构建一种新型噬菌体以生产定制DNA折纸支架

IF 3.2 4区 生物学 Q1 Agricultural and Biological Sciences Synthetic Biology Pub Date : 2018-04-27 DOI:10.1101/309682
Parsa M. Nafisi, Tural Aksel, Shawn M. Douglas
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引用次数: 36

摘要

DNA折纸是一种构建纳米级物体的方法,它依靠一条长单链DNA作为“支架”,将许多短DNA寡核苷酸“订书钉”组装成模板。产生定制支架序列的能力可以极大地有利于DNA折纸设计过程。定制支架序列可以更好地控制最终对象的整体尺寸,更好地控制底层结构细节,例如对象内特定碱基对的位置。丝状噬菌体和相关的噬菌体可以很好地作为定制支架DNA的来源。然而,来自噬菌体的支架需要包含多千碱基DNA序列才能在宿主细菌中生长,因此不能被改变或移除。这些固定序列区域限制了DNA折纸设计的可能性。在这里,我们报道了一种新的噬菌体pScaf的构建,以产生具有定制序列的支架,其固定区域更小,只有381个碱基。我们使用pScaf生成新的支架,其大小从1,512到10,080个碱基不等,并演示了它们在各种DNA折纸形状和组装中的使用。我们期望我们的pScaf噬菌体将促进DNA折纸方法的发展及其未来的应用。
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Construction of a novel phagemid to produce custom DNA origami scaffolds
DNA origami, a method for constructing nanoscale objects, relies on a long single strand of DNA to act as the “scaffold” to template assembly of numerous short DNA oligonucleotide “staples”. The ability to generate custom scaffold sequences can greatly benefit DNA origami design processes. Custom scaffold sequences can provide better control of the overall size of the final object and better control of low-level structural details, such as locations of specific base pairs within an object. Filamentous bacteriophages and related phagemids can work well as sources of custom scaffold DNA. However, scaffolds derived from phages require inclusion of multi-kilobase DNA sequences in order to grow in host bacteria, and thus cannot be altered or removed. These fixed-sequence regions constrain the design possibilities of DNA origami. Here we report the construction of a novel phagemid, pScaf, to produce scaffolds that have a custom sequence with a much smaller fixed region of only 381 bases. We used pScaf to generate new scaffolds ranging in size from 1,512 to 10,080 bases and demonstrated their use in various DNA origami shapes and assemblies. We anticipate our pScaf phagemid will enhance development of the DNA origami method and its future applications.
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来源期刊
Synthetic Biology
Synthetic Biology Agricultural and Biological Sciences-Agricultural and Biological Sciences (miscellaneous)
CiteScore
4.50
自引率
3.10%
发文量
28
审稿时长
25 weeks
期刊最新文献
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