Median estimated cost reduction
For Boltz-1 at 0.4 LDDT, our scaling-law analysis estimates 2100× lower training cost at a fixed training time.
Read the researchFor Boltz-1 at 0.4 LDDT, our scaling-law analysis estimates 2100× lower training cost at a fixed training time.
Read the researchWe integrate as a drop-in layer for your model, dataset, and hardware, so you keep control of your data and infrastructure.
Training efficiency know-how is concentrated in a small number of labs. We package that expertise into a system that transfers across domains and model families.
We rigorously quantify uncertainty in every step of our algorithms and empirical estimates to ensure our methods are reliable.
Compute is widely available. What’s scarce is algorithmic innovation that reliably improves training efficiency across model classes and domains.
Instead of sharding one monolithic run, we train multiple models on distilled versions of the data, then ensemble, minimizing coordination overhead.
We co-design with teams training large, custom models, staying grounded in real constraints and iterating quickly from deployment feedback.
We continually develop and validate new training strategies as architectures, datasets, and hardware evolve. Kuai improves over time.
We’re a small team of MIT PhD researchers building Kuai to bring frontier-grade training efficiency to far more teams.
We’ve spent years studying training dynamics and scaling behavior, and we build systems meant to run end-to-end in real training pipelines.
We ground decisions in strong empirical evidence and explicit theoretical assumptions. Data alone is rarely sufficient: inductive biases matter, and we are deliberate about choosing them.
If training cost is limiting the models or experiments your team can attempt, we’d love to talk.