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Atomic-scale and close-to-atomic scale manufacturing, a frontier hot issue in international academic research, is a cutting-edge manufacturing technique in which atoms are directly used as the manipulation object and atomic-scale structures with specific functions are established to meet the requirements for mass productions. This review focuses on precise atomic-scale manufacturing technology of nucleic acid materials. Firstly, the basic structures and functions of nucleic acid materials are introduced, and the basic principles of the interaction between DNA and metal atoms are discussed. Then the development process and breakthrough progress of nucleic acid materials-mediated precise atomic-scale manufacturing are introduced from the aspects of natural nucleic acid materials, artificial base “molecular elements”, and nucleic acid nanostructures. Finally, the challenges and opportunities in this field are systematically summarized and some suggestions for future development are given.
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Keywords:
- atomic manufacturing /
- nucleic acid materials /
- metal atoms /
- precision assembly
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图 3 (a) T-Hg2+-T和C-Ag+-C结构示意图; (b) 顺铂与DNA相互作用形成的1, 2-链内加合物[18]; (c) 用于铂药物靶向递送的纳米抗体偶联DNA纳米平台示意图[34]
Fig. 3. (a) Illustration of T-Hg2+-T and C-Ag+-C complexes induced fluorescence quenching; (b) 1, 2-intrastrand adducts formed between cisplatin and DNA[18]; (c) illustration of a nanobody-conjugated DNA nanoplatform for targeted platinum drug delivery[34].
图 7 (a) 适体-Fen两亲分子的示意图以及在不同条件下的ApFAs的TEM图像[96]; (b) DOX/Sgc8-NFs-Fc的制备及其通过类芬顿反应在癌细胞中的自降解过程[97]
Fig. 7. (a) Schematic of aptamer-Fen amphiphilic molecules and TEM images of ApFAs at different conditions[96]; (b) preparation of DOX/Sgc8-NFs-Fc and its autodegradation process in cancer cells through Fenton-like reaction[97].
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Fang F 2020 Chinese Mech. Eng. 31 1009Google Scholar
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Li M, Li Q, Zhang J 2016 J. Terahertz Sci. Electron. Inf. Technol. 14 793Google Scholar
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