Memory Notes

basicmachines-co/basic-memory/skills/memory-notes

作者 basicmachines-cob941460b4d99480fa2eb1a230a62d2847927ea05無授權條款4.1K 個星標收錄於 2026年10月9日更新於 2026年10月9日儲存庫今天更新

How to write well-structured Basic Memory notes: frontmatter, observations with semantic categories, relations with wiki-links, and best practices for building a rich knowledge graph. Use when creating or improving notes.

AI 產生的概覽

指導如何撰寫結構化的 Basic Memory 筆記,包含 frontmatter、觀察項、關係與 memory URL。

功能
這個技能說明如何撰寫 Basic Memory 筆記:包含 title、tags、type 與 permalink 的 YAML frontmatter、正文散文、以 [category] content 形式書寫的分類觀察項,以及使用 wiki 連結的具型別關係。它也介紹 memory:// URL 模式、建立筆記前先搜尋,以及透過 edit_note、write_note 與 move_note 進行細部編輯。產出的是格式正確的 markdown 筆記,可被 Basic Memory 解析成可搜尋的知識圖譜。
適用情境
適用於建立新的 Basic Memory 筆記或改善現有筆記,使其能正確解析進知識圖譜。也適用於新增觀察項、關係或 memory URL,或判斷應該更新既有筆記而不是建立重複筆記時。
執行需求
需要代理可用的 Basic Memory 工具及其筆記工具(write_note、edit_note、move_note、search_notes、read_note、build_context)。這個技能不附帶指令碼,除存取 Basic Memory 專案外不需要其他憑證。

Memory Notes

Write well-structured notes that Basic Memory can parse into a searchable knowledge graph. Every note is a markdown file with three key sections: frontmatter, observations, and relations.

Note Anatomy

markdown
---title: API Design Decisionstags: [api, architecture, decisions]---
# API Design Decisions
The API team evaluated multiple approaches for the public API during Q1. Afterprototyping both REST and GraphQL, the team chose REST due to broader ecosystemsupport and simpler caching semantics. This note captures the key decisions andtheir rationale, along with open questions still to resolve.
## Observations- [decision] Use REST over GraphQL for simplicity #api- [requirement] Must support versioning from day one- [risk] Rate limiting needed for public endpoints
## Relations- implements [[API Specification]]- depends_on [[Authentication System]]- relates_to [[Performance Requirements]]

Frontmatter

Every note starts with YAML frontmatter:

yaml
---title: Note Title          # required — becomes the entity name in the knowledge graphtags: [tag1, tag2]         # optional — for organization and filteringtype: note                 # optional — defaults to "note", use custom types with schemaspermalink: custom-path     # optional — auto-generated from title if omitted---
  • The title must match the # Heading in the body
  • Tags are searchable and help with discovery
  • Custom type values (Task, Meeting, Person, etc.) work with the schema system. See the memory-schema skill for defining schemas, validating notes against them, and detecting drift.
  • The permalink is auto-generated from the title and directory. For example, title "API Design Decisions" in directory "specs" produces permalink specs/api-design-decisions and memory URL memory://specs/api-design-decisions. If no directory is specified, the permalink is just the kebab-cased title. By default permalinks stay stable across file moves (unless the project enables update_permalinks_on_move). You rarely need to set one manually.

Note: When using write_note, you don't write frontmatter yourself. The title, tags, note_type, and metadata are separate parameters — Basic Memory generates the frontmatter automatically. Your content parameter is just the markdown body starting with # Heading.

Body / Context

Free-form markdown between the heading and the Observations section. This is the heart of the note — write generously here:

  • Background, motivation, and history
  • Detailed explanation of what happened and why it matters
  • Analysis, reasoning, and trade-offs considered
  • Context that someone (or an AI) needs to understand this note later

Write complete, substantive prose. Basic Memory's search retrieves relevant chunks from note bodies, so longer, richer context makes notes more discoverable and more useful when found. Don't reduce everything to bullet points — tell the story.

Observations

Observations are categorized facts — the atomic units of knowledge. Each one becomes a searchable entity in the knowledge graph.

Syntax

- [category] Content of the observation #optional-tag
  • Square brackets define the semantic category
  • Content is the fact, decision, insight, or note
  • Hash tags (optional) add extra metadata for filtering

Categories Are Arbitrary

The category in brackets is free-form — use whatever label makes sense for the observation. There is no fixed list. The only rule is the [category] content syntax. Consistency within a project helps searchability, but invent categories freely.

A few examples to illustrate the range:

- [decision] Use PostgreSQL for primary data store- [risk] Third-party API has no SLA guarantee- [technique] Exponential backoff for retry logic #resilience- [question] Should we support multi-tenancy at the DB level?- [preference] Use Bun over Node for new projects- [lesson] Always validate webhook signatures server-side- [status] active- [flavor] Ethiopian beans work best with lighter roasts

Observation Tips

  • One fact per observation. Don't pack multiple ideas into one line.
  • Be specific. [decision] Use JWT is less useful than [decision] Use JWT with 15-minute expiry for API auth.
  • Use tags for cross-cutting concerns. [risk] Rate limiting needed #api #security makes this findable under both topics.
  • Categories are queryable. search_notes(entity_types=["observation"], categories=["decision"]) returns every decision observation across your knowledge base.

Relations

Relations create edges in the knowledge graph, linking notes to each other. They're how you build structure beyond individual notes.

Syntax

- relation_type [[Target Note Title]]
  • relation_type is a descriptive verb or phrase (snake_case by convention)
  • Double brackets [[...]] identify the target note by title or permalink
  • Relations are directional: this note → target note

Relation Types

TypePurposeExample
implementsOne thing implements another- implements [[Auth Spec]]
requiresDependencies- requires [[Database Setup]]
relates_toGeneral connection- relates_to [[Performance Notes]]
part_ofHierarchy/composition- part_of [[Backend Architecture]]
extendsEnhancement or elaboration- extends [[Base Config]]
pairs_withThings that work together- pairs_with [[Frontend Client]]
inspired_bySource material- inspired_by [[CRDT Research Paper]]
replacesSupersedes another note- replaces [[Old Auth Design]]
depends_onRuntime/build dependency- depends_on [[MCP SDK]]
contrasts_withAlternative approaches- contrasts_with [[GraphQL Approach]]

Inline Relations

Wiki-links anywhere in the note body — not just the Relations section — also create graph edges:

markdown
We evaluated [[GraphQL Approach]] but decided against it becausethe team has more experience with REST. See [[API Specification]]for the full contract.

These create references relations automatically. Use the Relations section for explicit, typed relationships; use inline links for natural prose references.

Relation Tips

  • Link liberally. Relations are what turn isolated notes into a knowledge graph. When in doubt, add the link.
  • Create target notes if they don't exist yet. [[Future Topic]] is valid — BM will resolve it when that note is created.
  • Use build_context to traverse. build_context(url="memory://note-title") follows relations to gather connected knowledge.
  • Custom relation types are fine. taught_by, blocks, tested_in — use whatever is descriptive.

Memory URLs

Every note is addressable via a memory:// URL, built from its permalink. These URLs are how you navigate the knowledge graph programmatically.

URL Patterns

memory://api-design-decisions          # by permalink (title → kebab-case)memory://docs/authentication           # by file pathmemory://docs/authentication.md        # with extension (also works)memory://auth*                         # wildcard prefixmemory://docs/*                        # wildcard suffixmemory://project/*/requirements        # path wildcards

Project-Scoped URLs

In multi-project setups, prefix with the project name:

memory://main/specs/api-design         # "main" project, "specs/api-design" pathmemory://research/papers/crdt          # "research" project

The first path segment is matched against known project names. If it matches, it's used as the project scope. Otherwise the URL resolves in the default project.

Using Memory URLs

Memory URLs work with build_context to assemble related knowledge by traversing relations:

python
# Get a note and its connected contextbuild_context(url="memory://api-design-decisions")
# Wildcard — gather all docsbuild_context(url="memory://docs/*")
# Direct read by permalinkread_note(identifier="memory://api-design-decisions")

Before Creating a Note

Always search Basic Memory before creating a new note. Duplicates fragment your knowledge graph — updating an existing note is almost always better than creating a second one.

Search with Multiple Variations

A single search often misses. Try the full name, abbreviations, acronyms, and keywords:

python
# Searching for an entity that might already existsearch_notes(query="Kubernetes Migration")search_notes(query="k8s migration")search_notes(query="container migration")

For people, try full name and last name. For organizations, try the full name and common abbreviations.

Decision Tree

  • Entity exists → Update it with edit_note (append observations, add relations, find-and-replace outdated info)
  • Entity doesn't exist → Create it with write_note
  • Unsure if it's the same entity → Read the existing note first, then decide

Granular Updates with edit_note

When a note already exists, make targeted edits instead of rewriting the whole file:

python
# Add a new observation under the existing Observations headingedit_note(  identifier="API Design Decisions",  operation="insert_after_section",  section="Observations",  content="- [decision] Switched to OpenAPI 3.1 for spec generation #api")
# Fix outdated informationedit_note(  identifier="API Design Decisions",  operation="find_replace",  find_text="- [status] draft",  content="- [status] approved")
# Add a new relationedit_note(  identifier="API Design Decisions",  operation="insert_after_section",  section="Relations",  content="- depends_on [[Rate Limiter]]")

This preserves existing content and keeps the edit history clean.

Writing Notes with Tools

Creating a Note

python
write_note(  title="API Design Decisions",  directory="architecture",  tags=["api", "architecture"],  content="""# API Design Decisions
The API team evaluated REST and GraphQL during Q1 planning. After prototypingboth approaches, we chose REST for the public API — broader ecosystem support,simpler caching with HTTP semantics, and a lower learning curve for externalconsumers. GraphQL remains an option for internal services where queryflexibility matters more.
## Observations- [decision] Use REST for public API #api- [requirement] Support API versioning from v1
## Relations- implements [[API Specification]]- relates_to [[Backend Architecture]]""")

Basic Memory auto-generates frontmatter (including the permalink and memory URL) from the parameters. This note would get permalink architecture/api-design-decisions and be addressable at memory://architecture/api-design-decisions.

Editing an Existing Note

Use edit_note to update a note in place — six operations: append, prepend, find_replace, replace_section, insert_before_section, insert_after_section.

python
# insert_after_section / insert_before_section — add lines at an existing headingedit_note(  identifier="API Design Decisions",  operation="insert_after_section",  section="Observations",  content="- [decision] Use OpenAPI 3.1 for spec generation #api")
# append / prepend — add to the end of the note or the start of the body# (use for time-ordered logs; neither one targets a section)edit_note(  identifier="API Design Decisions",  operation="prepend",  content="> Updated 2026-05-28: auth approach finalized.\n")
# replace_section — rewrite a named section (use for living content that stays current)edit_note(  identifier="API Design Decisions",  operation="replace_section",  section="Summary",  content="Concise, current summary of the decision and its rationale.")
# find_replace — swap specific textedit_note(  identifier="API Design Decisions",  operation="find_replace",  find_text="OpenAPI 3.0",  content="OpenAPI 3.1")

When an edit is destructive (replace_section, find_replace), it's good practice to read the note first and confirm the change before applying it.

Moving a Note

Use move_note to reorganize notes into different directories:

python
move_note(  identifier="API Design Decisions",  destination_path="archive/api-design-decisions.md")

By default the permalink stays the same after a move, so links keep resolving. Projects with update_permalinks_on_move enabled rewrite it from the new path.

Best Practices

  1. Start with context. Before listing observations, explain why this note exists. Future-you (or your AI collaborator) will thank you.

  2. Favor completeness. Write rich, substantive notes. Basic Memory's search pulls relevant chunks from note bodies, so longer notes with more context are more discoverable, not less. Use prose in the body to tell the full story — the background, the reasoning, the nuance. Then distill key facts into [category] content observations for structured queries. Both matter: prose gives meaning, observations give precision.

  3. Build incrementally. Add to existing notes rather than creating duplicates. Use edit_note to append new observations or relations as you learn more.

  4. Use consistent titles. Note titles are identifiers in the knowledge graph. API Design Decisions and Api Design decisions are different entities. Pick a convention and stick with it.

  5. Link related concepts. The value of a knowledge graph compounds with connections. A note with zero relations is an island — useful, but not as powerful as a connected one.

  6. Let the graph grow naturally. Don't try to design a perfect taxonomy upfront. Write notes as you work, add relations as connections emerge, and periodically use the memory-reflect or memory-defrag skills to consolidate.

來源與署名

來源:basicmachines-co/basic-memory位於skills/memory-notes提交b941460

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