DNA display III. Solid-phase organic synthesis on unprotected DNA.

DNA-directed synthesis represents a powerful new tool for molecular discovery. Its ultimate utility, however, hinges upon the diversity of chemical reactions that can be executed in the presence of unprotected DNA. We present a solid-phase reaction format that makes possible the use of standard orga...

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Main Authors: David R Halpin, Juanghae A Lee, S Jarrett Wrenn, Pehr B Harbury
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2004-07-01
Series:PLoS Biology
Online Access:http://europepmc.org/articles/PMC434150?pdf=render
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spelling doaj-757b9934d7b44cd497ebbb11786bfa8c2021-07-02T13:01:06ZengPublic Library of Science (PLoS)PLoS Biology1544-91731545-78852004-07-0127E17510.1371/journal.pbio.0020175DNA display III. Solid-phase organic synthesis on unprotected DNA.David R HalpinJuanghae A LeeS Jarrett WrennPehr B HarburyDNA-directed synthesis represents a powerful new tool for molecular discovery. Its ultimate utility, however, hinges upon the diversity of chemical reactions that can be executed in the presence of unprotected DNA. We present a solid-phase reaction format that makes possible the use of standard organic reaction conditions and common reagents to facilitate chemical transformations on unprotected DNA supports. We demonstrate the feasibility of this strategy by comprehensively adapting solid-phase 9-fluorenylmethyoxycarbonyl-based peptide synthesis to be DNA-compatible, and we describe a set of tools for the adaptation of other chemistries. Efficient peptide coupling to DNA was observed for all 33 amino acids tested, and polypeptides as long as 12 amino acids were synthesized on DNA supports. Beyond the direct implications for synthesis of peptide-DNA conjugates, the methods described offer a general strategy for organic synthesis on unprotected DNA. Their employment can facilitate the generation of chemically diverse DNA-encoded molecular populations amenable to in vitro evolution and genetic manipulation.http://europepmc.org/articles/PMC434150?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author David R Halpin
Juanghae A Lee
S Jarrett Wrenn
Pehr B Harbury
spellingShingle David R Halpin
Juanghae A Lee
S Jarrett Wrenn
Pehr B Harbury
DNA display III. Solid-phase organic synthesis on unprotected DNA.
PLoS Biology
author_facet David R Halpin
Juanghae A Lee
S Jarrett Wrenn
Pehr B Harbury
author_sort David R Halpin
title DNA display III. Solid-phase organic synthesis on unprotected DNA.
title_short DNA display III. Solid-phase organic synthesis on unprotected DNA.
title_full DNA display III. Solid-phase organic synthesis on unprotected DNA.
title_fullStr DNA display III. Solid-phase organic synthesis on unprotected DNA.
title_full_unstemmed DNA display III. Solid-phase organic synthesis on unprotected DNA.
title_sort dna display iii. solid-phase organic synthesis on unprotected dna.
publisher Public Library of Science (PLoS)
series PLoS Biology
issn 1544-9173
1545-7885
publishDate 2004-07-01
description DNA-directed synthesis represents a powerful new tool for molecular discovery. Its ultimate utility, however, hinges upon the diversity of chemical reactions that can be executed in the presence of unprotected DNA. We present a solid-phase reaction format that makes possible the use of standard organic reaction conditions and common reagents to facilitate chemical transformations on unprotected DNA supports. We demonstrate the feasibility of this strategy by comprehensively adapting solid-phase 9-fluorenylmethyoxycarbonyl-based peptide synthesis to be DNA-compatible, and we describe a set of tools for the adaptation of other chemistries. Efficient peptide coupling to DNA was observed for all 33 amino acids tested, and polypeptides as long as 12 amino acids were synthesized on DNA supports. Beyond the direct implications for synthesis of peptide-DNA conjugates, the methods described offer a general strategy for organic synthesis on unprotected DNA. Their employment can facilitate the generation of chemically diverse DNA-encoded molecular populations amenable to in vitro evolution and genetic manipulation.
url http://europepmc.org/articles/PMC434150?pdf=render
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