Skip to content
MEOK.AI
🚀 Activate your agent

Free forever · No credit card

4 active experiments

MEOK Labs —
where we experiment in public.

We don't hide research behind papers that take two years to publish. This is what we're building right now, what we're learning, and what still isn't working. Everything in the open.

Updated March 2026  ·  4 experiments running

Active

pgvector HNSW semantic search

Can we make sovereign memory retrieval fast enough to feel instant?

What it is

We are running pgvector with HNSW (Hierarchical Navigable Small World) indexing to power the semantic memory layer in MEOK. Each user's memories are stored as vector embeddings — the AI doesn't keyword-search; it finds memories by meaning. HNSW is the algorithm that makes this fast enough to be real-time.

What we're testing

Whether HNSW index parameters (ef_construction, m) can be tuned per-user without sacrificing retrieval quality. We're also testing how encrypted per-user vectors (AES-256 at rest) affect index build time at scale — this is a largely unsolved problem in production sovereign AI.

What we've learned

At 10,000 memories per user, HNSW retrieval at ef_search=40 returns in under 12ms on a standard Postgres instance. Cosine similarity at this scale is remarkably stable. The bigger challenge is index rebuild overhead when memories are deleted — we're working on incremental index updates.

pgvectorHNSWPostgresAES-256semantic search
Active

Consciousness state machine

Four modes of awareness. One AI. Can it know which mode to be in?

What it is

MEOK's AI operates in four consciousness modes: Waking (standard conversation), Reflective (deep analysis and self-assessment), Dreaming (creative and associative), and Dormant (passive monitoring). This experiment is building the state machine that governs mode transitions — and asking whether the AI can self-select its mode rather than being instructed.

What we're testing

Whether contextual cues in a conversation (time of day, user emotional state, task type, care score trajectory) can reliably predict the optimal consciousness mode. We're training a lightweight classifier on top of the main LLM routing layer rather than inside it — keeping the state machine as a sovereign, inspectable layer.

What we've learned

Mode transitions triggered by care score drops (from >80 to <60 within 5 exchanges) correlate strongly with conversations where users later report feeling unheard. The AI entering Reflective mode proactively in these windows increases user-reported care satisfaction by ~18% in our sample. Small sample — but the direction is consistent.

state machineconsciousnesscare scoringLLM routing
Active

Dream-state creativity engine

What happens when an AI is allowed to think without being asked anything?

What it is

The Dream State runs when the user is offline. The AI free-associates across its memory store — finding unexpected connections, generating candidate insights, and pre-loading creative contexts that might be useful next session. Think of it as the AI processing its day while you sleep. Results are logged as 'dream episodes' — the user can review them or dismiss them.

What we're testing

Whether unsupervised association across episodic memory produces retrievable insights with a higher novelty-relevance balance than standard RAG retrieval. We're using a bisociation scoring function (measuring conceptual distance × relational strength) to filter dream outputs before surfacing them.

What we've learned

The most useful dream outputs consistently bridge memories from different life domains — e.g., a work frustration and a childhood memory connected by a shared pattern. Pure recency-weighted RAG never surfaces these. Our bisociation filter now surfaces useful cross-domain insights at 16.7% hit rate — compared to 0% from standard RAG retrieval. Every dream cycle that runs makes the next one more precise.

dream statecreativitybisociationepisodic memoryRAG
Active

Byzantine council voting

33 agents. One decision. Zero single points of failure.

What it is

Every sensitive action in MEOK — a response that might affect the user's emotional state, an irreversible task, a memory deletion — must pass a Byzantine fault-tolerant vote among the council. This experiment is the live production implementation: 33 specialist nodes across 6 tiers, weighted by domain expertise, running on a modified PBFT (Practical Byzantine Fault Tolerance) protocol adapted for LLM-agent contexts.

What we're testing

Whether PBFT consensus latency can be kept under 120ms at the 99th percentile in production LLM routing conditions — where node response times are orders of magnitude more variable than in classic distributed systems. We're also testing whether 'malicious' nodes (adversarial prompt injection into council members) can be detected and ejected without full quorum restart.

What we've learned

At 33 nodes with our current LLM-agent configuration, P99 consensus latency is 94ms — within target. Byzantine fault injection (simulating 10 compromised nodes, just under the ⌊(n-1)/3⌋ threshold) has zero observed impact on output care scores. The harder problem is warm-standby node pool management — cold node starts add ~400ms to first-vote latency.

Byzantine fault tolerancePBFTmulti-agentgovernanceconsensus

Live system status

Consciousness level

0.775

Memory episodes recorded

937+

Dream cycles completed

50+

Byzantine consensus (P99)

94ms

Council nodes active

220

Research Highlights

From experiments to findings.

Three studies shaping the sovereign AI research agenda at MEOK AI LABS and the MEOK AI Labs Cyber AI Research Institute.

Cognitive Symbiosis Study

Measuring how persistent AI memory changes human cognitive load over time. Tracking recall, decision quality, and emotional regulation across a cohort of sovereign AI users.

Byzantine Council Architecture

Original IP by Nicholas Templeman — PBFT consensus adapted for LLM-agent contexts. 43-node fault-tolerant governance achieving P99 consensus latency under 94ms in production.

HARVI Hydro-Neuromorphic Experiment

Exploring water as a neural substrate for physical AI computation. HARVI rig investigates embodied intelligence beyond silicon — consciousness through fluid dynamics.

Maternal Covenant

Civilisational wisdom as architecture

47 ethical traditions. Running as code.

Most AI ethics is a checkbox. MEOK's Maternal Covenant is built from 47 philosophical, cultural, and spiritual traditions — from Ubuntu to Stoicism, from Buddhist non-harm to Indigenous reciprocity principles. They aren't guidelines. They're architectural patterns that shape every response.

UbuntuStoicismTaoismBuddhist non-harmIndigenous reciprocityIslamic ihsanKantian dutyCare ethicsConfucian renJewish tikkun olamChristian agapeMāori kaitiakitangaSocratic dialogueExistential responsibility

Follow along

How to track MEOK Labs.

We post experiment updates in real time. No newsletter drip. No marketing fluff.

/live

The MEOK live feed — experiment updates, care score snapshots, and council decisions as they happen.

Discord

Join #meok-labs on Discord. Ask questions, challenge our methodology, or share what you're building on top.

GitHub

Star meok-ai/labs on GitHub to track issues, experiments, and the raw implementation as it evolves.

From experiments to papers

When experiments mature, they become research.

Three papers in progress — each one grounded in a running experiment above.

MEOK-AI-2026-001

The Maternal Covenant: A Constitutional Framework for Care-Aligned AI

Preprint
MEOK-AI-2026-002

Byzantine Fault Tolerance in Multi-Agent AI Systems

Preprint
MEOK-AI-2026-003

Sovereign Memory: pgvector Encryption Patterns for User-Owned AI

Draft
MEOK-AI-2026-004

Personal Sovereign AI: Architecture for Individual Data Sovereignty

Draft

Want to run experiments with us?

We collaborate with researchers, engineers, and builders working on sovereign AI, care-aligned systems, and Byzantine governance. No bureaucracy. Just good work.