mcpField
A
adr-decision-extraction

adr-decision-extraction

github.com/existential-birdsDevelopment85139 installsUpdated 11w ago
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About adr-decision-extraction

adr-decision-extraction is a skill for identifying architectural decisions in conversation context and preparing structured input for ADR generation. It detects explicit tags, decision language, trade-offs and problem-solution statements, then records context and confidence.

Key features

  1. 01Detects explicit ADR markers
  2. 02Finds choices and trade-offs
  3. 03Captures context and alternatives
  4. 04Assigns confidence levels
  5. 05Validates and deduplicates decisions

Use cases

  1. 01Extract decisions from session transcripts
  2. 02Review conversation history for documentation
  3. 03Prepare structured input for ADR writing

Install

Copy the command and run it in a terminal.

$npx skills add https://github.com/existential-birds/beagle --skill adr-decision-extraction

After installing, type/adr-decision-extractionin Claude Code to confirm it loaded.

Details

From the project README

ADR Decision Extraction

Extract architectural decisions from conversation context for ADR generation.

Detection Signals

Signal TypeExamples
Explicit markers[ADR], "decided:", "the decision is"
Choice patterns"let's go with X", "we'll use Y", "choosing Z"
Trade-off discussions"X vs Y", "pros/cons", "considering alternatives"
Problem-solution pairs"the problem is... so we'll..."

Extraction Rules

Explicit Tags (Guaranteed Inclusion)

Text marked with [ADR] is always extracted:

[ADR] Using PostgreSQL for user data storage due to ACID requirements

These receive confidence: "high" automatically.

AI-Detected Decisions

Patterns detected without explicit tags require confidence assessment:

ConfidenceCriteria
highClear statement of choice with rationale
mediumImplied decision from action taken
lowContextual inference, may need verification

Output Format

{
  "decisions": [
    {
      "title": "Use PostgreSQL for user data",
      "problem": "Need ACID transactions for financial records",
      "chosen_option": "PostgreSQL",
      "alternatives_discussed": ["MongoDB", "SQLite"],
      "drivers": ["ACID compliance", "team familiarity"],
      "confidence": "high",
      "source_context": "Discussion about database selection in planning phase"
    }
  ]
}
Field Definitions
FieldRequiredDescription
titleYesConcise decision summary
problemYesProblem or context driving the decision
chosen_optionYesThe selected solution or approach
alternatives_discussedNoOther options mentioned (empty array if none)
driversNoFactors influencing the decision
confidenceYeshigh, medium, or low
source_contextNoBrief description of where decision appeared

Extraction Workflow

  1. Scan for explicit markers - Find all [ADR] tagged content
  2. Identify choice patterns - Look for decision language
  3. Extract trade-off discussions - Capture alternatives and reasoning
  4. Assess confidence - Rate each non-explicit decision
  5. Capture context - Note surrounding discussion for ADR writer

Hard gates

Run these in order after the workflow above and before returning output. Each step has an objective pass condition.

  1. Explicit [ADR] inventory — Capture every [ADR] segment from the full source (verbatim in working notes). Pass: a second pass over the same source adds no new [ADR] blocks.
  2. De-duplicate — Merge or drop inferred rows that repeat an explicit [ADR] decision (see Merge Related Decisions). Pass: at most one row per distinct decision.
  3. Schema validity — Serialized JSON matches Output Format and Field Definitions. Pass: parse succeeds; every decisions[] item has non-empty title, problem, chosen_option; confidence ∈ {high,medium,low}; alternatives_discussed is an array (use [] if none); other optional fields per table.
  4. Low-confidence audit — For any confidence: "low", source_context states what was missing, weak, or contradictory. Pass: a reader can see why the rating is not higher.

Pattern Examples

High Confidence
"We decided to use Redis for caching because of its sub-millisecond latency
and native TTL support. Memcached was considered but lacks persistence."

Extracts:

  • Title: Use Redis for caching
  • Problem: Need fast caching with TTL
  • Chosen: Redis
  • Alternatives: Memcached
  • Drivers: sub-millisecond latency, native TTL, persistence
  • Confidence: high
Medium Confidence
"Let's go with TypeScript for the frontend since we're already using it
in the backend."

Extracts:

  • Title: Use TypeScript for frontend
  • Problem: Language choice for frontend
  • Chosen: TypeScript
  • Alternatives: (none stated)
  • Drivers: consistency with backend
  • Confidence: medium
Low Confidence
"The API seems to be working well with REST endpoints."

Extracts:

  • Title: REST API architecture
  • Problem: API design approach
  • Chosen: REST
  • Alternatives: (none stated)
  • Drivers: (none stated)
  • Confidence: low

Best Practices

Context Capture

Always capture sufficient context for the ADR writer:

  • What was the discussion about?
  • Who was involved (if known)?
  • What prompted the decision?
Merge Related Decisions

If multiple statements relate to the same decision, consolidate them:

  • Combine alternatives from different mentions
  • Aggregate drivers
  • Use highest confidence level
Flag Ambiguity

When decisions are unclear or contradictory:

  • Note the ambiguity in source_context
  • Set confidence to low
  • Include all interpretations if multiple exist

When to Use This Skill

  • Analyzing session transcripts for ADR generation
  • Reviewing conversation history for documentation
  • Extracting decisions from design discussions
  • Preparing input for ADR writing tools

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