RawrTech Labs — agentic infrastructure

Autonomous operators that actually run the business

Labs builds Maia — an agentic operating system where persistent AI operators own real business functions end to end, executing against live systems behind a hard approval fence, on hardware you control.

01 — The product

Maia Nexus Core

Most agent tooling stops at chat. Maia is a runtime: long-lived operators with durable memory, a governed tool layer, and an execution gate that decides what an agent is allowed to actually do.

Operator runtime

Persistent agents scoped to a business function — not one-shot prompts. Each operator carries its own memory, capability set, and audit trail across sessions, and keeps working the function between conversations.

operator: "ops-steward"
runtime: "maia-nexus-core"
inference: "local:gb10"
writes: gated
Deployed

Governed tool layer

Every tool is tiered. Reads run free; writes and outward-facing actions pass a three-layer fence and an explicit approval gate before they touch a real system.

Deployed

Local inference router

Keeps sensitive work on local GPUs and escalates to frontier APIs only when the task earns it — per-call, per-operator, policy-driven.

Deployed

Operative fleet

Specialized operators running concurrently against shared state, with supervision, hand-off, and escalation to a human when confidence drops.

In development
02 — The stack

Local-first, on NVIDIA silicon

Maia is built for teams that cannot ship operational data to a third-party API — and for the economics of agents that run continuously rather than occasionally.

  • Runs on DGX Spark (GB10). 128 GB of unified memory lets a single desktop-class node hold models that would otherwise need a rack.
  • Continuous open-weight evaluation. We benchmark new open-weight releases against real agentic tasks — tool-call fidelity and multi-step reliability, not leaderboard scores.
  • Hybrid by policy, not by accident. Local models handle the high-volume inner loop; frontier models are called deliberately and stay substitutable.
  • Data stays put. The full operator loop — memory, retrieval, tool execution — can run without egress.
128 GB
Unified memory per Spark node — the model class our operators need, on-prem
3-layer
Write fence between an agent's intent and any real-world side effect
Continuous
Open-weight bake-offs feeding the router's policy
03 — How it works

From function to autonomous operator

Maia is deployed against one business function at a time, and earns autonomy as its track record accumulates.

01

Scope the function

Pick a bounded, high-repetition function. Define what done looks like — and what the operator may never do.

02

Wire the tools

Connect the systems of record. Every tool is registered with a tier: read, act, or restricted.

03

Run supervised

The operator works the function with every write gated. Each approval and rejection becomes signal for its policy.

04

Release the gate

Proven action classes graduate to autonomous execution. Everything else stays gated. The audit trail never stops.

04 — Roadmap

Where Maia goes next

Now

Operative fleet

Multiple supervised operators running concurrently, with hand-off and shared state across business functions.

Next

Deployable node

Maia packaged as a self-contained appliance image, so a team can stand up the full stack on their own NVIDIA hardware.

Then

Operator catalog

Pre-built operators for the functions every small company runs, installable into a customer's own Maia node.

05 — Early access

We’re onboarding design partners

If you run a business function that is high-volume, rule-heavy, and too sensitive to hand to a public API, we want to hear about it.

hello@rawrtech.ai