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structure-thinking

Structured problem analysis and communication using system mapping and hierarchical logic. Use when a request involves messy, multi-factor problems, root-cause analysis, intervention design, feedback loops or delays, or when a clear top-line recommendation with logically grouped support is required.

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structure-thinking

# Structure Thinking ## Overview Use this skill to turn a messy situation into a clear decision path. You will model the system to find real levers, then build a compact argument that enables action. The focus is practical: define the decision, diagnose the system behavior, choose interventions, and communicate a decisive recommendation. ## Preferred Inputs - Decision owner and deadline. - Success definition (metric, threshold, or observable change). - Constraints (budget, time, policy, technical limits). - Behavior over time (trend, seasonality, oscillation). If any are missing and the user wants an answer now, proceed with explicit assumptions and mark them as `Assumed`. ## Workflow ### 1) Define the Decision and Question Goal: one clear governing question and a provisional answer. Do: - Write a one-sentence decision statement: “Decide whether to X by date Y to achieve Z.” - Capture `Situation`, `Complication`, `Question`, `Answer`. - List assumptions and unknowns explicitly. Output: - Governing question. - Provisional answer in one sentence. ### 2) Describe Behavior Over Time Goal: pin the problem to a trend, not a feeling. Do: - Summarize how the key metric changes over time. - Note seasonality, spikes, or oscillations. - State the time horizon that matters. Output: - Behavior-over-time summary (2-4 bullets). ### 3) Model the System Goal: explain why the behavior persists. Do: - Define system boundary and stakeholders. - Identify 1-3 critical stocks and their flows. - Draw reinforcing and balancing loops. - Mark delays and missing information. Output: - System map notes: stocks, flows, loops, delays. ### 4) Generate Hypotheses (MECE) Goal: create testable explanations or options. Do: - Build an issue tree with 3-5 MECE branches. - Label each branch as an assertion (not a topic). - Rank branches by impact and evidence availability. Output: - Issue tree with ranked branches. ### 5) Select Leverage Points and Interventions Goal: choose a small set of actions that change structure, not just parameters. Do: - Map top branches to leverage points. - Propose 1-3 interventions and how they change the system. - Identify risks, side effects, and where resistance will appear. Output: - Intervention shortlist with mechanism + risks. ### 6) Build the Argument Hierarchy Goal: make the decision obvious and actionable. Do: - Lead with the answer. - Add 2-5 support points, each an assertion. - Place evidence under each support. - Keep each layer MECE and parallel. Output: - Decision-ready outline (top-line + supports + evidence). ### 7) Validate and Iterate Goal: avoid false confidence. Do: - Run counterfactuals and ask what would disprove the answer. - Check for feedback delays and unintended consequences. - Update the system model and argument as evidence changes. Output: - Final recommendation with confidence level and known gaps. ## When Inputs Are Missing Deliver a best-effort output with explicit assumptions. Use this format: - `Assumed`: list what you assumed and why. - `Open questions`: list what would change the answer most. - `Provisional diagnosis`: short system explanation. - `Interventions`: 2-3 actions with risks. Do not block the answer unless the user explicitly asks you to wait. ## Practical Prompts Use these to move fast when information is incomplete. Decision framing: - “What single decision are we making, by when, and who owns it?” - “What does success look like in one metric?” Behavior over time: - “Show the metric trend for the last N weeks/months.” - “Where are the spikes, delays, or oscillations?” System modeling: - “What is the main stock that is accumulating or draining?” - “Which loop is reinforcing the problem?” - “Where is the delay that hides the effect?” Interventions: - “Which rule change would prevent the loop from amplifying?” - “Which information flow, if made visible, would change behavior?” ## Intervention Checklist For each proposed action, answer: - Mechanism: which loop or stock does it change? - Owner: who can implement it? - Trigger: when does it take effect? - Metric: what leading indicator confirms it works? - Risk: what side effect or resistance might appear? ## Evidence Quick Check - Baseline: what is the current level and trend? - Attribution: what evidence links cause to effect? - Counterfactual: what would disprove this claim? - Lag: how long until impact should show up? ## Output Templates Decision memo (short): - Answer (1 sentence) - Why now (1-2 sentences) - Key supports (2-5 bullets) - Evidence per support (2-4 bullets) - Intervention plan (actions, owner, timing) - Risks and mitigations System summary (short): - Boundary and actors - Key stocks and flows - Dominant loops - Delays and information gaps ## Mini Example (Software) Problem: API latency spikes during peak traffic. Decision statement: - Decide whether to change retry and rate-limit policy this quarter to stabilize p95 latency. Provisional answer: - Yes, reduce retry amplification and shorten scaling delay. Top-line outline: - Answer: change retry and rate-limit rules and adjust scaling thresholds. - Support 1: retry amplification dominates peak load. - Support 2: scaling delay creates overshoot. - Support 3: policy changes reduce queue growth without lowering throughput. ## Common Failure Modes - Jumping to solutions without modeling the system. - Mixing causes, solutions, and evidence in one layer. - Optimizing a local metric that harms the whole system. - Parameter tweaks that ignore feedback or delays. - Vague supports with no mechanism or evidence. ## Reference Map - Load `references/structured-communication-core.md` for hierarchical logic, MECE, SCQA, and writing rules. - Load `references/systems-dynamics-core.md` for system concepts, leverage points, and practice rules. - Load `references/integrated-framework.md` for the unified method and example. - Load `references/software-playbooks.md` for software-focused playbooks.

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⬇ 下载 structure-thinking v1.0.0

文件大小: 10.36 KB | 发布时间: 2026-4-16 18:06

v1.0.0 最新 2026-4-16 18:06
- Initial release of structure-thinking skill.
- Provides a step-by-step workflow for analyzing and communicating complex, multi-factor problems through system mapping and hierarchical logic.
- Includes preferred inputs, clear output templates, and practical example for software scenarios.
- Offers checklists for interventions, evidence, and common failure modes.
- References core materials for structured communication and systems thinking.

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