Sugar Beet Improvement using Agrobacterium-mediated Transformation technology

Since discovering Agrobacterium tumefaciens distinctive capacity to incorporate a specified part of their transfer-DNA (T-DNA) into eukaryotic cells, the bacteria were commonly used for crop transformation originally of dicotyledonous crops and subsequently of nearly all organisms. To achieve this,...

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Main Authors: Abo-Bakr A. Youssef, Wessam M. Rslan
Format: Article
Language:English
Published: International Library of Sciences 2018-11-01
Series:Highlights in BioScience
Subjects:
Online Access:http://highlightsin.org/index.php/bioscience/article/view/5
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author Abo-Bakr A. Youssef
Wessam M. Rslan
author_facet Abo-Bakr A. Youssef
Wessam M. Rslan
author_sort Abo-Bakr A. Youssef
collection DOAJ
description Since discovering Agrobacterium tumefaciens distinctive capacity to incorporate a specified part of their transfer-DNA (T-DNA) into eukaryotic cells, the bacteria were commonly used for crop transformation originally of dicotyledonous crops and subsequently of nearly all organisms. To achieve this, the tumor-inducing (Ti) plasmid was changed to extract phytohormone and opine biosynthetic proteins (cytokinin and auxin) so as not to interfere with ordinary morphological growth. Overall, the conversion mediated by Agrobacterium was easier, more effective and less costly relative to other technologies. It also results in insertions with small copy count. Tumor development in crops has also proved the susceptibility of explants from field-grown sugar beet crops to Agrobacterium tumefaciens. Early efforts by Agrobacterium tumefaciens to transform sugar beet were unsuccessful, primarily owing to an inability to regenerate crops from stably modified callus or suspended cells. A genotype-independent method as defined under which cotyledonary explants of various sugar beet genotypes are inoculated with Agrobacterium tumefaciens comprising whether kanamycin tolerance and GUS activity or kanamycin resistance, GUS activity and glyphosate tolerance. GUS expression, NPT dot blot as well as EPSPS assays verified the presence of transgenes; progeny showed Mendelian genetically modified inheritance and glyphosate tolerance at deadly concentrations to control plants. Unfortunately, there was no publication of technical information about the technique. Here we reviewed the concept Agrobacterium-mediated transformation and how to be applicable
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spelling doaj.art-737cf293131644d894530d3646594f112022-12-22T04:25:53ZengInternational Library of SciencesHighlights in BioScience2682-40432018-11-01101510.36462/H.BioSci.201834Sugar Beet Improvement using Agrobacterium-mediated Transformation technologyAbo-Bakr A. Youssef0Wessam M. Rslan1Agricultural Genetic Engineering Research Institute; Agricultural Research CenterAgricultural Genetic Engineering Research Institute; Agricultural Research CenterSince discovering Agrobacterium tumefaciens distinctive capacity to incorporate a specified part of their transfer-DNA (T-DNA) into eukaryotic cells, the bacteria were commonly used for crop transformation originally of dicotyledonous crops and subsequently of nearly all organisms. To achieve this, the tumor-inducing (Ti) plasmid was changed to extract phytohormone and opine biosynthetic proteins (cytokinin and auxin) so as not to interfere with ordinary morphological growth. Overall, the conversion mediated by Agrobacterium was easier, more effective and less costly relative to other technologies. It also results in insertions with small copy count. Tumor development in crops has also proved the susceptibility of explants from field-grown sugar beet crops to Agrobacterium tumefaciens. Early efforts by Agrobacterium tumefaciens to transform sugar beet were unsuccessful, primarily owing to an inability to regenerate crops from stably modified callus or suspended cells. A genotype-independent method as defined under which cotyledonary explants of various sugar beet genotypes are inoculated with Agrobacterium tumefaciens comprising whether kanamycin tolerance and GUS activity or kanamycin resistance, GUS activity and glyphosate tolerance. GUS expression, NPT dot blot as well as EPSPS assays verified the presence of transgenes; progeny showed Mendelian genetically modified inheritance and glyphosate tolerance at deadly concentrations to control plants. Unfortunately, there was no publication of technical information about the technique. Here we reviewed the concept Agrobacterium-mediated transformation and how to be applicablehttp://highlightsin.org/index.php/bioscience/article/view/5agrobacterium tumefacienscallussuspended cellssugar beetkanamycin resistance
spellingShingle Abo-Bakr A. Youssef
Wessam M. Rslan
Sugar Beet Improvement using Agrobacterium-mediated Transformation technology
Highlights in BioScience
agrobacterium tumefaciens
callus
suspended cells
sugar beet
kanamycin resistance
title Sugar Beet Improvement using Agrobacterium-mediated Transformation technology
title_full Sugar Beet Improvement using Agrobacterium-mediated Transformation technology
title_fullStr Sugar Beet Improvement using Agrobacterium-mediated Transformation technology
title_full_unstemmed Sugar Beet Improvement using Agrobacterium-mediated Transformation technology
title_short Sugar Beet Improvement using Agrobacterium-mediated Transformation technology
title_sort sugar beet improvement using agrobacterium mediated transformation technology
topic agrobacterium tumefaciens
callus
suspended cells
sugar beet
kanamycin resistance
url http://highlightsin.org/index.php/bioscience/article/view/5
work_keys_str_mv AT abobakrayoussef sugarbeetimprovementusingagrobacteriummediatedtransformationtechnology
AT wessammrslan sugarbeetimprovementusingagrobacteriummediatedtransformationtechnology