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BioengineeringbioRxiv
Preprint

Manufacturing-Aware Generative Model Architectures Enable Biological Sequence Design and Synthesis at Petascale

Eli N. WeinsteiniD, Mattia G. GollubiD, Andrei SlabodkiniD, Cameron L. GardneriD, Kerry DobbsiD, Xiao-Bing CuiiD, Alan N. AminiD, George McDonald ChurchiD, Elizabeth WoodiD

Abstract

We introduce a method to reduce the cost of synthesizing proteins and other biological sequences designed by a generative model by as much as a trillion-fold. In particular, we make our generative models manufacturing-aware, such that model-designed sequences can be efficiently synthesized in the real world with extreme parallelism. We demonstrate by training and synthesizing samples from generative models of antibodies, T cell antigens and DNA polymerases. For example, we train a manufacturing-aware generative model on 300 million observed human antibodies and synthesize[~] 1017 generated designs from the model, achieving a sample quality comparable to a state-of-the-art protein language model, at a cost of 103 dollars. Using previous methods, synthesis of a library of the same accuracy and size would cost roughly a quadrillion (1015) dollars.

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