FOR INVESTORS

The robots got funded. Testing them didn't.

Every robot has to be proven in simulation before it touches the real world. The tools that do it need a specialist. We built one your whole team can drive.

MARKET CONTEXT

The market is moving fast.

Public, third-party numbers. None of these are ours — our figures go to investors in diligence, not onto a marketing page.

$18.8B1
RAISED BY ROBOTICS STARTUPS IN SIX MONTHS

More than all of 2025, and more than the 2021 peak — with half of 2026 still to run.

542,0002
NEW INDUSTRIAL ROBOTS INSTALLED IN 2024

4.66 million are now running worldwide. Annual installs are forecast to pass 700,000 by 2028.

88%3
OF AI PILOTS NEVER REACH PRODUCTION

They stall on integration work and engineering hours — not on the model. That is the cost simulation removes.

$5T4
PROJECTED HUMANOID MARKET BY 2050

Morgan Stanley's long-range estimate. Goldman Sachs models $38B by 2035.

THE PROBLEM

Simulation is where robot projects stall.

  • The tools need an expert

    The best simulators are free and powerful. They also need someone who can hand-write robot files and tune physics. Most teams have one or two of those people. Simulation gets stuck behind them.

  • The cost isn't the physics

    Physics is close to solved and mostly free. The cost is everything around it — building the scene, preparing the 3D models, wiring up sensors, running the tests, reading the results. Months of engineering, on every project.

  • The gap kills the project

    A robot that works in simulation and fails on the warehouse floor sends the team back to hardware, where every attempt is slow, expensive and sometimes destructive. That's what ends pilots — not bad models.

THE THESIS

Four things we believe.

  1. The workflow is the moat, not the physics.

    NVIDIA and DeepMind are giving the physics away for free. We don't compete with it — we sit on top of it and own the part nobody has solved: making it usable by an ordinary engineer on an ordinary afternoon.

  2. Demand grows with teams, not with robots.

    Every robot takes months of testing before it ships, and more after every update. The number of teams building robots is growing far faster than the number of robots. Sell to the builders.

  3. Plain English is what finally makes this work.

    Describe an aisle, a lighting condition or a specific failure in one sentence and get back a real, editable, physics-accurate scene. That wasn't possible three years ago. It removes the single biggest time cost in the job.

  4. Own the testing, own the deployment.

    Teams that build and test in one place ship from that place. Run history, asset libraries and the bridge to real hardware make leaving expensive — quietly at first, then permanently.

WHY NOW

Four things changed at once.

  • 01

    Physics got fast and cheap

    Running thousands of simulations in parallel turned months of training into hours. In December 2025 a Berkeley team taught a humanoid to walk in 15 minutes on one gaming GPU.5

  • 02

    The stack opened up

    The core robotics and physics software is now open source. A new company no longer has to build a physics engine to be credible, so the whole budget goes to the product instead.

  • 03

    The customers arrived

    Thousands of newly funded robotics teams now need somewhere to test, and most have no simulation expert on payroll and no plans to hire one first.1

  • 04

    The capital came to us

    Qatar's sovereign fund backed Apptronik's $520M round and grew its fund-of-funds programme to $3B. We are building where that money already lives.6

THE PRODUCT

Shipped, not slideware.

A working platform in early access, not a roadmap. What a design partner gets on day one:

  • Build 3D scenes by drag and drop — no code
  • Drop in ready-made robots: wheeled, armed, four-legged
  • Run, rewind, replay and compare every test
  • Live data showing what the robot actually did
  • Describe scenes and behaviours in plain English
  • Push a validated workflow to real hardware
  • Run in our cloud, or entirely inside your network
The RoboSim AI workspace: 3D scene, robot library, and telemetry timeline

WHERE WE ARE

Early access, deliberately.

We onboard design partners from a private waitlist instead of opening self-serve signup. Sitting inside a handful of real robot programmes while we build is worth more right now than a signup graph.

We publish no numbers of our own on this site. Investors get them in diligence, under NDA, with the underlying data behind them.

Stage
Early access, private waitlist
Headquarters
Doha, Qatar
Engineering
Tunis, Tunisia
Built on
ROS 2 and open standards

BUSINESS MODEL

Three ways we make money.

  • 01

    Seats

    A subscription per engineer. It lands with the two people already doing simulation and spreads across the team as the skill barrier drops — which is the whole point of the product.

  • 02

    Compute

    Metered simulation and training runs. Usage grows with the customer's own work rather than with our sales effort, so we earn more only when they get more.

  • 03

    Enterprise

    Private deployments for teams whose robot designs cannot leave their network, with custom hardware support. Slower to sell, much larger, much harder to leave.

Pricing stays private during early access. Current design-partner terms are in the data room.

WHY HERE

Doha and Tunis are an advantage.

  • Doha

    Qatar — headquarters, capital and customers

    Qatar is putting sovereign money directly into physical AI, and Gulf logistics, energy and construction are buying robots on the same timeline. Being resident inside that ecosystem is a capital and customer advantage competitors have to fly for.6

  • Tunis

    Tunisia — engineering

    Tunisia sends roughly 10,000 technology graduates a year into a sector already employing over 100,000, and loses most of its senior engineers to Europe. We hire the ones who would rather stay. The same round buys us far more engineering than it would anywhere our competitors hire.7

USE OF CAPITAL

What the next round buys.

Accuracy
Better sensors, better handling of how objects collide and grip, and the tests that prove it. If a result isn't trustworthy, nothing else on this page matters.
Coverage
More robots and assets in the library, so a team's actual hardware is there on day one instead of after two weeks of integration.
The hardware bridge
A hardened path from tested simulation to running robots, with automatic re-testing on every change.
Design partners
A small commercial team to turn waitlist demand into paid partnerships across warehouse, inspection and research.

WHAT HAS TO BE TRUE

The bear case, written by us.

Break any of these four and the thesis breaks with it. Better you interrogate them now than in month nine of diligence.

  • The results have to be trustworthy

    An easy interface on mediocre physics is a toy. We hold ourselves to whether a robot trained in our simulator works on real hardware — not to screenshots.

  • NVIDIA could move up the stack

    They have every reason to make their own tools easier to use. Our answer is to stay neutral across engines and hardware, and own the workflow rather than the engine underneath it.

  • Robotics sells slowly

    Buying decisions here run in quarters, not trial signups. We plan capital around that instead of assuming software speed and running out of room.

  • Early access has to convert

    Waitlist interest is not revenue. The number that matters near-term is paid design partners renewing, and that is what we manage the company to.

If this is your thesis too, let's talk.

We share the full data room — architecture, roadmap, design-partner pipeline and current numbers — with investors under NDA. Email us and we'll come back with materials and a time.