Heavy-duty autonomy / UK + Europe

Tyina: Autonomous Field Robotics, Governed by Auditable AI.

Bringing heavy-duty automation to agriculture with zero-hallucination execution, deterministic safety layers, and full European AI Safety compliance.

A working proof-of-concept is running today on a development platform. The specifications below describe the field machine this architecture is built for.

Operational trust
01European AI Safety Compliant
02Zero-Direct Motor Access
03100% Auditable Codebase
01 The Moat
Architectural containmentLive path trace
01Intent mappingNatural language
02Job libraryPre-stored + verified
03Safety boundaryGeometry + LiDAR
04Hardware actionMotor access locked
Deterministic boundary verified

The containment architecture

The Voice, the Vehicle, and the Boundary.

True autonomy requires absolute trust. When a farmer says, "take this to the top field and feed the sheep," our AI does not guess how to drive a two-ton machine. Instead, our language models are strictly confined to matching natural speech to pre-stored, verified field jobs.

01

What the AI Does, and What It Doesn’t

A farmer says “move the bales from the top field to the yard.” The model’s job ends almost immediately: it identifies a bale, and it says which part of it the machine should take.

Everything after that is measurement. Tyina finds it against a fitted ground plane, measures its real dimensions in depth, confirms it is within what the machine can carry, checks the ground beneath it, works out the approach from its own geometry, and verifies it is carrying what it thinks it is carrying before it moves.

The model contributes a word and a rough region. The machine contributes every number.

That division is the safety case, not a preference. In testing, the model’s region was 55mm out — and the result was still correct to the millimetre, because nothing it said was ever used as a measurement. It was used to choose; the sensors did the arithmetic.

Take the network away and the machine loses the name and the description. It does not lose the ability to measure, to verify, or to refuse.

02

Hallucination Cannot Reach the Motors

Language models describe and propose. They hold no route to a motor controller, and nothing they say is acted on before the robot has measured it.

03

Hardware-Enforced Limits

Every motion vector is mathematically verified by local depth geometry and LiDAR costmaps before a single track turns.

02 The Execution Engine

DETERMINISTIC BY DESIGN:

THE EXECUTION ENGINE

Ask any robot what it just did and most can't tell you. Ask Tyina, and she produces an immutable, cryptographically signed flight record of the exact millisecond she moved.

Every sensor reading, motor command, and safety veto is sealed into an append-only ledger. You don't get AI guesses—you get absolute, verifiable attribution.
Connectivity required 0%
Code visibility 100%
Sensor veto latency 0ms
ADV / 01EDGE

True Offline Autonomy

While Tyina seamlessly utilizes Wi-Fi, 4G, and RTK GNSS, her core safety and navigation engines require zero connectivity. She navigates, avoids dynamic obstacles, and executes complex missions entirely on the edge.

ADV / 02AUDIT

100% Transparent Codebase

No black boxes. Every line of execution code is auditable, readable, and human-controllable. You will never have to guess why the robot made a decision.

ADV / 03HUMAN GATE

The In-Field AI Mechanic

Our onboard AI continuously analyzes telemetry, execution times, and battery draw to propose code-level optimizations. Crucially, these proposals are strictly quarantined—they cannot touch fixed safety limits and require a single-click human approval before deployment.

ADV / 04HARD VETO

Hardware-Locked Sensor Veto

LiDAR and depth cameras are wired into the architecture not just for mapping, but as an absolute veto. If visual verification drops, the system triggers an instant zero-velocity baseline. Tyina cannot be forced to drive blind.

ADV / 05FAULT LOG

Built by Finding the Faults

In a single week of testing: a mirrored wrist angle, two solvers disagreeing about the same pose, a colour mask that silently returned nothing, a fallback that skipped without a word, and a refusal reported to the operator as a success.

Every one was found by reading what the robot said about itself. None required retraining, and each fix is a line you can read. That is what auditable means in practice.

03 The Command Console

Edge operations / tyina_console

Total Visibility.
Absolute Control.

Manage your entire operation from the edge. The Tyina console bridges the gap between the field and the farmer, offering real-time telemetry, visual mission maps, and a Validation Council that cross-verifies every robotic decision in real-time.

Tyina web-based fleet dashboard showing live field mission data
Visual mission maps
Validation Council active
04 Hardware Spec

Platform specification

Target Specification — Field Platform

Current development platform: tracked chassis, 5-DOF arm, depth camera and LiDAR. The autonomy and safety engine described above runs on it today.

SPEC / 01CHASSIS

Drive & Chassis Dynamics

Shaft-Driven Powertrain
Delivers maximum climbing power and stability across complex off-road and agricultural terrain.
1,500 kg Payload Capacity
Heavy-duty structural rating built for efficient, large-scale material transport.
Sub-Millimetre Actuation
Proprietary kinematic geometry perfectly maps physical movements to hardware tolerances.
SPEC / 02AUTONOMY

The Tyina Engine: Autonomy & Safety

DYNAMIC RISK ADAPTATION
Intelligent, short-term hazard awareness that continuously evaluates field conditions, allowing the machine to safely adapt to changing terrain without getting stuck in static loops.
IMMUTABLE EXECUTION LEDGER
Every motion and sensor refusal generates a tamper-evident cryptographic signature, providing complete operational transparency for fleet managers and insurers.
PEER-TO-PEER FLEET INTELLIGENCE
Enables multi-unit off-grid collaboration. Units operating in remote fields exchange environmental data directly without relying on cellular networks or cloud connectivity.
SPEC / 03COMPUTE

Connectivity & Compute Power

100% Auditable Execution Code
AI interprets the environment, but deterministic algorithms govern movement. Zero black-box logic; every physical decision is transparent and verifiable.
Industrial Edge Compute
High-performance, fanless onboard AI GPU rapidly processes complex vision and localization data.
Multi-Band Telemetry
Seamless Wi-Fi, 4G, and RTK GNSS for remote fleet management and high-accuracy positioning.

Investment / Deployment / Europe

Ready to scale the future of agriculture?

We are currently opening our next round of funding to scale deployment across the UK and Europe.