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Using AI to Solve AI's Problem

Better compression, not bigger data centres. And post-quantum cryptography that's ready before the quantum threat arrives.

The AI industry is betting trillions on infrastructure. We think there's a smarter path — using AI as a research tool to explore next-generation lossless compression.

The Infrastructure Bubble

Everyone's building bigger. We're thinking smaller.

$1 Trillion

OpenAI's committed infrastructure spend over ten years. Their annual revenue? About $13 billion.

900,000

Wafers per month required for OpenAI's Stargate project by 2029, triggering a global memory chip crisis.

— Reuters, December 2025

The AI industry's solution to every problem is scale: more GPUs, more power, more cooling, more data centres. It's economically fragile and environmentally unsustainable.

We're asking different questions: What if the data itself could be smaller? And what happens when quantum computers break the encryption protecting all of it?

Our Research

Research That Earns the Name

We use large language models as research tools — not products to scale infinitely. Our work spans two frontiers: next-generation lossless compression, and post-quantum cryptography for a world where today's encryption has an expiry date.

Compression Research

Testing compression theories. Validating formulas at scale. Exploring whether data can be encoded as continuous waveforms rather than discrete bits.

AI as Tool

Testing thousands of compression formula variations automatically

Waveform Encoding

Exploring data as continuous signals rather than discrete bits

Lossless Target

Compression that preserves every bit of the original data

The goal isn't to consume more compute. It's to eventually need less.

Post-Quantum Cryptography

Quantum computers will eventually break RSA, ECDSA, and the elliptic curve cryptography that secures almost every digital system today. We're not waiting for that to happen.

We've built a ground-up implementation of NIST's post-quantum standards in Zig — engineered for the same performance-first philosophy that drives everything we build.

ML-KEM-768 (FIPS 203)

Post-quantum key encapsulation at 192-bit security

ML-DSA-65 (FIPS 204)

Post-quantum digital signatures at 192-bit security

Hybrid ML-KEM + X25519

Defense-in-depth combining post-quantum and classical cryptography

Cross-platform

Native libraries for macOS, Linux, Windows, iOS, and Android

Rust FFI

Safe Rust bindings with automatic key zeroisation and constant-time operations

This isn't a wrapper around someone else's library. It's a from-scratch Zig implementation with a C API, Rust FFI bindings, and cross-platform builds — already integrated into Quantum Vault, our self-custodial cryptocurrency wallet.

When quantum computers arrive, the systems we've built will already be protected.

How We Get There

Products fund research

While we work on the hard problems, we're building software that embodies our values: efficient, private, local-first. No cloud dependency. No wasted resources. No subscription traps.

Every product we ship funds continued research into next-generation data encoding.

Local-First Architecture

Your data stays on your machine. No cloud servers burning energy to store what could live locally.

No Subscription Lock-in

Buy once, own forever. MIT-licensed binaries. We don't hold your workflow hostage.

Built With

Rust · Zig · Tauri · Svelte

Native performance. Cross-platform. No Electron bloat. Our desktop and mobile applications are built with the same efficiency principles we're researching — and secured with post-quantum cryptography we built from the ground up.

Desktop & Mobile Open source binaries MIT licensed SQLite local storage Post-quantum encryption (ML-KEM-768, ML-DSA-65)

The future of computing isn't bigger data centres.

It's smarter data — and encryption that's ready for what comes next.