Compute efficiency for AI training

Train the same model with fewer GPUs.

Akavion cuts the memory a training run needs while holding model quality, so your runs fit on the GPUs you already own.

Everyone else sells you cheaper chips. We make the chips you already have do more.

The problem

Compute is the binding constraint of AI.

Every serious lab hits the same wall: the models they want to train cost more GPU-hours than they can buy. The industry's answer is more hardware and better machinery around it. Almost nobody re-poses the math the machines are solving.

The math

The bill is measured in millions.

Training is the largest line item in a frontier AI budget, and it scales with model size. Here is what a single run costs today.

$100M+ To train one frontier model GPT-4 class, per OpenAI
7M GPU-hours for a 70B run Llama 3 70B, Meta model card
$17.5M That one run's compute bill 7M hours at $2.50/H100-hour

What efficiency is worth on that one run

Illustrative

Fit the same run on fewer GPUs and the compute bill drops with them. On a $17.5M run, the dollars add up fast.

10% fewer GPUs
$1.75M
20% fewer GPUs
$3.5M
30% fewer GPUs
$5.25M

Illustration of the dollar value of a smaller GPU footprint, not a measured result. In small-scale tests our method reduced the peak GPU memory a run needs versus standard training at matched quality, within about 1 to 2%, and we are now validating at larger scale.

What we do

A different layer of the stack.

Everyone else: better machinery

Faster chips, tighter kernels, smarter parallelism, lower precision. All of it makes the same computation run faster. The problem being solved never changes.

Akavion: a better-shaped problem

Training a model is one giant math problem solved millions of times. We restructure that problem using quantum-inspired methods, so the same model quality is reached with less work.

Because it works at a different layer, it stacks on top of mixed precision, FlashAttention, and FSDP instead of competing with them. And the methods run on standard NVIDIA hardware today. As quantum hardware matures, the same problem formulations port to it. Quantum is upside, not a dependency.

The science

Early results, honestly reported.

We would rather show a small true result than a big unprovable one. Here is where the method stands today.

Shown at small scale

On models up to a few billion parameters, our prototype cut the peak GPU memory a run needs at matched quality, within about 1 to 2%, on a single commodity GPU. Less memory means the same model fits on fewer or smaller GPUs.

Validating at scale

We are now running the same method at the billion-parameter scale. Carrying the result to the models labs actually train is exactly what we are building.

Akavion's founders have published peer-reviewed research and hold a granted US patent in this area. Those details live in the FAQ. What matters here is the result above, reported without dressing it up.

Who it is for

Teams whose ambitions are capped by compute.

GPU-constrained training

AI labs and companies training or fine-tuning models, where the compute budget decides what gets built. Fewer GPUs per run means more runs, bigger models, or lower bills.

RL and agent post-training

Reinforcement learning with verifiable rewards runs hundreds of rollouts for every learning update. Per-run efficiency compounds across the whole loop, so a saving on one rollout is paid out hundreds of times over.

FAQ

Questions, answered.

What does Akavion do?

Akavion compresses the memory an AI training run needs while holding model quality, so the same model fits on fewer, smaller GPUs, running on the classical NVIDIA GPUs labs already own.

Do I need a quantum computer to use it?

No. The methods run on standard NVIDIA hardware today. As quantum hardware matures, the same problem formulations port to it. Quantum is upside, not a dependency.

How is this different from faster chips or better kernels?

Those make the same computation run faster. Akavion restructures the underlying math problem itself, a different layer that stacks on top of mixed precision, FlashAttention, and FSDP instead of competing with them.

What evidence is it based on?

In small-scale tests on models up to a few billion parameters, our method cut the peak GPU memory a run needs at matched quality, within about 1 to 2%, versus standard training. Less memory means the same model fits on fewer or smaller GPUs. We are now validating at larger scale. The approach is grounded in the founders’ peer-reviewed research and a granted US patent, US12566987B2, with more than 1,700 academic citations behind the underlying work.

Who is Akavion for?

AI labs and companies training or fine-tuning models who are GPU-constrained, plus teams doing heavy reinforcement-learning and agent post-training, where per-run efficiency compounds.

Team

Built by the people behind the research.

A small team of researchers and operators. We have studied, published, and built at the institutions and firms below.

J.P. Morgan
Cornell University
Deloitte
Antler
NYU Stern
Founder Collective
Dorm Room Fund

Training a frontier model, or paying for one?

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