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GODWIT FORGE / THE PHYSICAL LABORATORY FOR AIPRODUCT 01 / FORGE

Let AI build
in the real world.

AI can imagine the next breakthrough.
We’re building the machines
that let it run the experiment.

Concept visualisation of a Godwit Forge optical laboratory with a robotic assembly head, optical components and control console
GODWIT FORGEAUTONOMOUS OPTICAL R&D
PRODUCT VISION / CONCEPT VISUALISATION↓
Working Forge prototype moving optics above the magnetic bed SEE THE WORKING PROTOTYPE
01 / GODWIT FORGEFrom an idea
to an experiment.

Give your ideas
a physical laboratory.

Optical R&D still depends on someone moving, aligning and rebuilding the experiment by hand. Every new configuration competes for expert time.

Forge combines robotic placement with self-aligning diamagnetic mounts. We’re developing a platform that turns optical experiments into something software can build, measure and improve.

Explore the workflow ↓
THE AMBITION / A CLOSED EXPERIMENTAL LOOP

An idea is only
the beginning.

Design it. Build it. Measure it.
Use the result to decide what comes next.

FORGE / EXPERIMENT CYCLE01 — DESIGN
Illustrative optical bench: a beam passes through a sample and is redirected to a detectorSAMPLEDETECTORLASER INPUT
Define the experimental objectiveILLUSTRATIVE WORKFLOW

The complete AI-directed loop is in development.

IN THE LAB / TODAY

Real hardware.
Real experiments.

From robotic component placement to paid instrumentation development, the work is already physical.

Forge prototype positioning optical components on a magnetic checkerboard substrate
FORGE PROTOTYPE / OPTICAL COMPONENT PLACEMENT
01 / HARDWARE

An experiment
that can be rebuilt.

Prototype robotic placement of mirrors and beamsplitters on a magnetic substrate. Gravity sensing has provided an initial experimental use case.

02 / DEVELOPMENT

Instrumentation
with a purpose.

Paid optical instrumentation development in support of Draper’s TFINER project, a NASA NIAC Phase II programme.

IN DEVELOPMENT
DEVELOPMENT PARTNERLiquid Instruments

Connecting electronic control and measurement with robotic optical assembly.

Close view of an optical mount being placed above permanent magnetsTHE LEVITATED MOUNT / PROTOTYPE HARDWARE
02 / THE PHYSICS UNDERNEATH

Precision.
By levitation.

The key is the mount. Diamagnetic materials levitate above a magnetic substrate, creating a physical foundation for self-aligning optics.

Robotics supplies the movement. The magnetic landscape helps establish the alignment. Together, they open a path to experiments that can be repeatedly reconfigured under software control.

ROBOTIC PLACEMENTDIAMAGNETIC ALIGNMENT
WHERE WE’RE STARTING

One platform.
More questions to ask.

Built around the needs of teams working at the intersection of light, measurement and discovery.

01

Photonics R&D

Characterise components. Compare optical configurations. Explore more of the design space.

02

Quantum optics

Develop and refine the optical systems behind emerging quantum technologies.

03

Precision sensing

Build experiments around a signal. Optimise the measurement that matters.

LET’S BUILD SOMETHING THAT MATTERS.YOUR NEXT EXPERIMENT STARTS HERE

What would you build
if your lab could keep up?

We’re looking for collaborators with ambitious experiments.
Tell us what you want to measure, build or discover.

Start a conversation