Assembly of DNA Architectures in a Non-Aqueous Solution

In the present work, the procedures for the creation of self-assembled DNA nanostructures in aqueous and non-aqueous media are described. DNA-Surfactant complex formation renders the DNA soluble in organic solvents offering an exciting way to bridge the transition of DNA origami materials electronic...

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Main Authors: Thomas J. Proctor, Christina M. Jacob, Christopher M. Anton, Amethist S. Finch, Dimitra N. Stratis-Cullum
Format: Article
Language:English
Published: MDPI AG 2012-08-01
Series:Nanomaterials
Subjects:
DNA
Online Access:http://www.mdpi.com/2079-4991/2/3/275
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spelling doaj-39244b1462ae4105b24f3dcacdbdb3952020-11-24T22:51:57ZengMDPI AGNanomaterials2079-49912012-08-012327528510.3390/nano2030275Assembly of DNA Architectures in a Non-Aqueous SolutionThomas J. ProctorChristina M. JacobChristopher M. AntonAmethist S. FinchDimitra N. Stratis-CullumIn the present work, the procedures for the creation of self-assembled DNA nanostructures in aqueous and non-aqueous media are described. DNA-Surfactant complex formation renders the DNA soluble in organic solvents offering an exciting way to bridge the transition of DNA origami materials electronics applications. The DNA retains its structural features, and these unique geometries provide an interesting candidate for future electronics and nanofabrication applications with potential for new properties. The DNA architectures were first assembled under aqueous conditions, and then characterized in solution (using circular dichroism (CD) spectroscopy) and on the surface (using atomic force microscopy (AFM)). Following aqueous assembly, the DNA nanostructures were transitioned to a non-aqueous environment, where butanol was chosen for optical compatibility and thermal properties. The retention of DNA hierarchical structure and thermal stability in non-aqueous conditions were confirmed via CD spectroscopy. The formation and characterization of these higher order DNA-surfactant complexes is described in this paper.http://www.mdpi.com/2079-4991/2/3/275DNA nanostructuresbioelectronicsbiodirected assemblyCTACDNA
collection DOAJ
language English
format Article
sources DOAJ
author Thomas J. Proctor
Christina M. Jacob
Christopher M. Anton
Amethist S. Finch
Dimitra N. Stratis-Cullum
spellingShingle Thomas J. Proctor
Christina M. Jacob
Christopher M. Anton
Amethist S. Finch
Dimitra N. Stratis-Cullum
Assembly of DNA Architectures in a Non-Aqueous Solution
Nanomaterials
DNA nanostructures
bioelectronics
biodirected assembly
CTAC
DNA
author_facet Thomas J. Proctor
Christina M. Jacob
Christopher M. Anton
Amethist S. Finch
Dimitra N. Stratis-Cullum
author_sort Thomas J. Proctor
title Assembly of DNA Architectures in a Non-Aqueous Solution
title_short Assembly of DNA Architectures in a Non-Aqueous Solution
title_full Assembly of DNA Architectures in a Non-Aqueous Solution
title_fullStr Assembly of DNA Architectures in a Non-Aqueous Solution
title_full_unstemmed Assembly of DNA Architectures in a Non-Aqueous Solution
title_sort assembly of dna architectures in a non-aqueous solution
publisher MDPI AG
series Nanomaterials
issn 2079-4991
publishDate 2012-08-01
description In the present work, the procedures for the creation of self-assembled DNA nanostructures in aqueous and non-aqueous media are described. DNA-Surfactant complex formation renders the DNA soluble in organic solvents offering an exciting way to bridge the transition of DNA origami materials electronics applications. The DNA retains its structural features, and these unique geometries provide an interesting candidate for future electronics and nanofabrication applications with potential for new properties. The DNA architectures were first assembled under aqueous conditions, and then characterized in solution (using circular dichroism (CD) spectroscopy) and on the surface (using atomic force microscopy (AFM)). Following aqueous assembly, the DNA nanostructures were transitioned to a non-aqueous environment, where butanol was chosen for optical compatibility and thermal properties. The retention of DNA hierarchical structure and thermal stability in non-aqueous conditions were confirmed via CD spectroscopy. The formation and characterization of these higher order DNA-surfactant complexes is described in this paper.
topic DNA nanostructures
bioelectronics
biodirected assembly
CTAC
DNA
url http://www.mdpi.com/2079-4991/2/3/275
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