NMR structural analysis of Sleeping Beauty transposase binding to DNA

The Sleeping Beauty (SB) transposon is the most widely used DNA transposon in genetic applications and is the only DNA transposon thus far in clinical trials for human gene therapy. In the absence of atomic level structural information, the development of SB transposon relied primarily on the bioche...

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Veröffentlicht in:Protein science 2014-01, Vol.23 (1), p.23-33
Hauptverfasser: Carpentier, Claire E., Schreifels, Jeffrey M., Aronovich, Elena L., Carlson, Daniel F., Hackett, Perry B., Nesmelova, Irina V.
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container_end_page 33
container_issue 1
container_start_page 23
container_title Protein science
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creator Carpentier, Claire E.
Schreifels, Jeffrey M.
Aronovich, Elena L.
Carlson, Daniel F.
Hackett, Perry B.
Nesmelova, Irina V.
description The Sleeping Beauty (SB) transposon is the most widely used DNA transposon in genetic applications and is the only DNA transposon thus far in clinical trials for human gene therapy. In the absence of atomic level structural information, the development of SB transposon relied primarily on the biochemical and genetic homology data. While these studies were successful and have yielded hyperactive transposases, structural information is needed to gain a mechanistic understanding of transposase activity and guides to further improvement. We have initiated a structural study of SB transposase using Nuclear Magnetic Resonance (NMR) and Circular Dichroism (CD) spectroscopy to investigate the properties of the DNA‐binding domain of SB transposase in solution. We show that at physiologic salt concentrations, the SB DNA‐binding domain remains mostly unstructured but its N‐terminal PAI subdomain forms a compact, three‐helical structure with a helix‐turn‐helix motif at higher concentrations of NaCl. Furthermore, we show that the full‐length SB DNA‐binding domain associates differently with inner and outer binding sites of the transposon DNA. We also show that the PAI subdomain of SB DNA‐binding domain has a dominant role in transposase's attachment to the inverted terminal repeats of the transposon DNA. Overall, our data validate several earlier predictions and provide new insights on how SB transposase recognizes transposon DNA. PDB Code(s): 2m8e
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In the absence of atomic level structural information, the development of SB transposon relied primarily on the biochemical and genetic homology data. While these studies were successful and have yielded hyperactive transposases, structural information is needed to gain a mechanistic understanding of transposase activity and guides to further improvement. We have initiated a structural study of SB transposase using Nuclear Magnetic Resonance (NMR) and Circular Dichroism (CD) spectroscopy to investigate the properties of the DNA‐binding domain of SB transposase in solution. We show that at physiologic salt concentrations, the SB DNA‐binding domain remains mostly unstructured but its N‐terminal PAI subdomain forms a compact, three‐helical structure with a helix‐turn‐helix motif at higher concentrations of NaCl. Furthermore, we show that the full‐length SB DNA‐binding domain associates differently with inner and outer binding sites of the transposon DNA. We also show that the PAI subdomain of SB DNA‐binding domain has a dominant role in transposase's attachment to the inverted terminal repeats of the transposon DNA. Overall, our data validate several earlier predictions and provide new insights on how SB transposase recognizes transposon DNA. 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In the absence of atomic level structural information, the development of SB transposon relied primarily on the biochemical and genetic homology data. While these studies were successful and have yielded hyperactive transposases, structural information is needed to gain a mechanistic understanding of transposase activity and guides to further improvement. We have initiated a structural study of SB transposase using Nuclear Magnetic Resonance (NMR) and Circular Dichroism (CD) spectroscopy to investigate the properties of the DNA‐binding domain of SB transposase in solution. We show that at physiologic salt concentrations, the SB DNA‐binding domain remains mostly unstructured but its N‐terminal PAI subdomain forms a compact, three‐helical structure with a helix‐turn‐helix motif at higher concentrations of NaCl. Furthermore, we show that the full‐length SB DNA‐binding domain associates differently with inner and outer binding sites of the transposon DNA. We also show that the PAI subdomain of SB DNA‐binding domain has a dominant role in transposase's attachment to the inverted terminal repeats of the transposon DNA. Overall, our data validate several earlier predictions and provide new insights on how SB transposase recognizes transposon DNA. 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We also show that the PAI subdomain of SB DNA‐binding domain has a dominant role in transposase's attachment to the inverted terminal repeats of the transposon DNA. Overall, our data validate several earlier predictions and provide new insights on how SB transposase recognizes transposon DNA. PDB Code(s): 2m8e</abstract><cop>United States</cop><pub>Wiley Subscription Services, Inc</pub><pmid>24243759</pmid><doi>10.1002/pro.2386</doi><tpages>11</tpages><oa>free_for_read</oa></addata></record>
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source Wiley-Blackwell Journals; PubMed Central Free; MEDLINE; Wiley Free Archive; Free Full-Text Journals in Chemistry; EZB Electronic Journals Library
subjects Animals
Bacteriology
Binding Sites
Circular Dichroism
Circular Dichroism spectroscopy
Clinical trials
Deoxyribonucleic acid
Dichroism
DNA
DNA binding
DNA Transposable Elements
DNA transposon
Gene therapy
Homology
Humans
Medical research
Models, Molecular
NMR
NMR spectroscopy
Nuclear magnetic resonance
Nuclear Magnetic Resonance, Biomolecular
paired domain
Protein Conformation
Protein Structure, Secondary
Protein Structure, Tertiary
Sleeping Beauty transposase
Sodium chloride
Sodium Chloride - metabolism
Spectroscopy
Structural analysis
Transposase
Transposases - chemistry
Transposases - metabolism
Transposons
title NMR structural analysis of Sleeping Beauty transposase binding to DNA
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