Replication of DNA Tetrahedron and Higher-order Self-assembly of DNA Origami

abstract: Deoxyribonucleic acid (DNA) has been treated as excellent building material for nanoscale construction because of its unique structural features. Its ability to self-assemble into predictable and addressable nanostructures distinguishes it from other materials. A large variety of DNA nanos...

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Bibliographic Details
Other Authors: Li, Zhe (Author)
Format: Doctoral Thesis
Language:English
Published: 2012
Subjects:
Online Access:http://hdl.handle.net/2286/R.I.14592
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spelling ndltd-asu.edu-item-145922018-06-22T03:02:35Z Replication of DNA Tetrahedron and Higher-order Self-assembly of DNA Origami abstract: Deoxyribonucleic acid (DNA) has been treated as excellent building material for nanoscale construction because of its unique structural features. Its ability to self-assemble into predictable and addressable nanostructures distinguishes it from other materials. A large variety of DNA nanostructures have been constructed, providing scaffolds with nanometer precision to organize functional molecules. This dissertation focuses on developing biologically replicating DNA nanostructures to explore their biocompatibility for potential functions in cells, as well as studying the molecular behaviors of DNA origami tiles in higher-order self-assembly for constructing DNA nanostructures with large size and complexity. Presented here are a series of studies towards this goal. First, a single-stranded DNA tetrahedron was constructed and replicated in vivo with high efficiency and fidelity. This study indicated the compatibility between DNA nanostructures and biological systems, and suggested a feasible low-coast method to scale up the preparation of synthetic DNA. Next, the higher-order self-assembly of DNA origami tiles was systematically studied. It was demonstrated that the dimensional aspect ratio of origami tiles as well as the intertile connection design were essential in determining the assembled superstructures. Finally, the effects of DNA hairpin loops on the conformations of origami tiles as well as the higher-order assembled structures were demonstrated. The results would benefit the design and construction of large complex nanostructures. Dissertation/Thesis Li, Zhe (Author) Yan, Hao (Advisor) Liu, Yan (Advisor) Seo, Dong-Kyun (Committee member) Wachter, Rebekka (Committee member) Arizona State University (Publisher) Nanotechnology DNA self-assembly eng 210 pages Ph.D. Biochemistry 2012 Doctoral Dissertation http://hdl.handle.net/2286/R.I.14592 http://rightsstatements.org/vocab/InC/1.0/ All Rights Reserved 2012
collection NDLTD
language English
format Doctoral Thesis
sources NDLTD
topic Nanotechnology
DNA self-assembly
spellingShingle Nanotechnology
DNA self-assembly
Replication of DNA Tetrahedron and Higher-order Self-assembly of DNA Origami
description abstract: Deoxyribonucleic acid (DNA) has been treated as excellent building material for nanoscale construction because of its unique structural features. Its ability to self-assemble into predictable and addressable nanostructures distinguishes it from other materials. A large variety of DNA nanostructures have been constructed, providing scaffolds with nanometer precision to organize functional molecules. This dissertation focuses on developing biologically replicating DNA nanostructures to explore their biocompatibility for potential functions in cells, as well as studying the molecular behaviors of DNA origami tiles in higher-order self-assembly for constructing DNA nanostructures with large size and complexity. Presented here are a series of studies towards this goal. First, a single-stranded DNA tetrahedron was constructed and replicated in vivo with high efficiency and fidelity. This study indicated the compatibility between DNA nanostructures and biological systems, and suggested a feasible low-coast method to scale up the preparation of synthetic DNA. Next, the higher-order self-assembly of DNA origami tiles was systematically studied. It was demonstrated that the dimensional aspect ratio of origami tiles as well as the intertile connection design were essential in determining the assembled superstructures. Finally, the effects of DNA hairpin loops on the conformations of origami tiles as well as the higher-order assembled structures were demonstrated. The results would benefit the design and construction of large complex nanostructures. === Dissertation/Thesis === Ph.D. Biochemistry 2012
author2 Li, Zhe (Author)
author_facet Li, Zhe (Author)
title Replication of DNA Tetrahedron and Higher-order Self-assembly of DNA Origami
title_short Replication of DNA Tetrahedron and Higher-order Self-assembly of DNA Origami
title_full Replication of DNA Tetrahedron and Higher-order Self-assembly of DNA Origami
title_fullStr Replication of DNA Tetrahedron and Higher-order Self-assembly of DNA Origami
title_full_unstemmed Replication of DNA Tetrahedron and Higher-order Self-assembly of DNA Origami
title_sort replication of dna tetrahedron and higher-order self-assembly of dna origami
publishDate 2012
url http://hdl.handle.net/2286/R.I.14592
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