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aps-filesystem-agent

Use this skill whenever an APS (production scheduling) agent needs to interact with a local filesystem-based knowledge base. Triggers include: reading or searching APS rules, loading client memory or shop floor configurations, proposing new rules to the knowledge base, updating or deprecating existing knowledge, querying decision history, rebuilding the vector index, or any task involving the aps_knowledge_base/ directory structure. Also use when the agent needs to understand what knowledge is available before making scheduling decisions, or when it wants to persist something learned in a conversation. Always consult this skill before reading from or writing to any part of the APS knowledge base filesystem.

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LeoYeAI/openclaw-master-skills
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20 de julio de 2026 a las 02:05
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SKILL.md
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name
aps-filesystem-agent
description
Use this skill whenever an APS (production scheduling) agent needs to interact with a local filesystem-based knowledge base. Triggers include: reading or searching APS rules, loading client memory or shop floor configurations, proposing new rules to the knowledge base, updating or deprecating existing knowledge, querying decision history, rebuilding the vector index, or any task involving the aps_knowledge_base/ directory structure. Also use when the agent needs to understand what knowledge is available before making scheduling decisions, or when it wants to persist something learned in a conversation. Always consult this skill before reading from or writing to any part of the APS knowledge base filesystem.
# APS Filesystem Agent Skill This skill teaches an APS scheduling agent how to navigate, query, and maintain a local filesystem-based knowledge base. The filesystem is the single source of truth for all domain rules, client memory, and problem schemas. A vector index sits on top for semantic retrieval, and Git tracks every change for auditability. ## Knowledge base layout ``` aps_knowledge_base/ ├── .git/ ← version history, never touch manually ├── domain_rules/ ← APS rules extracted from conversations │ ├── _index.json ← master rule registry (always update this) │ ├── machine_rules/ │ ├── operator_rules/ │ └── material_rules/ ├── client_memory/ ← persistent understanding of this customer │ ├── _profile.json ← shop floor + planning process + preferences │ ├── shop_floor/ │ ├── planning_process/ │ └── decision_history/ ← one file per scheduling session ├── problem_schemas/ ← modeling templates by problem type ├── solver_configs/ ← solver parameters and routing thresholds ├── pending_review/ ← proposed knowledge awaiting human approval └── logs/ ├── decisions/ ← audit trail of scheduling decisions └── knowledge_changes/ ← audit trail of knowledge writes ``` Before doing anything, confirm the knowledge base root exists: ```bash ls aps_knowledge_base/ 2>/dev/null || echo "Knowledge base not initialized" ``` If it doesn't exist yet, initialize it (see "Initializing a new knowledge base" below). --- ## Reading knowledge ### Load client profile Always load the client profile first — it tells you the shop floor topology, planning process, and output preferences that frame every other decision. ```python import json, pathlib kb = pathlib.Path("aps_knowledge_base") profile = json.loads((kb / "client_memory/_profile.json").read_text()) shop = profile["shop_floor"] # type, stages, machines_per_stage, etc. prefs = profile["preferences"] # primary_objective, output_format, etc. ``` ### Semantic retrieval of rules (preferred method) Use semantic search when you know *what you need* but not *which file has it*. This requires the vector index to be built (see "Maintaining the vector index"). ```python import chromadb client = chromadb.PersistentClient(path="aps_knowledge_base/.chromadb") collection = client.get_collection("domain_rules") results = collection.query( query_texts=["operator HSE certification machine maintenance"], n_results=5, where={"status": "active"} # only retrieve active rules ) # results["ids"], results["documents"], results["metadatas"] for doc, meta in zip(results["documents"][0], results["metadatas"][0]): print(f"[{meta['rule_id']}] {meta['name']}: {doc}") ``` ### Direct rule lookup by ID When you already know the rule ID (e.g., from a decision log): ```python rule_path = kb / f"domain_rules/{category}/{rule_id}.json" rule = json.loads(rule_path.read_text()) ``` ### Load all active rules for a scheduling session Inject the Top-K most relevant rules into the scheduling context: ```python def get_relevant_rules(query: str, top_k: int = 5) -> list[dict]: collection = client.get_collection("domain_rules") results = collection.query( query_texts=[query], n_results=top_k, where={"status": "active"} ) rules = [] for rule_id, meta in zip(results["ids"][0], results["metadatas"][0]): path = kb / meta["file_path"] rules.append(json.loads(path.read_text())) return rules ``` ### Load a problem schema template ```python problem_type = "flow_shop" # or job_shop, rcpsp, re_entrant schema = json.loads((kb / f"problem_schemas/{problem_type}.json").read_text()) ``` ### Read session decision history ```python history_dir = kb / "client_memory/decision_history" sessions = sorted(history_dir.glob("session_*.json"), reverse=True) last_session = json.loads(sessions[0].read_text()) if sessions else {} ``` --- ## Proposing new knowledge (write path) **The agent NEVER writes directly to the main knowledge directories.** All new knowledge goes to `pending_review/` first, then a human confirms. ### Propose a new APS rule Call this whenever you extract a new constraint or rule from a conversation: ```python import json, pathlib, datetime def propose_rule(rule_content: dict, source_quote: str, session_id: str): kb = pathlib.Path("aps_knowledge_base") pending = kb / "pending_review" pending.mkdir(exist_ok=True) ts = datetime.datetime.utcnow().strftime("%Y%m%d_%H%M%S") proposal = { **rule_content, "status": "proposed", "metadata": { **rule_content.get("metadata", {}), "created_at": datetime.datetime.utcnow().isoformat() + "Z", "created_by": "ai_agent", "confirmed_by": None, "source_session": session_id, "source_quote": source_quote, "use_count": 0, "confidence": 0.9 } } out_path = pending / f"proposed_{rule_content['id']}_{ts}.json" out_path.write_text(json.dumps(proposal, ensure_ascii=False, indent=2)) # Return the summary to show the user for confirmation return { "proposal_file": str(out_path), "rule_id": rule_content["id"], "name": rule_content["name"], "description": rule_content["description"] } ``` After calling this, **always present the proposal to the user** with a confirmation prompt before moving on. Format it like this: ``` 建议将以下内容加入知识库: 规则ID: {rule_id} 名称: {name} 描述: {description} 来源: "{source_quote}" [确认入库] [修改后入库] [忽略本次] ``` Wait for explicit confirmation before proceeding to `confirm_proposal()`. ### Propose an update to client memory ```python def propose_memory_update(memory_type: str, updates: dict, reason: str): """ memory_type: 'shop_floor' | 'planning_process' | 'preferences' """ pending = kb / "pending_review" ts = datetime.datetime.utcnow().strftime("%Y%m%d_%H%M%S") proposal = { "type": "client_memory_update", "memory_type": memory_type, "updates": updates, "reason": reason, "proposed_at": datetime.datetime.utcnow().isoformat() + "Z" } out_path = pending / f"proposed_memory_{memory_type}_{ts}.json" out_path.write_text(json.dumps(proposal, ensure_ascii=False, indent=2)) return str(out_path) ``` --- ## Confirming proposals (after human approval) Only call these functions **after** the user has explicitly confirmed in chat. ```python def confirm_proposal(proposal_file: str, confirmed_by: str): """Move a proposal from pending_review into the live knowledge base.""" kb = pathlib.Path("aps_knowledge_base") proposal_path = pathlib.Path(proposal_file) proposal = json.loads(proposal_path.read_text()) if proposal.get("type") == "client_memory_update": _apply_memory_update(proposal, confirmed_by) else: _apply_rule(proposal, confirmed_by) # Remove from pending proposal_path.unlink() # Update vector index and commit _update_vector_index(proposal) _git_commit(proposal, confirmed_by) def _apply_rule(proposal: dict, confirmed_by: str): rule_type = proposal.get("type", "general") category_map = { "machine_constraint": "machine_rules", "operator_constraint": "operator_rules", "material_constraint": "material_rules", } subdir = category_map.get(rule_type, "machine_rules") dest = kb / f"domain_rules/{subdir}/{proposal['id']}.json" dest.parent.mkdir(parents=True, exist_ok=True) proposal["status"] = "active" proposal["metadata"]["confirmed_by"] = confirmed_by proposal["metadata"]["confirmed_at"] = ( datetime.datetime.utcnow().isoformat() + "Z" ) dest.write_text(json.dumps(proposal, ensure_ascii=False, indent=2)) # Refresh the index file _refresh_rule_index() def _apply_memory_update(proposal: dict, confirmed_by: str): profile_path = kb / "client_memory/_profile.json" profile = json.loads(profile_path.read_text()) memory_type = proposal["memory_type"] if memory_type not in profile: profile[memory_type] = {} profile[memory_type].update(proposal["updates"]) profile["last_updated"] = datetime.datetime.utcnow().isoformat() + "Z" profile_path.write_text(json.dumps(profile, ensure_ascii=False, indent=2)) ``` --- ## Maintaining the vector index The vector index must stay in sync with the filesystem. Rebuild it whenever rules are added, updated, or deprecated. ### Incremental update (after a single rule change) ```python def _update_vector_index(rule: dict): import chromadb client = chromadb.PersistentClient(path="aps_knowledge_base/.chromadb") try: collection = client.get_or_create_collection("domain_rules") except Exception: collection = client.create_collection("domain_rules") text = f"{rule['name']} {rule['description']} {' '.join(rule.get('metadata', {}).get('tags', []))}" meta = { "rule_id": rule["id"], "name": rule["name"], "status": rule.get("status", "active"), "constraint_type": rule.get("constraint_type", "soft"), "file_path": f"domain_rules/{_infer_subdir(rule)}/{rule['id']}.json" } collection.upsert(ids=[rule["id"]], documents=[text], metadatas=[meta]) ``` ### Full rebuild (use after bulk changes or first setup) ```bash python aps_knowledge_base/scripts/rebuild_index.py ``` See `references/scripts.md` for the full rebuild script content. --- ## Git version management Every confirmed knowledge change gets a Git commit automatically. ```python import subprocess def _git_commit(item: dict, confirmed_by: str): kb_path = "aps_knowledge_base" item_id = item.get("id", item.get("memory_type", "unknown")) item_type = item.get("type", "update") action = "add" if item.get("status") == "active" else "update" msg = f"{action}: {item_id} {item_type} ({confirmed_by})" subprocess.run(["git", "-C", kb_path, "add", "-A"], check=True) subprocess.run(["git", "-C", kb_path, "commit", "-m", msg], check=True) ``` Commit message conventions: ``` add: rule_003 operator_constraint (big_boss) update: client_memory shop_floor topology (plant_manager) deprecate: rule_002 machine_a3 calibration - operator left (admin) restore: rule_002 machine_a3 calibration (admin) ``` To view history for a specific rule: ```bash git -C aps_knowledge_base log --oneline -- domain_rules/operator_rules/rule_003.json ``` --- ## Updating knowledge status ### Deprecate a rule (soft disable — keeps the record) ```python def deprecate_rule(rule_id: str, reason: str, deprecated_by: str): # find the file for f in (kb / "domain_rules").rglob(f"{rule_id}.json"): rule = json.loads(f.read_text()) rule["status"] = "deprecated"
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