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build-working-memory建立工作记忆

Agent Skill

build-working-memory 用于查找、检索和筛选相关信息,适合在 OpenClaw 中需要根据关键词、任务场景或来源线索快速定位候选结果时使用。可结合来源仓库、安装命令和原始 README 继续核验具体用法。安装前建议确认权限范围、维护状态,以及是否会触发联网、命令执行或文件读写。

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安装说明

本站只整理中文说明和来源信息,不托管安装包,也不代用户安装。

GitHub

来源数

2

许可证

MIT-0

最后核验

2026-05-01

来源状态

来源可访问

安装方式

通过对话安装

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请帮我安装这个 Agent Skill:build-working-memory(建立工作记忆)
来源仓库:https://github.com/jiyuan/build-working-memory
安装命令:
openclaw skills install build-working-memory
安装前请先检查当前环境是否支持对应 CLI,并向我确认将要执行的命令、安装目录、联网范围和文件读写权限;确认后再执行。

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openclaw skills install build-working-memory

简介

为 AI 代理建立基于文件的持久记忆系统。

  • 支持会话连续性管理和状态迁移。适用宿主包括 OpenClaw,接入前应确认版本、权限和运行环境要求。
  • 适用于长期任务和多轮对话场景。
  • 文件存储路径需确保可写权限。build-working-memory 属于研究检索类 Skill,可作为该场景下的辅助能力补充。
  • 建议定期归档清理过期记忆数据。

SKILL.md

name
build-working-memory
description
Set up, migrate, or manage a file-based working memory system for an AI agent project. Use for agent memory, working memory, session continuity, persistent context, long-term memory, legacy migration, or requests to help an agent remember across sessions. Covers scaffolding fresh projects, migrating legacy workspaces (AGENT.md + MEMORY.md + memory/YYYY-MM-DD.md), auto-patching AGENT.md with memory-management instructions, layered retrieval, structured event indexing, and deterministic temporal support. Triggers on any mention of 'agent memory', 'migrate memory', 'AGENT.md', 'working memory', 'session memory', or 'make my agent remember'. Preserve compatibility with OpenClaw by keeping daily logs flat under memory/YYYY-MM-DD.md. Do not use for vector databases or embedding-based retrieval.

Working Memory System for AI Agents

A file-based memory architecture that gives AI agents continuous identity across sessions. Instead of flat context dumps, the system uses layered retrieval — the agent loads only what it needs, when it needs it, within a token budget.

Architecture overview

project-root/
├── MEMORY.md                  # Curated long-term memory (active / fading / archived tiers)
├── memory/
│   ├── YYYY-MM-DD.md          # Raw session logs (episodic, journal-style) — canonical location
│   ├── resumption.md          # First-person handoff note for next session
│   ├── threads.md             # Ongoing topics with state and momentum
│   ├── state.json             # Machine-readable ephemeral state (fast orientation)
│   ├── index.md               # Daily log index for retrieval at scale
│   ├── archive.md             # Demoted long-term memories
│   ├── events.json            # Structured date-aware event ledger
│   └── daily/                 # Compatibility mirror only — never the source of truth
├── loader.py                  # Four-phase retrieval (orient → anchor → context → deep recall)
└── writer.py                  # End-of-session persistence

Compatibility rule: daily logs are always canonical at memory/YYYY-MM-DD.md. The memory/daily/ directory exists only as a mirror for tools that expect it. Never write new canonical logs there.

Each file has a distinct role. Never collapse them — the separation is the system's core strength.

FilePurposeWhen loaded
state.jsonFast machine-readable orientation (timestamps, flags, counters)Always first, every session
resumption.mdFirst-person handoff note — subjective continuity bridgeAlways second, every session
MEMORY.mdCurated long-term facts, patterns, preferencesPhase 3, when time gap ≥ 2h
threads.mdActive topics with position, decisions, open questionsPhase 3, matched to user's message
events.jsonStructured events with dates for temporal recallPhase 3/4, when question is event- or date-sensitive
YYYY-MM-DD.mdRaw session logs — episodic, append-onlyPhase 4, on-demand retrieval
index.mdLookup table mapping dates to topics/threadsPhase 4, when daily logs exceed ~30
archive.mdDemoted memories — searchable, recoverablePhase 4, when archived topics resurface

Migrating from a legacy workspace

If the workspace already has AGENT.md, MEMORY.md, and daily logs under memory/, this is a legacy system. Run the migration script instead of scaffolding from scratch:

# Preview what will change (no files written)
python <skill-path>/scripts/migrate.py <project-root> --dry-run

# Run the migration
python <skill-path>/scripts/migrate.py <project-root>

The scaffold script auto-detects legacy workspaces and suggests migration. To force a fresh scaffold anyway, use --force-scaffold.

What migration does

Detects the existing system: AGENT.md, MEMORY.md, daily logs under memory/, and which layered files are missing.

Creates only the missing files: resumption.md, threads.md, state.json, index.md, archive.md, events.json. Never overwrites existing files.

Bootstraps state.json from existing daily logs — session count, last session timestamp, and flags are inferred from what's already on disk. resumption.md is seeded from the most recent daily log's summary.

Restructures MEMORY.md if it lacks ## Active / ## Fading tiers — wraps existing content under ## Active and adds the missing sections. A .bak backup is created first.

Patches AGENT.md by appending a memory-management instructions section that teaches the agent the layered retrieval and persistence workflow. The existing content is fully preserved, and a .bak backup is created. The patch is idempotent — running migrate twice won't double-inject. Use --skip-agent-patch to skip this step.

Rebuilds the daily log index from all existing logs.

After migration

  1. Review MEMORY.md — curate the entries that were wrapped under ## Active
  2. Review AGENT.md — verify the appended memory-management section fits your agent's style
  3. Create threads in memory/threads.md for any ongoing topics visible in recent daily logs
  4. Test with the loader: python <skill-path>/scripts/loader.py <project-root> "test message"

Read references/MIGRATION.md for detailed documentation of every migration step, the AGENT.md patch content, and edge cases.

Step 1: Scaffold the memory files (fresh projects)

Run the scaffolding script to create the full directory structure with starter templates:

python <skill-path>/scripts/scaffold.py <project-root>

Options: --agent-name "MyBot" and --user-name "Alice" customize the MEMORY.md templates. Safe to run on existing projects — never overwrites existing files.

Step 2: Understand the retrieval workflow

The loader uses four phases with increasing cost. The goal is to stay in Phases 1–3 for 80% of sessions.

Phase 1: Orient       →  state.json                       ~200 tokens, always
Phase 2: Anchor       →  resumption.md                    ~300 tokens, always
Phase 3: Context      →  MEMORY.md + threads.md + events  ~1500-2200 tokens, conditional
Phase 4: Deep Recall  →  daily logs + archive + events     variable, on-demand

Phase 1 reads state.json and picks a loading strategy based on the time gap since last session (light / standard / full_reload / deep_reload).

Phase 2 reads resumption.md as a first-person narrative — a continuity bridge, not a data source.

Phase 3 branches based on the user's opening message:

  • Known thread → load that thread + relevant MEMORY.md section
  • New/ambiguous topic → load full MEMORY.md + all thread headers
  • Maintenance due → load MEMORY.md + recent daily summaries for curation

If the user's message is event- or date-sensitive, events.json is also loaded and ranked during Phase 3.

Phase 4 triggers mid-session for targeted lookups, index searches, archive recovery, or structured event retrieval.

Read references/RETRIEVAL.md for the full specification including token budgets, mid-session triggers, temporal support, and the loading decision flowchart.

Step 3: Integrate into the agent loop

Session start

from loader import MemoryLoader

loader = MemoryLoader("/path/to/project-root")
context = loader.load_session_context(user_message="the user's first message")

# Inject into system prompt
system_prompt = f"""
<working_memory>
{context.text}
</working_memory>

{your_existing_system_prompt}
"""

The loader returns a SessionContext with .text (the assembled memory block), .total_tokens (approximate cost), and .metadata (loading decisions for debugging).

During session

from writer import MemoryWriter

writer = MemoryWriter("/path/to/project-root")

# Capture observations as they happen
writer.note_decision("Chose X over Y", "reasoning here")
writer.note_open_question("Should we revisit Z?")
writer.note_pattern("User tends to ask for examples after abstract explanations")
writer.note_thread_touched("thread-project-alpha")

# Capture structured events for temporal recall
writer.note_event(
    event_type="purchase",
    text="I bought white Adidas sneakers on 3/15.",
    action="purchase",
    object_hint="white adidas sneakers",
    normalized_date="2023-03-15",
)

Session end

writer.end_session(
    session_summary="High-level summary of what happened",
    resumption_note="First-person handoff to next session self...",
    thread_updates={
        "thread-project-alpha": {
            "current_position": "Finished the API design. Moving to testing.",
            "new_open_questions": ["How to handle auth tokens?"],
            "closed_questions": ["Which framework to use?"],
        }
    },
    mood="focused, productive",
)

This persists to all outputs: daily log, threads, state.json, resumption.md, events.json, and maintenance flags.

Mid-session event retrieval

# For date-sensitive questions during a session
event_results = loader.phase_4_event_lookup("white adidas sneakers")
if event_results:
    # Inject event_results.text as additional context
    pass

Step 4: Customize the schemas

Read references/SCHEMAS.md for full specifications of every file with annotated examples.

Key customization points

MEMORY.md — rename the section headings under Active for your domain. Default: "About [User]", "About This Project", "Working Style". A code agent might use "Architecture Decisions", "Tech Debt", "Team Conventions".

threads.md — each thread must carry enough state in "Current Position" to resume without re-reading daily logs. If it doesn't, add more.

resumption.md — written in first person, addressed to the agent's next session self. Includes predictions and tonal guidance, not just a recap.

events.json — capture user-stated dated events, purchases, issues, meetings, milestones. Skip assistant filler and vague sentiment. See references/TEMPORAL.md for the full event schema, normalization rules, and temporal query patterns.

Memory curation workflow

Every ~5 sessions (or when memory_review_due is flagged), curate MEMORY.md: promote confirmed patterns, demote stale entries to Fading, archive neglected entries, merge duplicates. Update the Maintenance Log.

Cross-referencing

Use lightweight bidirectional refs between files:

[ref: memory/2026-03-20.md#decisions]
[ref: thread-wm-design]
[ref: MEMORY.md > About This Project]

Troubleshooting

Memory loading uses too many tokens: Check context.metadata — tighten Phase 3 branch, reduce daily log summaries, lower BudgetConfig caps.

Agent re-litigates settled decisions: Ensure threads carry decision summaries with cross-references to daily logs.

Resumption feels generic: Write a handoff, not a summary — include predictions, tonal guidance, and a "pick up from here" anchor.

Event queries return too many results: Tighten object_hint values when recording events. Use specific entity names, not generic descriptions.

Temporal questions answered incorrectly: Check whether events have normalized_date set. Relative-only dates degrade ordering accuracy. See references/TEMPORAL.md for normalization rules.

Notes

  • Preserve compatibility with OpenClaw by keeping daily logs flat under memory/.
  • Do not reintroduce memory/daily/ as canonical storage unless the user explicitly requests it.
  • resumption.md, threads.md, state.json, and events.json are additions, not replacements for the flat daily-log pattern.
  • Prefer soft structured evidence and model judgment over brittle hard-coded answer substitution for temporal queries.

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安装后应在对应宿主中按原始 README 的触发条件使用;具体调用方式请以来源页面和 README 为准。

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