Noetic

About

A custom ASIC per workflow, not a general accelerator.

Noetic builds custom state-model ASICs that give scientific and engineering workflows accelerated, consistent compute, state by state.

What we do

We take a customer’s simulation workflow, quantize or distill a state model for it using our own process, and let that process drive the design of the silicon. We ship the hardware with an open source software layer.

Simulation-heavy work runs today on general-purpose GPUs or on unified-memory edge systems. Those systems are fast on average and inconsistent step to step. For simulation, the inconsistency is the real cost: a pipeline that jitters is hard to trust, hard to schedule around, and hard to compare across runs.

So a lot of teams still pay for physical tests in uncontrolled, non-digital environments, because the digital version is not fast or reliable enough to replace them. That is the spend we are going after.

The bet

State-space models hold history in a fixed-size state and update it with a fixed amount of work per step. Nothing grows with sequence length. That is a modeling property, and it is also a hardware property: fixed memory, predictable per-step compute, a datapath that can be laid out once and run the same way every time.

Transformers on GPUs do not have this. Their memory footprint grows with context and their latency moves with it. For a solver stepping through time or space, that is the wrong shape.

State models are the right model class for consistent simulation compute, and a state model is regular enough that a small team can build an ASIC around it. We think those two facts belong together.

Two sites

Designed in Austin. Assembled in Bangalore.

Austin carries architecture through physical design. Bangalore carries assembly and the more experimental testing, which keeps labor and iteration costs down.

Design and test

Austin, Texas

  • Architecture
  • RTL
  • Verification
  • Physical design

Assembly

Electronic City, Bangalore

  • Assembly
  • Experimental testing

How we operate

Order first, then design.

We do not build inventory of a general part and hope it fits.

  1. 01

    One workflow per order

    A customer places an order with a specific workflow: anything high-dimensional where a state model can carry the physics.

  2. 02

    A shared base architecture

    Per-customer work stays in quantization, distillation, and configuration. The first part for a new workflow is the expensive one. The tenth is not.

  3. 03

    Locked interfaces, versioned ISA

    The constraint that keeps customer-specific work out of the silicon, and lets RTL move on v1 while architecture continues on v2.

  4. 04

    Open software, shipped with the part

    The open source release is planned alongside the first part, not after it, so a community can form around it.

Who it is for

People who would rather have a consistent part than a faster GPU.

  • Now

    Simulation-heavy work

    Physicists, engineers, amateur AI enthusiasts, and businesses with simulation-heavy work: people who already know their workflow and already pay for compute.

  • Next

    Financial simulation and market making

    Where latency and consistency are the product. Same silicon approach, tighter latency targets.

What could go wrong

The risks, named.

As stated in the white paper.

  • R1

    Customer work leaks into silicon

    If per-customer work does not stay in software and configuration, the pricing does not hold. Locked interfaces and the versioned ISA are the guard.

  • R2

    PDK and IP access slips

    OpenRAM and the existing Coral flow keep the work moving in the meantime.

  • R3

    State models are still early

    We are betting on their adoption in scientific and engineering pipelines. The benchmark work is how we prove it to customers before they buy.