Core Concept
Extracted from:
ref-docs/OctoLLM-Concept_Idea.md
Architectures to Borrow from the Octopus
1. Local-Autonomy "Arms," Central-Integration "Brain"
- Spin up task-specific peripheral controllers (code tools, web searchers, planners, UI drivers, data labelers) with narrow policies and short-term memory.
- A central integrator (LLM) sets intent, allocates subtasks, imposes constraints, and fuses results—only intervening when goals or safety are at stake.
- Mechanism: hierarchical control + explicit contracts (inputs/outputs/invariants). Think: Mixture-of-Experts + Orchestrator rather than a single giant monolith.
2. Reflex Layer Before Cognition
- Pre-LLM reflex filters handle fast, predictable decisions (schema validation, PII/safety checks, rate limiting, cache hits) using small models/finite-state machines.
- The LLM only engages for "novelty." This reduces latency, cost, and attack surface.
3. Decentralized Memory
- Each arm has a local episodic store (vector DB or KV cache) bounded by its domain ontology; the brain has a global semantic map.
- Routing: classifier/gating picks which memories to consult.
- Prevents cross-domain contamination and keeps retrieval precise.
4. Embodied Tool-Use
- Treat tools as sensors/actuators. The arm owns its tools (APIs, shells, browsers), maintains affordances/capabilities metadata, and reports action traces upward.
- The brain reasons over traces, not raw environments—like a commander reading squad reports.
5. Elastic Specialization via MoE + Skill Distillation
- Train small specialists per domain (planning, SQL, regex, code fixes, UI automation); distill their strengths back into a generalist for robustness while keeping specialists online for hard cases.
- Gate by uncertainty/entropy or cost budget.
6. Swarm Deliberation with Quorum
- For critical decisions, run N lightweight "arm" proposals (diverse prompts/seeds/models), aggregate with verifiable voters (majority, Borda, or learned ranker).
- The brain resolves conflicts using explicit rules (risk thresholds, SLAs).
7. Active Inference for Exploration
- Arms maintain simple world models and choose actions that reduce expected uncertainty (information gain) subject to task goals.
- Great for web research agents and code-repair loops.
Concrete System Design (Drop-In Blueprint)
Orchestrator (Brain)
One robust LLM with a Task Contract Schema:
- goal, constraints, budget (tokens/time/$), security policy, deliverables, acceptance tests.
Arms (Specialists)
- Planner: Decomposes tasks → subgoals + acceptance criteria.
- Retriever: Structured + vector search with domain ontologies.
- Tool-Executor: Browser/API/shell; enforces allowlists; captures provenance.
- Coder: Patch proposals + self-tests.
- Judge: Spec compliance, hallucination detection, unit/property checks.
- Safety/PII Guardian: Static rules + tiny classifier; runs before and after LLM calls.
Memories
- Local: Per-arm episodic stores (short retention, domain schema).
- Global: Project knowledge graph (entities, tasks, decisions, citations).
Control
- Reflex gate → Arm(s) → Orchestrator escalate-on-novelty.
- Uncertainty triggers: escalate, fork more arms, or ask for user input (with minimally sufficient questions).
Provenance
Every artifact tagged with tool, prompt hash, data source, time, and tests passed.
Quick-Start Experiments You Can Run This Week
- Reflex gate + cache: Put a rules/regex/PII filter + embedding cache in front of your LLM; measure latency/cost drop on your common tickets.
- Two-arm prototype: Planner → Tool-Executor (browser or repo) with a Judge. Orchestrator only resolves conflicts.
- Specialist MoE: Add a code-fix small model (e.g., 1–3B) gated by a classifier; fall back to the big model on low confidence.
- Decentralized memory: Split your RAG into per-domain stores; add a router; watch precision improve and leakage drop.
- Quorum for critical ops: Require 3 proposals for risky actions; aggregate; compare error rates.
See Also
- Architecture Overview - Full technical architecture
- Data Structures - TaskContract, ArmCapability schemas
- Getting Started - Implementation guide