--- name: skill-intent-contract description: "Use when starting a complex or ambiguous task that risks scope drift" disable-model-invocation: true --- > **Host: Codex CLI** — This skill was designed for Claude Code and adapted for Codex. > Cross-reference commands use installed skill names in Codex rather than `/octo:*` slash commands. > Use the active Codex shell and subagent tools. Do not claim a provider, model, or host subagent is available until the current session exposes it. > For host tool equivalents, see `skills/blocks/codex-host-adapter.md`. # Intent Contract System ## Purpose The intent contract creates a **persistent record of user intent** that: - Captures what the user is trying to accomplish - Defines success criteria upfront - Establishes boundaries and constraints - Travels through the entire workflow - Validates final outputs against original intent This closes the loop between intention and delivery. ## Intent Contract Structure The intent contract is stored in the current resolved plan run directory as `session-intent.md`. Use `scripts/plan-storage.sh` to create or recover that directory; never write a loose intent file into `.claude/`. ```markdown # Intent Contract **Created**: [ISO timestamp] **Workflow**: [discover/embrace/review/etc.] **Status**: [active/validating/completed] ## Job Statement What the user is trying to accomplish (JTBD framework). [User's goal in plain language] ## Success Criteria ### Good Enough - [Minimum viable success criterion 1] - [Minimum viable success criterion 2] ### Exceptional - [Excellence criterion 1] - [Excellence criterion 2] ## Boundaries What this should NOT be: - [Boundary 1: What to avoid] - [Boundary 2: What's out of scope] ## Context & Constraints **Stakeholders**: [Who needs this to work for them] **Existing Assets**: [What to build on] **Timeline**: [Time constraints if any] **Technical Constraints**: [Platform, language, dependencies] ## Clarifying Context [Any answers from the 3-question pattern] ## Task Allocation **Risk**: [low | intermediate | high] **Initiative**: [human | AI | shared] — who starts and proposes **Control**: [human | AI | shared] — who oversees execution as it runs **Decision rights**: [human | AI] — who has final say on the outcome **AI role**: [none | executor | collaborator | challenger] **Execution disposition**: [AI-assisted | human-only | pending-user-decision] **Escalation decision**: [not-needed | pending | user's recorded resolution] **Resolved AUTONOMY_MODE**: [supervised | semi-autonomous | loop-until-approved | autonomous | not-applicable (contract-only sentinel)] ## Validation Checklist - [ ] Meets "good enough" criteria - [ ] Respects all boundaries - [ ] Works for all stakeholders - [ ] Builds on existing assets appropriately - [ ] Allocation still fits what the task turned out to be ``` ## Implementation Instructions ### When to Create Intent Contract Create an intent contract when: - User invokes a major workflow (`/octo:embrace`, `/octo:discover`, `/octo:plan`) - User explicitly asks to "plan" or "set goals" for a task - A workflow requires multiple phases and validation **Do NOT create for:** - Quick, single-action commands - Simple file reads or searches - Conversational questions ### Step 0: Allocate the work before scoping it Run this before capturing intent. The question is not how to run the task across agents but whether it should be delegated at all, and if so, which parts of the authority go where. Framework: Afroogh, Varshney & D'Cruz (2025), *A Task-Driven Human-AI Collaboration* ([arXiv:2505.18422](https://arxiv.org/abs/2505.18422)). **Classify risk.** Complexity is already scored elsewhere — defer to `estimate_complexity` and `classify_cynefin` in `scripts/lib/routing.sh` rather than re-deriving it. Risk is a separate axis that nothing in the codebase measures, so judge it here on three questions: - **Irreversibility** — can the effect be undone, and at what cost? - **Consequence** — is anything material at stake: safety, money, data, users? - **Accountability** — is a specific person expected to answer for the outcome? | Risk | Reading | |------|---------| | **Low** | Reversible, no material consequence, no named accountability. | | **Intermediate** | Reversible only at real cost, or consequence is unclear. | | **High** | Irreversible, materially consequential, or someone must answer for it. | **Allocate the three dimensions separately.** They are independent, and treating them as one axis is the mistake this step exists to prevent. People readily hand AI the *initiative* on unfamiliar work while keeping control and decision rights — an allocation a single autonomy slider cannot express. - **Initiative** — who starts, proposes, drafts. - **Control** — who oversees execution while it runs. - **Decision rights** — who has final say on the result. Record every outcome explicitly: | Risk / complexity | Initiative | Control | Decision rights | AI role | Execution disposition | Escalation decision | Mode | |---|---|---|---|---|---|---|---| | Low / low | AI | AI | AI | executor | AI-assisted | not-needed | `autonomous` | | Low / high | shared | human | human | collaborator | AI-assisted | not-needed | `loop-until-approved` | | High / low | human | human | human | executor | AI-assisted | not-needed | `supervised` | | High / high | human | human | human | challenger | AI-assisted | not-needed | `supervised` | The High / high allocation is adversarial: the human leads while AI attacks the proposed decision as a deliberate counterweight to the human's own bias. In High / low work, AI may execute only the bounded actions the human directly approves. **The rule that inverts.** For **intermediate-risk** work where uncertainty is highest, the cited evidence says avoid AI entirely — "neither as a gatekeeper nor as a second opinion". This contradicts the smooth intuition that middling risk implies middling involvement, and it also sits in tension with the same paper's broader claim that complete human autonomy is rarely justified. That tension is real and unresolved; surface it to the user and let them decide rather than quietly picking a side. **Resolve to a setting.** The workflow engine reads one variable, `AUTONOMY_MODE`, with four values: | Allocation | `AUTONOMY_MODE` | |---|---| | Human holds control and decision rights, approving each phase | `supervised` | | AI runs; human is pulled in on failures and quality gates | `semi-autonomous` | | AI runs and iterates; human holds final decision rights | `loop-until-approved` | | AI holds all three | `autonomous` | Record the three dimensions *and* the resolved mode. The mapping is lossy: one axis cannot represent three independent allocations, so a contract that stores only the mode loses the reason it was chosen. That record is what a later reviewer needs when the allocation turns out to have been wrong. `not-applicable` is a persisted, contract-only sentinel for human-only work; it is not a fifth runtime value and must not be passed to the workflow engine. For intermediate risk, record `Execution disposition: pending-user-decision`. Record `Escalation decision: pending`, then stop before execution. Ask the user to choose human-only handling or a specific documented AI allocation. Record their answer, rewrite the Task Allocation fields to match it, and change `Escalation decision` to the user's resolution before continuing. For a human-only resolution, record `AI role: none` and `Resolved AUTONOMY_MODE: not-applicable`; human-only `not-applicable` must not be passed to the workflow engine. Resolve to the supported human-only behavior and do not execute AI work in that state. For a documented AI-assisted resolution, record every Task Allocation field: - `Initiative`, `Control`, `Decision rights`, and `AI role` from the chosen allocation - `Execution disposition: AI-assisted` - `Escalation decision: user's recorded resolution` - `Resolved AUTONOMY_MODE`: exactly one of `supervised`, `semi-autonomous`, `loop-until-approved`, or `autonomous`, mapped using the table above Validate the selected runtime mode and only then execute. The runtime must reject `not-applicable` and every unknown or unsupported mode before workflow execution rather than defaulting to autonomous behavior. ### Step 1: Capture Intent After asking the 3 clarifying questions in a workflow, prompt the user to define: ```javascript AskUserQuestion({ questions: [ { question: "What are you ultimately trying to accomplish?", header: "Goal", multiSelect: false, options: [ {label: "Let me describe it", description: "I'll write my own goal statement"}, {label: "Make a decision", description: "Choose between options"}, {label: "Create deliverable", description: "Build something specific"}, {label: "Understand a problem", description: "Research and learn"} ] }, { question: "What defines success for this?", header: "Success", multiSelect: true, options: [ {label: "Clear recommendation", description: "Know what to do next"}, {label: "Working implementation", description: "Code that functions"}, {label: "Team alignment", description: "Everyone understands"}, {label: "Problem solved", description: "Issue is resolved"} ] }, { question: "What should this NOT be or do?", header: "Boundaries", multiSelect: true, options: [ {label: "Over-engineered", description: "Keep it simple"}, {label: "Incomplete", description: "Must be production-ready"}, {label: "Disconnected", description: "Must fit our architecture"}, {label: "Risky", description: "Avoid experimental approaches"} ] } ] }) ``` If user selects "Let me describe it", follow up with a text prompt for their custom goal. ### Step 2: Write Intent Contract File Resolve a unique run directory, then use the Write tool to create its `session-intent.md`: ```bash PLAN_STORAGE="${CLAUDE_PLUGIN_ROOT:-${HOME}/.claude-octopus/plugin}/scripts/plan-storage.sh" OCTO_PLAN_DIR="$("$PLAN_STORAGE" current "$PWD" 2>/dev/null || "$PLAN_STORAGE" create "$PWD")" cat > "${OCTO_PLAN_DIR}/session-intent.md" <