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thinking-reversibility

thinking-reversibility

github.com/tjboudreauxProductivity1.7k585 installsUpdated 12w ago
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About thinking-reversibility

thinking-reversibility is a decision-making skill for people weighing how much analysis a choice needs. It calibrates process to the cost of undoing a decision and encourages staged commitments where possible.

Key features

  1. 01Classifies choices by reversal cost
  2. 02Compares action and inaction risks
  3. 03Suggests ways to preserve options
  4. 04Matches deliberation to commitment

Use cases

  1. 01Choosing whether a decision needs more analysis
  2. 02Designing a pilot before a hard-to-reverse change
  3. 03Responding to asymmetric risks of acting or waiting

Install

Copy the command and run it in a terminal.

$npx skills add https://github.com/tjboudreaux/cc-thinking-skills --skill thinking-reversibility

After installing, type/thinking-reversibilityin Claude Code to confirm it loaded.

Details

From the project README

Reversibility

Core rule: match process depth to undo cost. Most decisions are cheaper to reverse than they look; irreversible ones deserve deliberation and staged commitment.

When to Use

  • Uncertain how much analysis a decision deserves (tech, process, product, org)
  • Tempted to committee a low-blast-radius choice, or to rush a high-lock-in one
  • Can redesign the move (pilot, flag, abstraction, time-box) to lower undo cost
  • High-stakes choice where acting vs waiting have asymmetric recovery profiles

When NOT to Use

  • Already classified this session—decide at matched depth; do not re-label forever
  • Trivial two-way calls (names, local refactors) where deciding is cheaper than classifying
  • Externally forced move with no optionality (hard deadline, contract, regulation)
  • Correctness gates (security, data integrity) that need the right answer, not speed theater

Procedure

  1. Name the decision and undo path. State what would be committed and the concrete reverse move (rollback, migrate back, revoke, re-hire, re-contract).
  2. Score reversibility. Assess technical effort, time, money, reputation, dependents, and learning lost if reversed. Classify:
    • Type 2: undo in days, low cost → decide fast
    • Type 1.5: undo in weeks, moderate cost → light structure + monitor
    • Type 1: months or not realistically undoable → deliberate
  3. Asymmetric downside / recovery. For Type 1 or 1.5:
    • Acting wrong: downside, recoverable?, recovery cost
    • Not acting: what permanently closes (window, exclusivity, path lock)
    • Rule: recoverable acting downside + permanent inaction loss → staged commit over indefinite delay; catastrophic or third-party harm → refuse or redesign first
  4. Option-preserving redesign. Prefer pilots, feature flags, interfaces, versioning, time-boxed vendor terms, or strangler slices that convert Type 1 surface into Type 2 experiments. Deliberate only the residual irreversible core.
  5. Match process and commit. Type 2: pick a reasonable option, ship, monitor. Type 1: document assumptions, argue the opposing case, surface to owner if stakes require it. Stop once class and commitment depth are set—do not re-analyze without new undo-cost evidence.

Output

Decision: …
Undo path: …
Class: Type 2 | 1.5 | 1 (factors: …)
Acting downside / recovery: …
Not-acting permanent loss: …
Staging / option-preserving move: …
Process depth: decide-now | pilot | full deliberation
Commitment: …

Verification

  • Falsify: If "we can always change later" has no concrete undo path and cost, treat as more irreversible until proven otherwise.
  • Stop: After class and process depth are set, further taxonomy is waste—execute the matched process.
  • Over-application guard: Do not slow trivial Type 2 work with matrices. Do not use "two-way door" to skip verification on irreversible data, security, or public commitments.

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