ce-work
everyinc/compound-engineering-plugin
Execute a plan or concrete work prompt end-to-end with local verification.
What is ce-work?
Executes bounded implementation tasks from a plan document, specification, or concrete work request. Use this when you have a clear scope and need implementation plus local verification without the full shipping workflow; use ce-debug for open-ended bugs instead.
- Executes implementation tasks from a plan, spec path, or work description
- Performs local verification and records evidence for each completed task
- Handles recovery and inspection of existing runs without re-executing completed work
- Supports Return-to-Caller Mode for outer orchestrators to own final verification gates
- Manages workspace setup, branch placement, and pre-work inventory before writing
- Integrates with cross-model execution when needed via structured controller handoff
How to install ce-work
npx skills add https://github.com/everyinc/compound-engineering-plugin --skill ce-work- A writable canonical checkout (established during Phase 1)
- Either a plan path, work description, or run ID for recovery
- References directory from the skill must be readable by the harness
How to use ce-work
- 1.Provide a plan path, work description, or leave blank to use the latest plan
- 2.The skill reads input-triage.md to classify your request and handle recovery if needed
- 3.Phase 1 establishes workspace, resolves execution engine, and selects strategy
- 4.Phase 2 executes implementation tasks, records verification evidence, and commits changes
- 5.In standalone mode, Phase 3-4 completes code review and shipping; in Return-to-Caller Mode, the result is returned for the caller to own remaining gates
Use cases
- Implementing a feature from a detailed plan document created by ce-plan
- Executing a concrete build request with clear scope and acceptance criteria
- Recovering or inspecting a previous implementation run by run ID
- Handing off verified implementation to an outer orchestrator for review and shipping
- Executing trivial changes (one or two files, no behavioral change) without full planning
- Developers executing bounded implementation tasks from specifications
- Orchestrator workflows that need implementation and verification separate from shipping
- Teams using ce-plan to scope work before ce-work executes it
- Engineers debugging with ce-debug for open-ended issues
ce-work FAQ
Use ce-work when you have a clear plan, specification, or bounded work request. Use ce-debug for open-ended bugs where the root cause and scope are not yet known.
In standalone mode, you are asked once whether to include or exclude that file. In Return-to-Caller Mode, the run returns blocked, naming the collision and recovery steps.
In standalone mode, yes—it reads shipping-workflow.md and requires an actual code-review receipt or authorized skip before shipping. In Return-to-Caller Mode, code review and shipping are owned by the invoking workflow.
Yes. Provide the run ID during Phase 0 input triage. Recovery never re-executes completed verification or reruns completed tasks.
A mode where ce-work performs implementation and local verification only, then returns a structured result to the invoking orchestrator, which owns final verification gates and shipping.
Full instructions (SKILL.md)
Source of truth, from everyinc/compound-engineering-plugin.
name: ce-work description: Execute a plan or concrete work prompt end-to-end. Use when implementing from a plan document, a spec path, or a clear build request; use ce-debug for open-ended bugs. Use when an outer orchestrator needs implementation and local verification only, without the shipping tail. argument-hint: "[Plan path, work description, or recovery request with run id; blank uses latest] | [mode:return-to-caller [implementation_engine:<compact-json>] [implementation_run:<safe-id>] <plan path> for outer orchestrators]"
Work Execution Command
Outcome
- Result: A fully implemented, locally verified change set from a plan, specification, or concrete work prompt.
- Next consumer: In standalone use, the shipping workflow takes the verified change through review and delivery. In Return-to-Caller Mode, the invoking workflow receives the structured implementation and verification result and owns its remaining gates.
- Done: Every in-scope task is complete, required verification evidence is recorded, relevant checks pass, and the run reaches either its owned shipping handoff (with a code-review receipt or explicit skip phrase — see Phase 3-4), a complete return result, or an explicit blocker.
- Intent: Finish the requested feature without renegotiating the plan or transferring canonical integration authority. Workers receive bounded units; the host orchestrator inspects actual changes and owns authoritative verification and canonical commits.
Execution Workflow
Bundled references must be read, never approximated. Resolve each reference or script path named below from this skill's loaded SKILL.md directory, using the full skill path the harness supplied, and never glob the target repository to find a bundled file. Read each reference when you enter the phase it governs; a read made before that phase does not satisfy it, and a reference this file says to read again is read again at its step even when already in context. If the harness does not expose the skill directory, or a required file cannot be read, stop before the action it governs and report which file is missing. Do not reconstruct its rules from memory; report the missing reference instead of continuing natively.
Phase 0: Input Triage
Recovery activation comes first. Before classifying the input as a plan, a path, a blank, or a bare prompt, recognize requests to resume, inspect, reap, or clean up an existing run. Recovery never dispatches a new worker, selects a new route, discovers another plan, reruns completed verification, or enters either shipping path. If the run id is missing, ask for it; never guess one.
Before any other input decision, read references/input-triage.md. It decides source resolution, control tokens, recovery, read-only discovery, plan readiness, non-code routing, blank input, and bare-prompt sizing. Three rules from it hold here:
- A bare prompt that is Trivial — one or two files, no behavioral change — skips the task list but still resolves its execution engine before writing. A purely mechanical diff also ships without a post-PR watch. When either is uncertain, take the fuller route.
- A bare prompt that
ce-planalready sized in this session is executed, not planned again. A decision the user would weigh is asked as a question, never as a route back toce-planorce-brainstorm. - If that reference cannot be read, stop; never treat control tokens or a non-executable artifact as code work.
When triage selects Return-to-Caller Mode, read references/return-to-caller.md immediately and record that it governs how this run ends. If it cannot be read, stop before any mutation; do not fall back to standalone behavior.
Phase 1: Quick Start
-
Establish the workspace. Before moving branches, editing, dispatching, or committing, read
references/workspace-setup.md. It decides the writable checkout, plan clarification, branch placement, the pre-work inventory, already-dirty files, and task setup. Never write without a writable canonical checkout, and never write on the real default branch unless the user explicitly directed that in this session.Do not commit or publish anything the user did not offer. When a unit needs a file that was already dirty, standalone mode asks once whether to include or exclude that file. Return-to-Caller Mode neither asks nor edits it; it returns blocked, naming the collision and how to recover.
-
Resolve the engine, then strategy. After bounded plan intake and task derivation, but before selecting a unit for execution, writing, dispatching, or committing, read
references/execution-engines.mdand complete its route selection. It applies with or without a typed binding; native execution is eligible only when that reference selects it or exhausts an allowed fallback. The engine choice never changes which reference governs how the run ends.If cross-model execution is selected, read
references/cross-model-execution.mdbefore any content or authority crosses to the other model. It defines controller initialization, the post-init engine lock, bounded egress, transactions, recovery, and receipts.Before choosing inline, serial, or parallel execution, and before dispatching any worker, read
references/execution-strategy.md. It decides scheduling, isolation, the packet each worker receives, worker lifecycle, and integration. The host orchestrator keeps authoritative verification and makes the canonical commits.
Phase 2: Execute
Before the first implementation write, including on the Trivial route, read references/implementation-loop.md. It decides how evidence is chosen, verification, when to stop a unit, incremental commits, following existing patterns, continuous testing, where simplification stops, UI work, progress tracking, and settled decisions.
The commit rule from this file stays in force throughout: every implementation commit names only that unit's owned files. A bare git commit can absorb the user's pre-existing index, so it is forbidden.
Phase 3-4: Quality Check and Finishing Work
After the tasks and local verification are complete, standalone mode reads references/shipping-workflow.md before any quality check or delivery. It decides simplification, code-review receipts and fallbacks, leftover findings, final validation, and delivery.
Code-review completion gate (standalone only). Code review must actually happen before shipping. The run is not done, must not call a commit or shipping skill, and must not report that shipping is complete until the shipping reference has recorded either an actual completed ce-code-review receipt or one of its exact authorized skip states. Never substitute a mental self-review or findings already applied earlier. This rule does not apply in Return-to-Caller Mode.
Return-to-Caller Mode
Return-to-Caller Mode performs implementation and local verification only. It must not enter Phase 3-4 or run final simplification, code review, PR creation, CI watching, babysitting, or any other standalone shipping action; the caller owns those steps.
Immediately before emitting the result, read references/return-to-caller.md again. It alone defines the full return result, the check that evidence is complete, the route and model records, recovery semantics, and standalone_shipping_skipped: true. Do not build a complete result from this file.
If that required read fails after planning or implementation created state, preserve every changed file, commit, workspace, and controller record. Return the minimum blocked result from this file: status: blocked, plan_path, run_id when known, changed_state, blockers naming the missing reference, and recovery_path. Do not erase partial state, report success, or fall into the standalone shipping path.
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