How to assemble in water without really bonding : aromatic-donor acceptor interactions in foldamers, DNA intercalation and "pi-stacking"

Non-covalent interactions are of great interest to chemists and biologists who study the molecular structure and function of biological systems, as well as those who seek to control, undo, or improve upon the efficiency of these systems with man-made chemical tools. The Iverson group has specifical...

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Main Author: Martinez, Chelsea RamEl
Format: Others
Language:English
Published: 2012
Subjects:
Online Access:http://hdl.handle.net/2152/ETD-UT-2011-12-4683
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spelling ndltd-UTEXAS-oai-repositories.lib.utexas.edu-2152-ETD-UT-2011-12-46832015-09-20T17:05:43ZHow to assemble in water without really bonding : aromatic-donor acceptor interactions in foldamers, DNA intercalation and "pi-stacking"Martinez, Chelsea RamElFoldamersDonor-acceptor interactionsIntercalationDNA bindingPi-stackingNon-covalent interactions are of great interest to chemists and biologists who study the molecular structure and function of biological systems, as well as those who seek to control, undo, or improve upon the efficiency of these systems with man-made chemical tools. The Iverson group has specifically applied noncovalent aromatic donor-acceptor interactions to biotic and abiotic aqueous systems through the use of the electron-rich 1,5-dialkoxynaphthalene (DAN) and electron-deficient 1,4,5,8-naphthalenetetracarboxylic diimide (NDI) moieties. Chapter 1 introduces and reviews the current state of self-assembly research, especially work conducted in aqueous media. Chapter 2 delineates the design and synthesis of a molecule that can self-assemble and form disulfide bonds, with the goal of creating higher-order structure. Chapter 3 comprises the design and synthesis of a series of pendant-NDI bisintercalators of DNA that are distinct from the backbone-incorporated intercalators previously employed in our laboratory. Chapter 4 contextualizes the term of art “pi-stacking,” reviewing the current state of knowledge of specific contributions to this effect and commenting on the putative uniqueness of the interaction. Theoretical and experimental work in the field is summarized. The work discussed in this dissertation serves to expand the scope of programmability of our DNA intercalators, to probe the higher-order assembly behavior of our donor-acceptor pair, and to clarify the term “pi-stacking,” lately overused, that imperfectly describes the interaction that gives both these systems their compelling binding properties.text2012-02-21T20:15:52Z2012-02-21T20:15:52Z2011-122012-02-21December 20112012-02-21T20:16:38Zthesisapplication/pdfhttp://hdl.handle.net/2152/ETD-UT-2011-12-46832152/ETD-UT-2011-12-4683eng
collection NDLTD
language English
format Others
sources NDLTD
topic Foldamers
Donor-acceptor interactions
Intercalation
DNA binding
Pi-stacking
spellingShingle Foldamers
Donor-acceptor interactions
Intercalation
DNA binding
Pi-stacking
Martinez, Chelsea RamEl
How to assemble in water without really bonding : aromatic-donor acceptor interactions in foldamers, DNA intercalation and "pi-stacking"
description Non-covalent interactions are of great interest to chemists and biologists who study the molecular structure and function of biological systems, as well as those who seek to control, undo, or improve upon the efficiency of these systems with man-made chemical tools. The Iverson group has specifically applied noncovalent aromatic donor-acceptor interactions to biotic and abiotic aqueous systems through the use of the electron-rich 1,5-dialkoxynaphthalene (DAN) and electron-deficient 1,4,5,8-naphthalenetetracarboxylic diimide (NDI) moieties. Chapter 1 introduces and reviews the current state of self-assembly research, especially work conducted in aqueous media. Chapter 2 delineates the design and synthesis of a molecule that can self-assemble and form disulfide bonds, with the goal of creating higher-order structure. Chapter 3 comprises the design and synthesis of a series of pendant-NDI bisintercalators of DNA that are distinct from the backbone-incorporated intercalators previously employed in our laboratory. Chapter 4 contextualizes the term of art “pi-stacking,” reviewing the current state of knowledge of specific contributions to this effect and commenting on the putative uniqueness of the interaction. Theoretical and experimental work in the field is summarized. The work discussed in this dissertation serves to expand the scope of programmability of our DNA intercalators, to probe the higher-order assembly behavior of our donor-acceptor pair, and to clarify the term “pi-stacking,” lately overused, that imperfectly describes the interaction that gives both these systems their compelling binding properties. === text
author Martinez, Chelsea RamEl
author_facet Martinez, Chelsea RamEl
author_sort Martinez, Chelsea RamEl
title How to assemble in water without really bonding : aromatic-donor acceptor interactions in foldamers, DNA intercalation and "pi-stacking"
title_short How to assemble in water without really bonding : aromatic-donor acceptor interactions in foldamers, DNA intercalation and "pi-stacking"
title_full How to assemble in water without really bonding : aromatic-donor acceptor interactions in foldamers, DNA intercalation and "pi-stacking"
title_fullStr How to assemble in water without really bonding : aromatic-donor acceptor interactions in foldamers, DNA intercalation and "pi-stacking"
title_full_unstemmed How to assemble in water without really bonding : aromatic-donor acceptor interactions in foldamers, DNA intercalation and "pi-stacking"
title_sort how to assemble in water without really bonding : aromatic-donor acceptor interactions in foldamers, dna intercalation and "pi-stacking"
publishDate 2012
url http://hdl.handle.net/2152/ETD-UT-2011-12-4683
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