Physical AI

Intelligence that runs where the world happens

Physical AI is intelligence in machines that move, sense and act: vehicles, robots, drones, instruments, medical devices. CyberSwarm builds the processor it runs on, one that computes inside its own memory, so a machine can perceive and decide by itself on a budget of milliwatts.

Backed by

  • Falanga InvestSeries A lead investor
  • Draper AssociatesEarly backer since 2018
A single IGZO memristor, magnified out of a crossbar array. Charge carriers flow from one coplanar contact, through the indium-gallium-zinc-oxide resistive layer, and into the other contact. Each voltage sweep steps the layer to a higher resistance state, narrowing the conducting channel, until the cell is re-formed and the cycle repeats. The stored value is the resistance of the material itself.

The gap

AI is everywhere on screens, and almost nowhere in machines.

The last decade of artificial intelligence happened in data centres, and it worked because a data centre has unlimited power, active cooling and no deadline that a few hundred milliseconds cannot meet. A machine in the physical world has none of those. It has a battery, a sealed enclosure, and a control loop that has to close before the thing it is steering hits something.

So the intelligence stays in the building and the machine keeps a thin connection back to it. That is workable for a thermostat. It is not workable for a car changing lane, a surgical instrument, a satellite over an ocean, or a robot on a factory floor where the network is one more thing that can fail.

The blocker is not the models. Those already exist and they are good enough. It is that no processor built to date can run them inside the power and time budget a physical machine actually has. That is the gap CyberSwarm was built to close.

AI adoption worldwide is at five or six percent, and we already do not have enough energy. By the time we reach fifty percent, there is simply nowhere left to take that energy from.

Mihai Raneti · Founder & CEO, CyberSwarm

$50M
Series A raised

Led by Falanga Invest

30+
Patents filed

Device, array and system

2017
Building since

Nine years of device work

What changes

Four things a product can do that it could not do before

Stated as outcomes rather than architecture. The engineering behind each one is on the technology page.

  1. 01

    The machine stops needing the network

    Perception and decision both complete on the device. A product works the same in a tunnel, in a basement, at sea and in a factory that will not put its line on the public internet.

  2. 02

    The power budget stops being the ceiling

    Computation happens where the data already sits, so the energy that used to go into moving numbers is simply not spent. That is the difference between a feature that fits in a battery-powered product and one that does not.

  3. 03

    The response arrives inside the control loop

    A decision reaches the actuator in microseconds rather than after a round trip. For anything that steers, brakes, grips or corrects, that is not a nicety. It is the whole requirement.

  4. 04

    The data never leaves the product

    A camera that recognises a driver without sending the driver anywhere changes what is legally and commercially possible. Privacy stops being a policy and becomes a property of the hardware.

Hover a channel · activate to run the full vectorV in · G stored in every cell · I = Σ V·G out
Hover a channel · activate to run the full vector. Interactive memristor crossbar: activating an input channel applies a voltage vector to the rows, each memristor passes a current proportional to its stored conductance, and every column sums those currents at the node below the array.

See it work

The calculation is the current

This is the engine, live. Hover a sensor channel to feed it a signal, then activate it to send the whole input through at once and watch the answer appear along the bottom. What takes a conventional processor millions of operations happens here in a single pulse, because the components are doing the arithmetic themselves.

  • The model is held in the hardware itself, not loaded into it
  • Running it costs a pulse of current rather than millions of trips to memory
  • The whole calculation resolves at once, in the time it takes the current to settle
  • Nothing is fetched, nothing is written back, and nothing is sent anywhere

Why us

Four things a competitor cannot reach by iterating

A different machine, not a faster one

Everyone else is making the existing architecture more efficient. We removed the part that costs the energy: the memory and the arithmetic are the same physical component. That is not a tuning gain, and it is not something a competitor reaches by iterating.

Owned down to the material

The portfolio starts at how a resistive state is written into a thin film and runs up to the full network. Anyone building this way meets our filings at the device layer, which is the layer that is hardest to design around.

Sold as an engine, not as a chip

Partners license the architecture into their own silicon or take it as a module. That fits how automotive, aerospace and medical companies already buy, and it means one design win can carry a platform rather than a product.

Built for things that must not stop

Work is spread across many small arrays, so damage costs precision in one region instead of taking the system down. In the sectors we sell into, that behaviour is a requirement before it is an advantage.

Where it goes

Six industries where the answer has to arrive on the device

From a driver-monitoring camera to an orbital imaging payload, the same constraint keeps reappearing: fixed power, no network, hard deadline.

Automotive

Perception that keeps working when the link does not

Sensor fusion, driver monitoring and predictive diagnostics that run inside the ECU on a power budget a vehicle can actually spare, with a wake-up that costs nothing, because the weights never left the array.

Aerospace & Defence

Autonomy for platforms that are on their own

On-board processing for airborne and orbital systems where the downlink is narrow, contested or absent, and where a single-event upset must degrade the answer, not end the mission.

Robotics & Physical AI

A control loop that closes in the robot

Reflex-rate perception and control for manipulators, mobile robots and drones, where a decision that arrives 200 ms late is not a decision at all.

Healthcare & Medical Devices

Continuous monitoring that never uploads a patient

Wearable and implantable devices that classify physiological signals on the device, where privacy is a property of the architecture rather than a clause in a policy document.

Industrial & Energy

Condition monitoring on machines that were never networked

Retrofit intelligence for factory floors, grid assets and remote infrastructure. Nodes that run for years on a harvested or battery supply and report an event, not a stream.

Consumer & IoT

Always-on intelligence inside the device

Wake-word, presence, gesture and context awareness that stay on continuously without the power draw or the privacy cost. Because the array is transparent, it can sit behind the display.

For partners

Put the engine in your product

Evaluation, integration and production paths, with the toolchain, the reference hardware and the engineers behind them.

For investors

Why this architecture, and why now

Nine years of device work, a $50 million Series A, and the market thesis behind it, including an honest account of the risk that remains.

Newsroom

Latest

19 May 2026 · Funding

CyberSwarm, founded by a Romanian in Ploiești, raises $50 million to scale neuromorphic computing

Forbes covers the Series A and the shift from research into commercial neuromorphic computing, with the full Raneti statement on why the architecture sits between classical and quantum.

Forbes.ro

18 May 2026 · Feature

The Romanian startup with nine people and thirty patents taking on the architecture all of today’s AI runs on

The longest feature on the company to date: why running AI in the circuit rather than in software is the answer to the energy problem, and what that means for humanoid robots and autonomous vehicles that cannot depend on a data centre.

start-up.ro

18 May 2026 · Coverage

A Ploiești engineer raises $50 million: “our vision is to build an artificial brain”

Reports the first commercial agreements signed and an advanced partnership in the automotive sector, alongside Raneti’s description of intelligence emerging from the continuous interaction between hardware and its environment.

Economica.net

Physical AI needs a processor that can leave the building.

Whether you are evaluating the architecture for a product or the company for a portfolio, the conversation starts the same way.