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An AI-powered cloud biofoundry for autonomous biological research

Chen, J.; Volk, M.; Shafaei, S.; Tan, S.-I.; Upadhyay, V.; Singh, N.; Zhong, X.; Arneson, K.; He, W.; Wang, C.; Lu, J.; Sharma, A.; McLaughlin, J.; Berry, M.; Harmon, S.; Reyes, S.; Heintz, G.; Zhao, H.

2026-10-01 synthetic biology
10.64898/2026.09.30.750244 bioRxiv
Show abstract

Autonomous experimentation, where an automated system designs, performs, analyzes, and iteratively improves experiments with minimal human intervention represents a transformative scientific research paradigm. However, it remains hampered by the disconnect between computational design and experimental execution. Here we present iCloudBiofoundry, a cloud-accessible, scalable, and self-evolving platform that bridges this divide. A scientific multi-agent system, iBioGenie, plans research workflows by converting natural language research objectives into testable hypotheses and experimentally grounded protocols using literature, databases, and computational tools. A physical AI layer, BiofoundryAI, translates them into executable workflows that run autonomously on distributed robotic biofoundries, and collects the data for iterative design. We demonstrate the end-to-end capabilities of iCloudBiofoundry across three representative case studies spanning enzyme retrieval, protein engineering, and metabolic engineering. By integrating agentic AI with physical AI, iCloudBiofoundry provides a cloud accessible platform that unifies computational design and robotic execution, enabling autonomous biological research.

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