The Technology

How photonics replaces
computation.

A step-by-step account of why digital signal processing can't scale with the AI boom — and what we built instead.

01 — The Bottleneck

AI factories
compute with electrons.

GPUs crunch every matrix multiply electrically — electrons racing through silicon at up to 1,000 W per chip.

01 — The Bottleneck

Thousands of GPUs.
All linked.

A 100,000-GPU AI cluster is a dense network — every node must reach every other at hundreds of gigabits per second.

01 — The Bottleneck

Every link converts
electrons ↔ photons.

Fiber optics span the datacenter — but electrons must convert to photons to enter the fiber, then back to electrons at the far end.

01 — The Bottleneck

The fiber distorts
the light.

Chromatic dispersion stretches the optical pulse as it travels — different wavelengths arrive at different times. The signal is a mess.

01 — The Bottleneck

The DSP has to
equalize all of this.

Every transceiver contains a DSP that reconstructs the signal from the optical chaos. That digital processing burns 20 W — per link.

02 — The Idea

What if we didn’t
clean this up with electrons?

Instead of converting the distorted light into electrons just to fix it, what if the correction happened directly in the optical domain — before the photons ever become electricity?

03 — The Answer

The LUXONNICore.
No electrons required.

It replaces the transceiver's DSP outright — taking the same distorted optical signal in, and putting a clean optical signal out, without ever converting to electricity. All at under 1 W.

THE NUMBERS
10× less power than DSP
<1 W per transceiver module
100 GBd symbol rate per channel
WDM all wavelengths at once, no per-channel cost
400G–1.6T compatible form factors