Electro-switchable addressing system for achieving repetitive random data access

Due to its high physical density and excellent durability, DNA data storage has become an attractive storage solution. Efficient and fast random access to the required storage data is a key element of any data storage system. Here, we present a method of using electrically driven DNA conformation to promote or inhibit T7 promoter transcription in order to random access DNA information. Electrical actuation provides physical addresses for accessing specific information without the need to design complex sequence address sets to expand the space of encoded sequences and increase theoretical storage density and capacity. At the same time, the T7 promoter transcribes DNA information in situ without damaging DNA, achieving multiple information reads with one write. In addition, the random access to the electrode array chip reveals the possibility of future compatibility with DNA synthesis, laying the foundation for future miniaturized storage integration.

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Publication Details

Journal
Nucleic Acids Research
Published
2025-07-19
DOI
https://doi.org/10.1093/nar/gkaf733
Primary Topic
DNA and Biological Computing
Type
article
Field-Weighted Citation Impact
0.00

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Electro-switchable addressing system for achieving repetitive random data access

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Electro-switchable addressing system for achieving repetitive random data access

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article en

Abstract

Due to its high physical density and excellent durability, DNA data storage has become an attractive storage solution. Efficient and fast random access to the required storage data is a key element of any data storage system. Here, we present a method of using electrically driven DNA conformation to promote or inhibit T7 promoter transcription in order to random access DNA information. Electrical actuation provides physical addresses for accessing specific information without the need to design complex sequence address sets to expand the space of encoded sequences and increase theoretical storage density and capacity. At the same time, the T7 promoter transcribes DNA information in situ without damaging DNA, achieving multiple information reads with one write. In addition, the random access to the electrode array chip reveals the possibility of future compatibility with DNA synthesis, laying the foundation for future miniaturized storage integration.

Nucleic Acids ResearchVol. 53(14)
Nanchang University (CN), Shenzhen University (CN), Southeast University (BD), First Affiliated Hospital of Jiangxi Medical College (CN), First Affiliated Hospital of Nanchang University (CN), Southeast University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 83%
DNA and Biological Computing
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