Fusion · Fission · Advanced Energy · Defense

From one component to the whole power plant.

Morton Labs is the operating layer for simulation-driven engineering — the physics codes your scientists already trust, connected into one system: orchestrated, versioned, auditable.

01 · One component

Model one component's behavior.

One fuel rod in one coolant channel: neutron transport, energy deposition, heat, flow, stress — every realm of physics that touches it, each run by the code your team already trusts.

02 · The subsystem

Then the machine it lives in.

The rod is one of hundreds in an assembly, one of hundreds in the core. Neutronics, thermal-hydraulics, structural, materials — different departments, different codes, one shared, versioned model.

03 · The whole plant

Fuel intake to energy output, one connected model.

Reactor, heat transfer, power conversion, grid. Each department models its own realm of physics; the plant-level view assembles from that work — generated from what teams actually run, never drawn by hand.

04 · Extreme environments

See how the whole plant behaves when conditions go extreme.

Neutron flux, thermal loads, irradiation, seismic — conditions no test stand can reproduce. Run hundreds of cheap cases with dispersion instead of one heroic run, and decide on the spread, not a single number.

A single fuel rod in its coolant channel, cladding cut away to show the pellet stack.
Particle tracks arriving at the fuel rod; the pellets warm from cream to orange as energy deposits and coolant flows past.
The rod inside a fuel assembly, inside the core lattice of a cylindrical pressure vessel drawn as linework.
An isometric power plant: fuel handling, reactor building, primary loop, steam generators, turbine hall, generator, switchyard.
A grid of one hundred and forty-four fuel-rod runs, each shaded by its outcome — a campaign, not a single case.
Your tools, more results

Your people keep their tools. Agents run the campaigns.

Scientists, researchers, and engineers keep working in the codes, notebooks, and CAD they know. Agents compose and execute the sweeps, track every run, and hand back validated results — far more of them than any team could stitch together by hand. People make the calls.

People keep their tools; agents compose, execute, and track a campaign of many runs; one result bundle returns with its outcome spreadCFDNEUTRONICSSTRUCTURALCADNOTEBOOKSPEOPLE · TOOLSAGENT · COMPOSEAGENT · EXECUTEAGENT · TRACKAGENTS · THE CAMPAIGNHUNDREDS OF CASESRESULT BUNDLETHE SPREAD
Works with the tools your teams already run
OpenFOAMGeant4OpenMCMOOSEParaViewJupyterPythonSlurmGitCADHPC schedulers
What Morton Labs is

The harness. The orchestration layer. The system of record.

Morton Labs doesn't build solvers. It's the layer that lets every department model its realm of physics and coordinate as one — every input, version, environment, output, and validation in one auditable record.

Five physics departments feed the Morton Labs layer — harness, orchestration, system of record — which feeds design, review, and operationsNEUTRONICSTHERMAL-HYDRAULICSSTRUCTURALMATERIALSSYSTEMSMORTON LABSHARNESSORCHESTRATIONSYSTEM OF RECORDDESIGNREVIEWOPERATEORCHESTRATED · VERSIONED · AUDITABLE
Harness
Codes never meant to meet, run as one workflow
Adapters and run specs make the codes you already run interoperate — no rewrites.
Orchestration
Campaigns on laptop, cluster, or cloud
The graph is generated from what runs, never authored by hand.
System of record
Every result traceable to its origins
Inputs, code version, environment, outputs, validation — one auditable record.
We don't build solvers. We make the solvers you already trust work as one system — GitHub for simulation-driven engineering.
— WHAT MORTON LABS IS (AND ISN'T)
The problem

First-of-a-kind engineering runs on last-of-its-kind software.

The codes that prove the physics were built in academic labs and national programs — unmaintained, non-standardized, unable to interoperate. So physicists become programmers, every team re-stitches the same pipelines by hand, and first-of-a-kind projects pay for it in years and billions.

~80%
Of 300+ billion-dollar megaprojects ran over budget; half ran late.
Source: McKinsey
$20.9–42.9B
Annual cost of interoperability gaps in U.S. discrete manufacturing.
Source: NIST
~$1.4T
Annual unplanned-downtime cost across the 500 largest industrial firms.
Source: Siemens
Why now

The grid is the bottleneck. Engineering throughput is the unlock.

AI buildout made energy the binding constraint. Every answer is first-of-a-kind engineering — and simulation throughput is its fastest lever.

Recognition & programs
NVIDIA InceptionUniversity of Chicago — GNVC WinnerNSF I-CorpsFusionX Munich — Winner

The platform is in beta with first users. We work with leading fusion companies and U.S. national laboratories.

How it works

From scattered codes to one system.

  1. Connect
    Adapters onboard the codes you already run.
  2. Orchestrate
    Campaigns execute across any computing environment.
  3. Trace
    Every result carries its full provenance.
  4. Decide
    Validated results feed real engineering calls.

See your codes working as one system

IN BETA · 48-HOUR RESPONSE
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