返回技能列表

opportunity-solution-tree

avelikiy
更新于 Today
33
6
33
在 GitHub 上查看
design

关于

This skill builds an Opportunity Solution Tree to structure product discovery, mapping a desired outcome to customer opportunities, potential solutions, and testable experiments. It's based on Teresa Torres' framework and is ideal for when a team is unsure what to build next or needs to prioritize multiple competing ideas. Use it to clarify complex feature spaces before creating a PRD, but not for well-defined stories or bug fixes.

快速安装

Claude Code

推荐
主要方式
npx skills add avelikiy/great_cto -a claude-code
插件命令备选方式
/plugin add https://github.com/avelikiy/great_cto
Git 克隆备选方式
git clone https://github.com/avelikiy/great_cto.git ~/.claude/skills/opportunity-solution-tree

在 Claude Code 中复制并粘贴此命令以安装该技能

技能文档

Opportunity Solution Tree (OST)

Structures product discovery by connecting a desired outcome → customer opportunities → solutions → experiments. Prevents jumping to solutions before validating the problem space.

Based on Teresa Torres, Continuous Discovery Habits (2021).


The 4-level structure

                    ┌─────────────────────┐
                    │   DESIRED OUTCOME   │  ← single measurable metric
                    └──────────┬──────────┘
               ┌───────────────┼────────────────┐
        ┌──────┴─────┐  ┌──────┴─────┐  ┌──────┴─────┐
        │Opportunity │  │Opportunity │  │Opportunity │  ← customer pain/need
        │     A      │  │     B      │  │     C      │
        └──────┬─────┘  └──────┬─────┘  └────────────┘
        ┌──────┴───┐    ┌──────┴───┐
    ┌───┴──┐ ┌───┴──┐ ┌───┴──┐ ┌───┴──┐
    │Sol 1 │ │Sol 2 │ │Sol 3 │ │Sol 4 │  ← possible solutions
    └───┬──┘ └──────┘ └───┬──┘ └──────┘
  ┌────┴────┐         ┌───┴────┐
  │ Exp 1   │         │ Exp 2  │          ← fast experiments
  └─────────┘         └────────┘

Key principles:

  • One desired outcome at a time — don't try to solve everything
  • Opportunities are customer problems/needs, never solutions
  • Generate ≥3 solutions per opportunity before choosing one
  • Experiments are the cheapest way to validate an assumption
  • The tree is a living document — update weekly as you learn

How to build an OST

Step 1 — Define the desired outcome

Confirm or help the user articulate one measurable outcome at the top of the tree.

Good outcomes:

  • "Increase 7-day retention from 20% to 35%"
  • "Reduce time-to-first-value from 3 days to 1 day"
  • "Increase conversion from free to paid from 2% to 5%"

Bad outcomes (reject these):

  • "Build a better onboarding" — that's a solution
  • "Improve the product" — unmeasurable
  • "Launch feature X" — that's an output

If the user can't state a metric: ask "What would need to be true for you to consider this effort a success?"

Step 2 — Map opportunities from research

From customer interviews, analytics, support tickets, or NPS feedback, identify 3–7 customer opportunities (pain points, unmet needs, desires).

Frame each from the customer's perspective:

  • ✅ "I struggle to understand which plan is right for me"
  • ✅ "I can't find past purchases quickly"
  • ✅ "I feel anxious about whether my data is safe"
  • ❌ "Users need a better search" — that's a solution

Prioritise using Opportunity Score (Dan Olsen, The Lean Product Playbook):

Opportunity Score = Importance × (1 − Satisfaction)

Survey customers: rate each need on Importance (0–1) and current Satisfaction (0–1).

  • High Importance + Low Satisfaction = highest score = best opportunity
  • Plot on Importance vs Satisfaction chart — upper-left quadrant is the sweet spot

Step 3 — Generate solutions (diverge before converging)

For each top-priority opportunity, brainstorm ≥3 solutions from three angles:

  • PM perspective: What UX/product change addresses this?
  • Designer perspective: What interaction or visual change?
  • Engineer perspective: What technical approach? (often the most creative)

Rules:

  • Don't commit to the first idea — compare and contrast
  • "Best ideas often come from engineers" — include technical solutions
  • Solutions should be independent (different solutions for the same opportunity)

Step 4 — Design experiments

For the most promising solutions, design 1–2 fast experiments:

ExperimentAssumption testedMethodSuccess metricEffort
<experiment name><what belief this validates><A/B test / fake door / prototype / interview><metric + threshold><1d / 3d / 1w>

Assumption categories (prioritise in this order):

  1. Value: Will users want this? (most important to test first)
  2. Usability: Can users figure it out?
  3. Feasibility: Can we build it?
  4. Viability: Does the business case work?

Cheap experiment types:

  • Existing product: A/B test, fake door, prototype, user interview, data analysis
  • New product: XYZ hypothesis ("At least X% of Y will do Z"), landing page, concierge MVP

Step 5 — Visualise and document

Write docs/discovery/OST-<outcome-slug>.md:

# Opportunity Solution Tree: <Outcome>

**Desired outcome**: <metric> from <current> to <target> by <date>
**Last updated**: <date>

## Opportunity map

| # | Opportunity | Importance | Satisfaction | Opportunity Score | Priority |
|---|------------|-----------|-------------|-------------------|---------|
| A | <customer need> | 0.8 | 0.3 | 0.56 | 1st |
| B | <customer need> | 0.7 | 0.6 | 0.28 | 3rd |
| C | <customer need> | 0.6 | 0.2 | 0.48 | 2nd |

## Solutions for top opportunities

### Opportunity A: <name>
| Solution | Description | Experiment |
|---------|-------------|-----------|
| Sol A1 | <description> | <experiment> |
| Sol A2 | <description> | <experiment> |
| Sol A3 | <description> | <experiment> |

## Active experiments

| Experiment | Assumption | Status | Result |
|-----------|-----------|--------|--------|
| <name> | <assumption> | Running / Done | <result or pending> |

## Learning log

- <date>: Discovered <insight> from <source>. Killed <solution> / promoted <opportunity>.

Integration with /prd

Once an opportunity is validated and a solution is chosen: → Run /prd with the validated opportunity as the problem statement → The OST's Opportunity Score data feeds directly into PRD §3 (Success Metrics) and §4 (Target Users)


Anti-patterns

Opportunity = solution in disguise: "Users need a search bar" is a solution. "Users can't find past purchases" is an opportunity.

Skipping divergence: Picking the first solution for each opportunity. Always generate ≥3 before choosing.

Experiments that take >1 week: If it takes longer than a week to learn, it's not an experiment — it's a feature.

Updating the tree once: OST is a continuous practice. Update weekly as you learn.

Too many outcomes: One outcome per tree. If you have multiple outcomes, run multiple trees or pick the highest priority.

GitHub 仓库

avelikiy/great_cto
路径: skills/opportunity-solution-tree
0
agentic-codingclaude-code-pluginclaude-code-skillsclaude-code-subagentscode-reviewcto

相关推荐技能

content-collections

Content Collections 是一个 TypeScript 优先的构建工具,可将本地 Markdown/MDX 文件转换为类型安全的数据集合。它专为构建博客、文档站和内容密集型 Vite+React 应用而设计,提供基于 Zod 的自动模式验证。该工具涵盖从 Vite 插件配置、MDX 编译到生产环境部署的完整工作流。

查看技能

polymarket

这个Claude Skill为开发者提供完整的Polymarket预测市场开发支持,涵盖API调用、交易执行和市场数据分析。关键特性包括实时WebSocket数据流,可监控实时交易、订单和市场动态。开发者可用它构建预测市场应用、实施交易策略并集成实时市场预测功能。

查看技能

creating-opencode-plugins

该Skill帮助开发者创建OpenCode插件,用于接入命令、文件、LSP等25+种事件。它提供了插件结构、事件API规范和JavaScript/TypeScript实现模式,适合需要拦截操作、扩展功能或自定义事件处理的场景。开发者可通过它快速构建响应式模块来增强OpenCode AI助手的能力。

查看技能

sglang

SGLang是一个专为LLM设计的高性能推理框架,特别适用于需要结构化输出的场景。它通过RadixAttention前缀缓存技术,在处理JSON、正则表达式、工具调用等具有重复前缀的复杂工作流时,能实现极速生成。如果你正在构建智能体或多轮对话系统,并追求远超vLLM的推理性能,SGLang是理想选择。

查看技能