Random Sanitization in DNA information storage using CRISPR-Cas12a

Hongyu Shen, Zhi Weng, Haipei Zhao, Haitao Song, Fei Wang, Chunhai Fan, Ping Song
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Abstract

DNA information storage provides an excellent solution for metadata storage due to its high density, programmability, and long-term stability. However, current research in DNA storage primarily focuses on the processes of storing and reading data, lacking comprehensive solutions for the secure metadata wiping. Herein, we present a method of random sanitization in DNA information storage using CRISPR-Cas12a (RSDISC) based on precise control of the thermodynamic energy of primer-template hybridization. We utilize the collateral cleavage (trans-activity) of single-stranded DNA (ssDNA) by CRISPR-Cas12a to achieve selective sanitization of files in metadata. This method enables ssDNA degradation with different GC content, lengths, and secondary structures to achieve a sanitization efficiency up to 99.9% for 28,258 oligonucleotides in DNA storage within one round. We demonstrate that the number of erasable files could reach 1011.7 based on a model of primer-template hybridization efficiency. Overall, RSDISC provides a random sanitization approach to set the foundation of information encryption, file classification, memory deallocation and accurate reading in DNA data storage.
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利用 CRISPR-Cas12a 对 DNA 信息存储进行随机消毒
DNA 信息存储因其高密度、可编程性和长期稳定性,为元数据存储提供了极佳的解决方案。然而,目前DNA存储的研究主要集中在存储和读取数据的过程,缺乏安全抹除元数据的全面解决方案。在此,我们提出了一种利用CRISPR-Cas12a(RSDISC)在DNA信息存储中进行随机清除的方法,该方法基于对引物-模板杂交热力学能量的精确控制。我们利用 CRISPR-Cas12a 对单链 DNA(ssDNA)的附带裂解(反式活性)来实现元数据中文件的选择性消毒。这种方法可以降解具有不同 GC 含量、长度和二级结构的 ssDNA,在一轮内对 DNA 存储中的 28,258 个寡核苷酸实现高达 99.9% 的消毒效率。根据引物-模板杂交效率模型,我们证明可擦除文件的数量可达 1011.7 个。总之,RSDISC 提供了一种随机清除方法,为 DNA 数据存储中的信息加密、文件分类、内存删除和精确读取奠定了基础。
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