Self-Organization of the Biological Evolution

We report here experiments carried out with nonpathogenic <i>Escherichia coli</i> bacterial strains and their phages. This research yielded interesting insights into their activities, occasionally producing genetic variants of different types. In order to not interfere with the genetic s...

Full description

Bibliographic Details
Main Author: Werner Arber
Format: Article
Language:English
Published: MDPI AG 2019-10-01
Series:Genes
Subjects:
Online Access:https://www.mdpi.com/2073-4425/10/11/854
id doaj-bb8d1bae8f4744b8ac85a62da23ebc35
record_format Article
spelling doaj-bb8d1bae8f4744b8ac85a62da23ebc352020-11-25T01:41:44ZengMDPI AGGenes2073-44252019-10-01101185410.3390/genes10110854genes10110854Self-Organization of the Biological EvolutionWerner Arber0Biozentrum, University of Basel, Klingelbergstrasse 70, CH-4056 Basel, SwitzerlandWe report here experiments carried out with nonpathogenic <i>Escherichia coli</i> bacterial strains and their phages. This research yielded interesting insights into their activities, occasionally producing genetic variants of different types. In order to not interfere with the genetic stability of the parental strains involved, we found that the bacteria are genetically equipped to only rarely produce a genetic variant, which may occur by a number of different approaches. On the one hand, the genes of relevance for the production of specific genetic variants are relatively rarely expressed. On the other hand, other gene products act as moderators of the frequencies that produce genetic variants. We call the genes producing genetic variants and those moderating the frequencies of genetic variation &#8220;evolution genes&#8221;. Their products are generally not required for daily bacterial life. We can, therefore, conclude that the bacterial genome has a duality. Some of the bacterial enzymes involved in biological evolution have become useful tools (e.g., restriction endonucleases) for molecular genetic research involving the genetic set-up of any living organism.https://www.mdpi.com/2073-4425/10/11/854genetic variantsnatural selection<i>e. coli</i> bacteriarestriction and modificationrestriction endonucleasesin vivo and in vitro horizontal gene transfergenetically modified organisms (gmos)point mutantsmobile genetic elementsevolution genesduality of the genomepermanent creationtree of evolution
collection DOAJ
language English
format Article
sources DOAJ
author Werner Arber
spellingShingle Werner Arber
Self-Organization of the Biological Evolution
Genes
genetic variants
natural selection
<i>e. coli</i> bacteria
restriction and modification
restriction endonucleases
in vivo and in vitro horizontal gene transfer
genetically modified organisms (gmos)
point mutants
mobile genetic elements
evolution genes
duality of the genome
permanent creation
tree of evolution
author_facet Werner Arber
author_sort Werner Arber
title Self-Organization of the Biological Evolution
title_short Self-Organization of the Biological Evolution
title_full Self-Organization of the Biological Evolution
title_fullStr Self-Organization of the Biological Evolution
title_full_unstemmed Self-Organization of the Biological Evolution
title_sort self-organization of the biological evolution
publisher MDPI AG
series Genes
issn 2073-4425
publishDate 2019-10-01
description We report here experiments carried out with nonpathogenic <i>Escherichia coli</i> bacterial strains and their phages. This research yielded interesting insights into their activities, occasionally producing genetic variants of different types. In order to not interfere with the genetic stability of the parental strains involved, we found that the bacteria are genetically equipped to only rarely produce a genetic variant, which may occur by a number of different approaches. On the one hand, the genes of relevance for the production of specific genetic variants are relatively rarely expressed. On the other hand, other gene products act as moderators of the frequencies that produce genetic variants. We call the genes producing genetic variants and those moderating the frequencies of genetic variation &#8220;evolution genes&#8221;. Their products are generally not required for daily bacterial life. We can, therefore, conclude that the bacterial genome has a duality. Some of the bacterial enzymes involved in biological evolution have become useful tools (e.g., restriction endonucleases) for molecular genetic research involving the genetic set-up of any living organism.
topic genetic variants
natural selection
<i>e. coli</i> bacteria
restriction and modification
restriction endonucleases
in vivo and in vitro horizontal gene transfer
genetically modified organisms (gmos)
point mutants
mobile genetic elements
evolution genes
duality of the genome
permanent creation
tree of evolution
url https://www.mdpi.com/2073-4425/10/11/854
work_keys_str_mv AT wernerarber selforganizationofthebiologicalevolution
_version_ 1725039896545984512