program live in the sibling private repository
paperclipai/paperclip-evals; Runner integration, viewer, aggregation, and
publication code live under packages/paperclip-runner and the
runner-protocol-live-evals.yml workflow. The public-facing report uses the
same Evalbook renderer and Runner Lab viewer as the trusted report after
sanitization.
Product E2E Evals are owned by the runner E2E maintainers. The catalog and
harness are under tests/runner-e2e; the package scripts are test:e2e:runner,
test:e2e:runner:unit, test:e2e:runner:typecheck, and
test:e2e:runner:report. README.md, FIXTURES.md, SECURITY.md, and
EVERYDAY-WORKFLOWS.md are the detailed sources of truth. The harness starts
the server and embedded database, creates the company/agent/task through the
real APIs, drives Chromium, and invokes the selected local or Daytona runner.
The explicit-only agent-chat-hardening Product E2E suite covers native chat
recovery, hiring, status evidence, and review handoff on local and selected warm
Daytona paths. Its fixture contract distinguishes
startup cancellation from active response cancellation and HTTP send replay
from ambiguous provider action recovery. Select it explicitly; --all excludes it.
The explicit-only production hiring templates suite adds two local native Codex/Claude cells. It exercises API-created production CEO defaults, an explicitly requested hiring skill/reference read, a permanent coder hire, independently computed saved JSON fixtures and worker reuse. Each cell requires five work turns and admits at most two strictly attributed server task-completion turns. Every actual run remains counted; unknown or extra-work turns fail. Source/read coverage and workflow outcome are separate: missing read provenance leaves the candidate/baseline pair uncomparable even if work succeeds. Baseline bundles and coder examples derive from their own source revision, without requiring candidate wording or length.
The explicit-only context-integrity Product E2E suite covers ordered public
comment continuation and explicit invocation of an assigned pinned skill across
the seven selected legacy/native local profiles. Select it by suite or exact
execution ID because --all excludes explicit-only suites. Each cell applies a
1,000-cent company and agent budget hard stop before task creation and records
both limits in its evidence.
The explicit-only stock-harness suite reuses skill, ordered-continuation, and chat-restart journeys across eight local legacy/native profiles with production-default hires. It closes the custom QA manual coverage gap. Its required credential-free prerequisite maps vendor instruction layering, the tiny hire bundle, and shared startup/resume reductions to executable checks. The 24 live cells are configured; no live qualification is claimed from their setup or unit calibration.
The explicit-only agent-chat-stories suite covers the experimental settings
lifecycle for a configured native agent and follow-ups during active work. Its
fixture-driven file wait and persisted-plan oracle are documented in the
Product E2E guide. It does not qualify the native
onboarding wizard or change the native API-tool rollout defaults.
The explicit-only grok-qualification and grok-subscription-qualification
Product suites exercise Grok Build with API and company subscription
authentication respectively. Keep their results separate; the subscription
fixture seeds an explicitly supplied login and does not qualify interactive
login. See the Grok fixture contract.
The explicit Direct blocker guidance suite checks the legacy coordination skill against human authority, missing hiring permission, and requester scope decisions through saved browser interactions.
Validation ladder
The native Codex Daytona recover-controller cell in Everyday Workflows
requires active process and lease continuity, native receipt continuity and
workspace finalization. See the restart evidence contract.
Catalog discovery and deterministic calibration do not establish live recovery.
The explicit-only public MCP suite evaluates paid assistant delegation, later retrieval, feedback, review, uncertain retries and permission boundaries. It uses the Product E2E fixtures, launcher, evidence packaging and dashboard, with separate external-assistant and team-worker billing. The 2026-10-01 results retain two complete model matrices, provenance, costs and the earlier failure history.
Start with credential-free checks and a catalog listing. For Product E2E:
pnpm test:e2e:runner:typecheck
pnpm test:e2e:runner:unit
pnpm test:e2e:runner -- --list
For one explicitly selected local cell, configure only the credentials named
by that cell in .env.runner-e2e.local, then run a narrow ID:
pnpm test:e2e:runner -- --id core-compatibility.runner-codex.local.message-marker
Use the selectors documented in the runner E2E README
for a suite, profile, case, group, or environment. Daytona needs the immutable
image digest and DAYTONA_API_KEY; follow the README and fixture security guide.
--all excludes manual suites such as everyday-workflows. Select that suite
explicitly; use a narrow selector while developing a fixture.
For Runner Evals, the narrowest useful local validation is the report program's
help/validation path and the deterministic Runner checks documented in
runner-workflow-evals.md.
Hosted direct live runs must use the default-branch workflow, an exact 40
character evals_sha, an explicitly selected roster (or the maintained
enabled all campaign), and the protected paid environment. The complete
hosted command is intentionally kept in the workflow and
direct live protocol guide.
Live provider runs can spend money; use the existing workflow authorization and
the user's stated scope when selecting them.
Failure taxonomy
Record the primary failure class and preserve the evidence that supports it.
- Product failure: evidence shows Paperclip or Runner behavior violates the authored case or a hard invariant, such as wrong task state, missing approval gate, lost persistence, bad artifact, or incorrect protocol operation.
- Model/provider behavior failure: the provider turn completed with usable evidence but the model gave the wrong answer, ignored an interaction, failed to complete the authored operation, or violated a semantic assertion. It is scored as behavior, not silently retried as infrastructure.
- Grading/evidence failure: the case or matcher cannot establish its claim, a required recording/screenshot/result is malformed, or the report contract is invalid. Fix the harness or grader before interpreting the score.
- Infrastructure failure: the evidence points to provider/profile unavailability, transport admission failure, service startup failure, a missing credential/image, or inability to produce usable evidence. Startup, transport, and timeout symptoms can instead be product defects when evidence implicates Paperclip or Runner; classify from the observed failure and supported cause, rather than the symptom name alone. Preserve the artifact.
Missing usage or price data means unknown, not free. Keep provider-reported costs separate from estimates, and include retry costs when available. Latency, cleanup, billing coverage, and unpriced usage are dimensions of the result and should remain visible alongside the primary class. A timeout after successful product state reads can be a product behavior failure; a failed server-health read may be infrastructure, but inspect its cause. Use the family-specific classifier and read the attempt evidence before changing an analytical label.
Evidence, provenance, and history
Polling latency is an interval rather than an exact first-detection time. The Product E2E timing contract keeps last-absent/first-present bounds, resolution, strict or inclusive targets, and pass/fail/inconclusive timing verdicts alongside the unchanged workflow grade.
Retained result snapshots and dated measurement reports belong in
paperclip-evals; application tests, Product E2E fixtures/graders, and executable
scenario inventories remain in this repository. Keep a compact results index
with immutable archive links and public report links, as in the
lifecycle baseline.
The private archive is not a dependency of app test execution. Keep large logs,
traces, and videos in the existing campaign artifact storage.
An Evalbook report is a presentation of immutable attempt records, not the
source of truth. Keep the campaign ID, Paperclip commit, paperclip-evals
commit, catalog/roster or definition fingerprint, model/profile, environment,
grader version, selected cells, retries, and provider/runtime usage with the
report. Public projections follow each family's reviewed allowlist and may
include sanitized fixture conversation, named tool outcomes, screenshots, and
structured evidence intended for public history. Credentials, secrets, private
data, raw unredacted records, and hidden reasoning stay out of public
projections.
Distinguish a complete campaign from a partial campaign. A narrow selector, manual diagnostic, missing cell, or infrastructure retry can be useful evidence without being a qualification run. History should retain both, with explicit coverage and completeness, while trend and latest-green views compare only compatible complete campaigns. Refreshing an existing report from retained evidence has zero provider calls and is a new presentation of the old measurement, not a new model run.
Existing public histories are available at Runner protocol history and Runner Product E2E history. The consolidated eval hub is at pages.paperclip.ing/evals.
For a repeatable workflow, use the matching skill: paperclip-evals, add-runner-eval, or add-product-e2e-eval.
Diagnose failures before buying another campaign
Use this loop to turn eval failures into product improvements. The unit of work is a broken user outcome or invariant, not an individual red cell.
- Freeze the evidence. Record the inspected application revision and each
campaign's evaluated revision, definition/grader fingerprint, model/profile,
environment, exact selected IDs, attempts, and usage coverage. Read the
history feed and retained attempt records before launching models. A report
refresh, skipped workflow, passing unit suite, or old-definition green cell
is not a new live measurement. Inventory explicit-only suites separately
from
--all. - Reconstruct the failed boundary. Read durable task state, interactions, event chronology, source/worker identity, delivered output, and the failing assertion. State whether the test reached the boundary it claims to test. Separate observed failure, machine class, analytical cause, and confidence. A cancelled queued wake does not by itself prove lost work; a failed decline assertion does not prove unauthorized execution. A saved artifact does not prove the user received a correct completion update.
- Group by cause and product contract. Join cells only when their evidence supports the same mechanism. Check for already-merged fixes and definition corrections before proposing new work. Keep product defects, provider/model behavior, grading defects, infrastructure, and unexercised boundaries distinct. Preserve the original grades when attribution changes.
- Design the smallest general correction. Name the desired user behavior,
the authoritative state/transaction or provider boundary that owns it, the
affected callers, and the existing guarantees that must survive. Check it
against
PRODUCT.mdandSPEC-implementation.md. A change to an intentional product rule is a contract change, not an excuse to delete its guard. Avoid case-name branches, phrase-specific prompts, unconditional retries, or weakening approval, ownership, cancellation, and budget gates to get green. - Prove the mechanism cheaply. Calibrate a grader against correct and plausible wrong retained evidence. Reproduce a product race with scripted providers or service tests. Pair every proposed fix with a regression that exercises the opposite boundary (for example, eligible delivery versus revoked access, benign obsolete wake versus interrupted active work). Presentation-only changes use the existing report refresh path and make no provider calls; do not claim replay can prove changed runtime behavior.
- Select a bounded live confirmation. Write the exact failed representative IDs and only the passing controls affected by the change. Pin the source, definitions, models, and remote image. Record an attempt cap, provider and compute budget, wall-clock deadline, and concurrency before dispatch under the existing live-run authorization. Missing pricing means unknown, not free. Do not rerun unaffected green cells during diagnosis or retry usable behavior failures until they happen to pass. Preserve every attempt. Expand to a compatible qualification campaign only after the causal fix passes.
- Close with evidence and remaining scope. Report original versus new measurements, exact selected coverage, regression results, cost coverage, and unresolved boundaries. A partial verification may close one defect; it cannot turn the full catalog green or establish reliability from one attempt.
Keep one triage record per cause with: affected cell IDs; evidence links; observed failure; supported cause and confidence; existing fix/revision; proposed product contract; invariant regressions; next exact live selection; budget and stop condition; owner; and disposition. Useful dispositions include confirmed product defect, model behavior, grader correction, infrastructure repair, fixed-but-not-remeasured, historical pass, and unqualified coverage.
Parallelize independent artifact inventory, deterministic checks, and isolated cells. Keep a cell's dependent turns ordered. When delegating, use inexpensive agents for bounded extraction, catalog reconciliation, and test execution; keep causal attribution, product design, and final review with the lead. Begin local browser campaigns at the documented conservative concurrency and increase only with measured host headroom. Hosted fanout must respect the workflow's provider and fleet caps; more simultaneous timeouts do not improve wall-clock efficiency.
Current tools support exact-ID selection and retained-evidence report refresh,
but not an automatic cause-aware "rerun unresolved failures" planner. Build an
explicit selection manifest rather than treating --all as that planner. Review
the launcher's automatic retry policy when budgeting; Product E2E may create one
fresh attempt for a retryable failure.
Install the authoring skills
The reviewable sources live in this repository's .agents/skills. For a
multi-repository workspace, install the three skills at
~/paperclipai/.agents/skills (not ~/paperclipai/skills). From the Paperclip
checkout, run:
for skill in paperclip-evals add-runner-eval add-product-e2e-eval; do
install -d "$HOME/paperclipai/.agents/skills/$skill"
install -m 644 ".agents/skills/$skill/SKILL.md" \
"$HOME/paperclipai/.agents/skills/$skill/SKILL.md"
done
This replaces only the three named skill entrypoints. Run it again after updating their tracked sources. Each skill locates the repository independently of its installation directory.
Maintain the public hub
The hub is a static directory with two links to the existing history systems. It displays a dated snapshot, not a live scoreboard. It does not run models, create another result archive, or change the existing campaign URLs.
Build from the public history feeds and check its summary logic:
python3 -m unittest discover -s scripts/evals-hub -p 'test_*.py'
python3 scripts/evals-hub/build.py --output .paperclip/evals-hub
The hub checks need Python 3 and do not call model providers.
For offline checks, pass --history-dir <directory> containing
runner-protocol-evals-history.json and runner-e2e-history.json.
For a pre-merge preview, pass --docs-ref <branch-or-sha> to link the guide
at that revision. The default guide link uses master.
Publish with the Paperclip page helper
and the configured page-uploader credentials. Use Bash 4 or newer; macOS's
system Bash 3 cannot run this helper. On macOS with Homebrew Bash installed,
put $(brew --prefix bash)/bin first in PATH before these commands:
export PAPERCLIP_PAGE_BUCKET=pages.paperclip.ing
export PAPERCLIP_PAGE_BASE_URL=https://pages.paperclip.ing
export AWS_REGION=us-east-1
bash .agents/skills/paperclip-page/scripts/publish.sh .paperclip/evals-hub --slug evals --dry-run
bash .agents/skills/paperclip-page/scripts/publish.sh .paperclip/evals-hub --slug evals
For later refreshes, rebuild in the same output directory and publish with
--update. Keep its ignored .paperclip-page/state.json ownership record;
without that record, the helper will refuse to overwrite an existing prefix.
Verify the public page and its links after publication. This manual refresh
does not add a scheduled workflow. Preserve the measurement date when choosing
a newer rendering of the same campaign.
Remaining native chat boundaries are in the explicit-only
agent-chat-qualification suite: active task reassignment, user Retry after
verified worker process loss, and multi-turn answers grounded in actual task
records. See the workflow and qualification limits.
The 26 native first-task cells inspect the production wizard's saved native
default on qualified targets, without an API runner switch. The 26 Legacy cells
select Legacy explicitly in Advanced. Live results and semantic answer reviews must accompany
any qualification claim; catalog presence alone is not a pass.
The explicit-only native question/resume qualification separates a completed two-answer user journey from semantic-tool documentation qualification. It verifies the exact provider-pause or semantic-response-wake binding for each answer and preserves prior grades when the definition changes.
Lifecycle behavior baseline
The credential-free lifecycle baseline
joins unit, scripted-runner, and database integration assertions to a scenario
inventory before changing narrative-based lifecycle policy. Run
pnpm test:lifecycle-baseline to retain current passes and failures. Its Product
E2E matcher calibration is separate from live execution; unrun live coverage
remains explicitly unmeasured.
The separate live lifecycle baseline
defines 46 real-provider Product E2E cells, including paired narrative probes and
named existing controls on legacy and native Codex. Discover it with
pnpm test:e2e:runner -- --list --suite lifecycle-baseline. Historical execution
results and follow-up coverage are recorded in that suite's guide.
Continuation accounting has an explicit-only eight-cell Product E2E baseline suite, complementing the deterministic lifecycle inventory.
The explicit Product E2E instruction-persistence suite verifies private file
edits, nested and binary agent files, stopped-provider directory saves, server restart, and a fresh task's
downloaded proof on local native/legacy Codex and native Daytona. See the
Product E2E runbook.
The explicit-only Product E2E api-response-reading suite verifies retrieval of
large saved API responses on local and Daytona native Codex runs. See the
Runner E2E guide.
The explicit-only Product E2E extended-harnesses suite covers pending Cursor,
Copilot and Pi ACP profiles on local and Daytona. See the
fixture admission, credentials and budget contract.
The private Runner Evals campaign of the same name provides complementary
semantic protocol cases; catalog membership is not live qualification.
The explicit local Copilot protection fixtures
exercise native permission denial with operator cancellation and bounded attached
command settlement. Their registration remains separate from paid qualification;
source/pack provenance and complete persisted evidence are required.
The explicit-only Product E2E confirmation-replies suite tests conversational
approval and rejection, persisted message provenance, approval before execution,
ambiguous proposals, and the existing card-click path with native Claude/Codex.
See the suite contract.
Hiring notification accounting now also requires exact completed action attribution. Missing native/provider ID mapping is uncomparable evidence; it must not be reported as a model task regression or waived through name/order matching. The fixture waits for both known completion callbacks and settled bracketed observations, including the gap before pending outbox work becomes a wake. Strict action replay and original machine verdicts are retained separately.
The explicit-only planning guidance utility comparison measures task decomposition and handoffs with current, short, and disabled skills.
The explicit-only task-workspaces Product E2E suite covers projectless task files, deferred repository acquisition, controller restart and nested Git/dirty-file persistence on legacy local, native local and native Daytona OpenCode. Its three configured cells use independent filesystem, public API and download oracles; no live qualification is implied by fixture registration.
The explicit-only feedback persistence case checks real native complaint/suggestion submissions and retained bodies with run-attributed tool receipts. It is manual, uses the normal Product E2E report, and keeps synthetic feedback distinct from actionable product findings.