Self-driving laboratories to autonomously navigate the protein fitness landscape

Лаборатории с автономным управлением для автономной навигации в ландшафте приспособленности белков
Jacob Rapp, Bennett J. Bremer, Philip A. Romero
2024-01-11

autonomous protein engineeringglycoside hydrolasesprotein fitness landscapeself-driving laboratoriesthermal tolerance
Protein engineering has nearly limitless applications across chemistry, energy and medicine, but creating new proteins with improved or novel functions remains slow, labor-intensive and inefficient. Here we present the Self-driving Autonomous Machines for Protein Landscape Exploration (SAMPLE) platform for fully autonomous protein engineering. SAMPLE is driven by an intelligent agent that learns protein sequence-function relationships, designs new proteins and sends designs to a fully automated robotic system that experimentally tests the designed proteins and provides feedback to improve the agent's understanding of the system. We deploy four SAMPLE agents with the goal of engineering glycoside hydrolase enzymes with enhanced thermal tolerance. Despite showing individual differences in their search behavior, all four agents quickly converge on thermostable enzymes. Self-driving laboratories automate and accelerate the scientific discovery process and hold great potential for the fields of protein engineering and synthetic biology.
1
Although the agents used different search behaviors, all four quickly converged on thermostable enzyme variants.
2
Four independent SAMPLE agents were deployed to engineer glycoside hydrolases with enhanced thermal tolerance.
3
The SAMPLE platform enables fully autonomous protein engineering by integrating sequence-function learning, protein design, robotic experimentation, and iterative feedback.
4
The results demonstrate that self-driving laboratories can automate and accelerate protein discovery, with potential applications in protein engineering and synthetic biology.

glycoside hydrolase enzymes

enhanced thermal tolerance and the autonomous sequence–function-guided optimization of thermostability

Publication Details
Publication Date
2024-01-11
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Authors
Jacob Rapp
Bennett J. Bremer
Philip A. Romero
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