Restriction Enzymes in Microbiology, Biotechnology and Biochemistry

Since their discovery in the nineteen-seventies, a collection of simple enzymes termed Type II restriction endonucleases, made by microbes to ward off viral infections, have transformed molecular biology, spawned the multi-billion dollar Biotechnology industry, and yielded fundamental insights into...

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Main Authors: Geoffrey G. Wilson, Hua Wang, Daniel F. Heiter, Keith D. Lunnen
Format: Article
Language:Spanish
Published: Universidad Centroamericana de Managua 2012-12-01
Series:Encuentro
Subjects:
DNA
Online Access:http://encuentro.uca.edu.ni/images/stories/2013/pdf/93e/Restriction_Enzymes_in_Microbiology.pdf
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spelling doaj-8ec7cdd58ae7461a974baf090af0baa52020-11-24T20:44:56ZspaUniversidad Centroamericana de ManaguaEncuentro0424-96742220-71122012-12-01930130Restriction Enzymes in Microbiology, Biotechnology and Biochemistry Geoffrey G. WilsonHua WangDaniel F. HeiterKeith D. LunnenSince their discovery in the nineteen-seventies, a collection of simple enzymes termed Type II restriction endonucleases, made by microbes to ward off viral infections, have transformed molecular biology, spawned the multi-billion dollar Biotechnology industry, and yielded fundamental insights into the biochemistry of life, health and disease. In this article we describe how these enzymes were discovered, and we review their properties, organizations and genetics. We summarize current ideas about the mechanism underlying their remarkable ability to recognize and bind to specific base pair sequences in DNA, and we discuss why these ideas might not be correct. We conclude by proposing an alternative explanation for sequence-recognition that resolves certain inconsistencies and provides, in our view, a more satisfactory account of the mechanism.http://encuentro.uca.edu.ni/images/stories/2013/pdf/93e/Restriction_Enzymes_in_Microbiology.pdfDNAspecificityrecognitiondiscriminationrestrictionmodificationendonucleasemethyltransferaseX-ray crystallographymajor grooveminor groovehydrogen bondsteric clashelectrostatic attractionrepulsion.
collection DOAJ
language Spanish
format Article
sources DOAJ
author Geoffrey G. Wilson
Hua Wang
Daniel F. Heiter
Keith D. Lunnen
spellingShingle Geoffrey G. Wilson
Hua Wang
Daniel F. Heiter
Keith D. Lunnen
Restriction Enzymes in Microbiology, Biotechnology and Biochemistry
Encuentro
DNA
specificity
recognition
discrimination
restriction
modification
endonuclease
methyltransferase
X-ray crystallography
major groove
minor groove
hydrogen bond
steric clash
electrostatic attraction
repulsion.
author_facet Geoffrey G. Wilson
Hua Wang
Daniel F. Heiter
Keith D. Lunnen
author_sort Geoffrey G. Wilson
title Restriction Enzymes in Microbiology, Biotechnology and Biochemistry
title_short Restriction Enzymes in Microbiology, Biotechnology and Biochemistry
title_full Restriction Enzymes in Microbiology, Biotechnology and Biochemistry
title_fullStr Restriction Enzymes in Microbiology, Biotechnology and Biochemistry
title_full_unstemmed Restriction Enzymes in Microbiology, Biotechnology and Biochemistry
title_sort restriction enzymes in microbiology, biotechnology and biochemistry
publisher Universidad Centroamericana de Managua
series Encuentro
issn 0424-9674
2220-7112
publishDate 2012-12-01
description Since their discovery in the nineteen-seventies, a collection of simple enzymes termed Type II restriction endonucleases, made by microbes to ward off viral infections, have transformed molecular biology, spawned the multi-billion dollar Biotechnology industry, and yielded fundamental insights into the biochemistry of life, health and disease. In this article we describe how these enzymes were discovered, and we review their properties, organizations and genetics. We summarize current ideas about the mechanism underlying their remarkable ability to recognize and bind to specific base pair sequences in DNA, and we discuss why these ideas might not be correct. We conclude by proposing an alternative explanation for sequence-recognition that resolves certain inconsistencies and provides, in our view, a more satisfactory account of the mechanism.
topic DNA
specificity
recognition
discrimination
restriction
modification
endonuclease
methyltransferase
X-ray crystallography
major groove
minor groove
hydrogen bond
steric clash
electrostatic attraction
repulsion.
url http://encuentro.uca.edu.ni/images/stories/2013/pdf/93e/Restriction_Enzymes_in_Microbiology.pdf
work_keys_str_mv AT geoffreygwilson restrictionenzymesinmicrobiologybiotechnologyandbiochemistry
AT huawang restrictionenzymesinmicrobiologybiotechnologyandbiochemistry
AT danielfheiter restrictionenzymesinmicrobiologybiotechnologyandbiochemistry
AT keithdlunnen restrictionenzymesinmicrobiologybiotechnologyandbiochemistry
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