生物安全
核酸
核酸检测
计算生物学
蛋白质工程
计算机科学
生物技术
生物
工程类
核酸法
数据科学
蛋白质设计
基础研究
脆弱性(计算)
DNA微阵列
作者
Bruce J. Wittmann,Tessa Alexanian,Craig Bartling,Jacob Beal,Adam Clore,James Diggans,Kevin Flyangolts,Bryan T. Gemler,Tom Mitchell,Steven T. Murphy,Nicole E. Wheeler,Eric Horvitz
出处
期刊:Science
[American Association for the Advancement of Science]
日期:2025-10-02
卷期号:390 (6768): 82-87
被引量:31
标识
DOI:10.1126/science.adu8578
摘要
Advances in artificial intelligence (AI)-assisted protein engineering are enabling breakthroughs in the life sciences but also introduce new biosecurity challenges. Synthesis of nucleic acids is a choke point in AI-assisted protein engineering pipelines. Thus, an important focus for efforts to enhance biosecurity given AI-enabled capabilities is bolstering methods used by nucleic acid synthesis providers to screen orders. We evaluated the ability of open-source AI-powered protein design software to create variants of proteins of concern that could evade detection by the biosecurity screening tools used by nucleic acid synthesis providers, identifying a vulnerability where AI-redesigned sequences could not be detected reliably by current tools. In response, we developed and deployed patches, greatly improving detection rates of synthetic homologs more likely to retain wild type-like function.
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