MCP HubMCP Hub
스킬 목록으로 돌아가기

learn

pjt222
업데이트됨 2 days ago
5 조회
17
2
17
GitHub에서 보기
메타aidesign

정보

`learn` 스킬은 Claude가 체계적인 추론 과정(조사, 가설 수립, 탐색, 검증)을 통해 생소한 분야의 지식을 체계적으로 습득할 수 있게 합니다. 이는 익숙하지 않은 코드베이스 탐색, 단순 기억 이상의 주제 조사, 상충되는 정보를 일관된 모델로 해결하는 상황에 적합합니다. 주요 기능으로는 피드백 루프를 통한 의도적 모델 구축과 탐색을 위한 Read, Grep, WebSearch 같은 도구 활용이 포함됩니다.

빠른 설치

Claude Code

추천
기본
npx skills add pjt222/agent-almanac -a claude-code
플러그인 명령대체
/plugin add https://github.com/pjt222/agent-almanac
Git 클론대체
git clone https://github.com/pjt222/agent-almanac.git ~/.claude/skills/learn

Claude Code에서 이 명령을 복사하여 붙여넣어 스킬을 설치하세요

문서

Learn

Structured knowledge acquisition session — survey unfamiliar, build initial models, test via deliberate exploration, integrate into coherent understanding, consolidate for durable retrieval.

Use When

  • Unfamiliar codebase / framework / domain, no prior ctx
  • User asks topic outside working knowledge, answer needs investigation not recall
  • Conflicting sources / patterns → coherent mental model from scratch
  • After remote-viewing surfaces intuitive leads → systematic validation
  • Prep to teach — must understand deeply enough to explain

In

  • Req: Learning target — topic, codebase area, API, concept, tech
  • Opt: Scope boundary — surface survey vs deep expertise
  • Opt: User's purpose — why this matters (prioritization)
  • Opt: Known starting points — files, docs, concepts familiar

Do

Step 1: Survey — Map Territory

Before understanding anything, map landscape → ID what exists.

Learning Modality Selection:
┌──────────────────┬──────────────────────────┬──────────────────────────┐
│ Territory Type   │ Primary Modality         │ Tool Pattern             │
├──────────────────┼──────────────────────────┼──────────────────────────┤
│ Codebase         │ Structural mapping —     │ Glob for file tree,      │
│                  │ find entry points, core  │ Grep for exports/imports,│
│                  │ modules, boundaries      │ Read for key files       │
├──────────────────┼──────────────────────────┼──────────────────────────┤
│ API / Library    │ Interface mapping —      │ WebFetch for docs,       │
│                  │ find public surface,     │ Read for examples,       │
│                  │ types, configuration     │ Grep for usage patterns  │
├──────────────────┼──────────────────────────┼──────────────────────────┤
│ Domain concept   │ Ontology mapping —       │ WebSearch for overviews,  │
│                  │ find core terms,         │ WebFetch for definitions,│
│                  │ relationships, debates   │ Read for local notes     │
├──────────────────┼──────────────────────────┼──────────────────────────┤
│ User's context   │ Conversational mapping   │ Read conversation,       │
│                  │ — find stated goals,     │ Read MEMORY.md,          │
│                  │ preferences, constraints │ Read CLAUDE.md           │
└──────────────────┴──────────────────────────┴──────────────────────────┘
  1. ID territory type + select primary modality
  2. Broad scan — not reading deeply, ID landmarks (key files, entry points, core concepts)
  3. Note boundaries: in scope, adjacent, out of scope
  4. ID gaps: important-looking but opaque from surface
  5. Rough map: list major components + apparent relationships

→ Skeletal map w/ 5-15 landmarks. Sense of clear surface vs deeper investigation needed. No understanding yet — just map.

If err: Territory too large → narrow scope. Ask: "Min to understand → serve user's purpose?" No clear entry → start from output (what produces?) + trace backward.

Step 2: Hypothesize — Initial Models

From survey → construct hypotheses.

  1. Formulate 2-3 hypotheses about structure / behavior
  2. State clearly: "I believe X because I observed Y"
  3. Per hypothesis → what evidence confirms, what refutes
  4. Rank by confidence: most supported, shakiest
  5. ID highest-value to test first (unlocks most understanding if confirmed)

→ Concrete falsifiable hypotheses — not vague impressions. Each has test. Collectively cover most important aspects.

If err: No hypotheses → survey too shallow → back to Step 1, read 2-3 landmarks in depth. All equally uncertain → simplest (Occam's) + build from there.

Step 3: Explore — Probe + Test

Systematically test each hypothesis via targeted investigation.

  1. Select highest-priority
  2. Design minimal probe: smallest investigation confirming/refuting
  3. Execute (read file, search pattern, test assumption)
  4. Record: confirmed, refuted, modified
  5. If refuted → update hypothesis w/ new evidence
  6. If confirmed → probe deeper: holds at edges or only center?
  7. Next hypothesis, repeat

→ ≥1 hypothesis tested to conclusion. Model taking shape — some confirmed, some revised. Surprises noted as valuable data.

If err: Probes consistently ambiguous → testing wrong things. Step back: "What would an expert consider most important fact?" Probe for that.

Step 4: Integrate — Mental Model

Synthesize findings → coherent model connecting pieces.

  1. Review confirmed hypotheses + revised models
  2. ID central organizing principle: "spine" everything connects to
  3. Map relationships: which components depend on which? What flows where?
  4. ID surprising findings — often deepest insight
  5. Look for patterns repeating across territory
  6. Build model predicting behavior: "Given input X, expect Y because Z"

→ Coherent model explaining structure + predicting behavior. Expressible in 3-5 sentences, specific claims not vague.

If err: Pieces don't integrate → fundamental misunderstanding in earlier hypothesis. ID piece that doesn't fit → re-test. Or territory genuinely incoherent (poorly designed exist) → note as finding rather than forcing.

Step 5: Verify — Challenge Understanding

Test model via predictions + check.

  1. Use model → 3 specific predictions
  2. Test each via investigation (not assuming true)
  3. Per confirmed → confidence increases
  4. Per refuted → ID where model wrong + correct
  5. Edge cases: hold at boundaries or break?
  6. Ask: "What would surprise me?" → check if possible

→ Model survives ≥2 of 3 prediction tests. Failures understood, model corrected. Now has confirmed strengths + known limitations.

If err: Most predictions fail → model fundamental flaw. Valuable info — territory works differently than expected. Return Step 2 w/ new evidence, rebuild. 2nd attempt much faster (wrong models eliminated).

Step 6: Consolidate — Store for Retrieval

Capture learning in form supporting future retrieval + application.

  1. Summarize model in 3-5 sentences
  2. Note key landmarks — 3-5 most important to remember
  3. Record counterintuitive findings (might be forgotten)
  4. ID related topics this connects to
  5. Durable learning (needed across sessions) → update MEMORY.md
  6. Session-specific → note as ctx for current conv
  7. State what remains unknown — honest gaps > false confidence

→ Concise retrievable summary capturing essential understanding. Future references start from summary, not re-learning.

If err: Learning resists summarization → not fully integrated → return Step 4. Learning too obvious to store → what feels obvious now may not in fresh ctx. Store non-obvious.

Check

  • Survey before deep investigation (map before dive)
  • Hypotheses explicit + tested, not assumed
  • ≥1 hypothesis revised based on evidence (= genuine learning)
  • Model makes specific testable predictions
  • Known unknowns ID'd alongside known knowns
  • Consolidated summary concise for future retrieval

Traps

  • Skip survey: Diving into detail before landscape → wastes time on unimportant + misses big picture.
  • Unfalsifiable hypotheses: "This is probably complex" can't be tested. "This module handles auth because it imports crypto" can.
  • Confirmation bias: Seeking only supporting evidence, ignoring contradictions.
  • Premature consolidation: Store model before tested → confidently wrong future predictions.
  • Perfectionism: Learn everything before applying anything. Iterative — use partial, then refine.
  • Learning w/o purpose: Knowledge w/o application → unfocused shallow understanding.

  • learn-guidance — human-guidance variant → coach person thru structured learning
  • teach — knowledge transfer calibrated to learner; builds on model constructed here
  • remote-viewing — intuitive exploration surfaces leads for systematic learning to validate
  • meditate — clear prior ctx noise before new learning territory
  • observe — sustained neutral pattern recognition feeding learning w/ raw data

GitHub 저장소

pjt222/agent-almanac
경로: i18n/caveman-ultra/skills/learn
0
agentsagentskillsai-assisted-developmentclaude-codeskillsteams

연관 스킬

content-collections

메타

이 스킬은 콘텐츠 콜렉션(Content Collections)을 위한 프로덕션 검증된 설정을 제공합니다. 콘텐츠 콜렉션은 Markdown/MDX 파일을 Zod 검증이 포함된 타입 안전한 데이터 콜렉션으로 변환해주는 TypeScript 최우선 도구입니다. 블로그, 문서 사이트 또는 콘텐츠 중심의 Vite + React 애플리케이션을 구축할 때 타입 안전성과 자동 콘텐츠 검증을 보장하기 위해 사용하세요. Vite 플러그인 구성과 MDX 컴파일부터 배포 최적화 및 스키마 검증에 이르기까지 모든 것을 다룹니다.

스킬 보기

polymarket

메타

이 스킬은 개발자들이 Polymarket 예측 시장 플랫폼을 활용한 애플리케이션을 구축할 수 있도록 지원하며, 거래 및 시장 데이터를 위한 API 통합 기능을 포함합니다. 또한 WebSocket을 통한 실시간 데이터 스트리밍을 제공하여 실시간 거래와 시장 활동을 모니터링할 수 있습니다. 이를 통해 거래 전략을 구현하거나 실시간 시장 업데이트를 처리하는 도구를 생성하는 데 활용할 수 있습니다.

스킬 보기

creating-opencode-plugins

메타

이 스킬은 개발자들이 명령어, 파일, LSP 작업 등 25개 이상의 이벤트 유형에 연결되는 OpenCode 플러그인을 만들 수 있도록 돕습니다. JavaScript/TypeScript 모듈을 위한 플러그인 구조, 이벤트 API 명세, 구현 패턴을 제공합니다. OpenCode AI 어시스턴트의 라이프사이클을 사용자 정의 이벤트 기반 로직으로 가로채거나, 모니터링하거나, 확장해야 할 때 사용하세요.

스킬 보기

sglang

메타

SGLang은 RadixAttention 프리픽스 캐싱을 활용하여 JSON, 정규식, 에이전트 워크플로우를 위한 고속 구조화 생성에 특화된 고성능 LLM 서빙 프레임워크입니다. 특히 반복되는 프리픽스가 있는 작업에서 상당히 빠른 추론 속도를 제공하여 복잡한 구조화 출력 및 다중 턴 대화에 이상적입니다. 제약 디코딩이 필요하거나 광범위한 프리픽스 공유가 있는 애플리케이션을 구축할 때는 vLLM과 같은 대안보다 SGLang을 선택하십시오.

스킬 보기