Hybrid transcription system for controlled plastid transgene expression

Summary Plastid transformation technologies have developed rapidly over the last few years, reflecting their value in the study of the principal mechanisms of plastid gene expression and commercial interest in using plastids as bioreactors. Application of this technology is still limited by the diff...

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Veröffentlicht in:The Plant journal : for cell and molecular biology 2006-05, Vol.46 (4), p.700-707
Hauptverfasser: Buhot, Laurence, Horvàth, Eva, Medgyesy, Peter, Lerbs‐Mache, Silva
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Horvàth, Eva
Medgyesy, Peter
Lerbs‐Mache, Silva
description Summary Plastid transformation technologies have developed rapidly over the last few years, reflecting their value in the study of the principal mechanisms of plastid gene expression and commercial interest in using plastids as bioreactors. Application of this technology is still limited by the difficulty of obtaining regulated, selective expression of plastid transgenes. The plastid genome is transcribed by two different types of RNA polymerase. One of them is of the eubacterial type of polymerase, and its subunits are encoded in the plastid genome [plastid‐encoded RNA polymerase (PEP)]. The other one is of the phage type and nucleus‐encoded [nucleus‐encoded RNA polymerase (NEP)]. To obtain selective transgene expression, we have made use of the similarities and differences between the eubacterial and the plastid eubacterial type transcription systems. We created a hybrid transcription system in which the transgene is placed under the control of a eubacterial promoter which does not exist in the plastid genome and which is not recognized by the plastid endogenous transcriptional machinery. Selective transcription of the transgene is achieved by the supply of a chimeric transcription factor that interacts with PEP and directs it specifically to the foreign eubacterial‐type transgene promoter. This hybrid transcription system could be used for biotechnological and fundamental research applications as well as in the characterization of the evolutionary differences between the eubacterial and the plastid eubacterial‐type transcription systems.
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Application of this technology is still limited by the difficulty of obtaining regulated, selective expression of plastid transgenes. The plastid genome is transcribed by two different types of RNA polymerase. One of them is of the eubacterial type of polymerase, and its subunits are encoded in the plastid genome [plastid‐encoded RNA polymerase (PEP)]. The other one is of the phage type and nucleus‐encoded [nucleus‐encoded RNA polymerase (NEP)]. To obtain selective transgene expression, we have made use of the similarities and differences between the eubacterial and the plastid eubacterial type transcription systems. We created a hybrid transcription system in which the transgene is placed under the control of a eubacterial promoter which does not exist in the plastid genome and which is not recognized by the plastid endogenous transcriptional machinery. Selective transcription of the transgene is achieved by the supply of a chimeric transcription factor that interacts with PEP and directs it specifically to the foreign eubacterial‐type transgene promoter. This hybrid transcription system could be used for biotechnological and fundamental research applications as well as in the characterization of the evolutionary differences between the eubacterial and the plastid eubacterial‐type transcription systems.</description><subject>Biochemistry, Molecular Biology</subject><subject>Biological and medical sciences</subject><subject>DNA-Directed RNA Polymerases - physiology</subject><subject>Fundamental and applied biological sciences. Psychology</subject><subject>Gene Expression Regulation</subject><subject>Life Sciences</subject><subject>Molecular and cellular biology</subject><subject>Molecular genetics</subject><subject>Nicotiana - genetics</subject><subject>Nicotiana - ultrastructure</subject><subject>Plants, Genetically Modified - genetics</subject><subject>Plants, Genetically Modified - metabolism</subject><subject>Plants, Genetically Modified - ultrastructure</subject><subject>plastid</subject><subject>Plastids - genetics</subject><subject>Plastids - metabolism</subject><subject>Plastids - ultrastructure</subject><subject>Recombinant Fusion Proteins - metabolism</subject><subject>regulated transgene expression</subject><subject>sigma factor</subject><subject>Sigma Factor - genetics</subject><subject>Sigma Factor - physiology</subject><subject>transcription</subject><subject>Transcription Factors - physiology</subject><subject>Transcription, Genetic</subject><subject>Transcription. Transcription factor. 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Psychology</topic><topic>Gene Expression Regulation</topic><topic>Life Sciences</topic><topic>Molecular and cellular biology</topic><topic>Molecular genetics</topic><topic>Nicotiana - genetics</topic><topic>Nicotiana - ultrastructure</topic><topic>Plants, Genetically Modified - genetics</topic><topic>Plants, Genetically Modified - metabolism</topic><topic>Plants, Genetically Modified - ultrastructure</topic><topic>plastid</topic><topic>Plastids - genetics</topic><topic>Plastids - metabolism</topic><topic>Plastids - ultrastructure</topic><topic>Recombinant Fusion Proteins - metabolism</topic><topic>regulated transgene expression</topic><topic>sigma factor</topic><topic>Sigma Factor - genetics</topic><topic>Sigma Factor - physiology</topic><topic>transcription</topic><topic>Transcription Factors - physiology</topic><topic>Transcription, Genetic</topic><topic>Transcription. Transcription factor. Splicing. 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Application of this technology is still limited by the difficulty of obtaining regulated, selective expression of plastid transgenes. The plastid genome is transcribed by two different types of RNA polymerase. One of them is of the eubacterial type of polymerase, and its subunits are encoded in the plastid genome [plastid‐encoded RNA polymerase (PEP)]. The other one is of the phage type and nucleus‐encoded [nucleus‐encoded RNA polymerase (NEP)]. To obtain selective transgene expression, we have made use of the similarities and differences between the eubacterial and the plastid eubacterial type transcription systems. We created a hybrid transcription system in which the transgene is placed under the control of a eubacterial promoter which does not exist in the plastid genome and which is not recognized by the plastid endogenous transcriptional machinery. Selective transcription of the transgene is achieved by the supply of a chimeric transcription factor that interacts with PEP and directs it specifically to the foreign eubacterial‐type transgene promoter. This hybrid transcription system could be used for biotechnological and fundamental research applications as well as in the characterization of the evolutionary differences between the eubacterial and the plastid eubacterial‐type transcription systems.</abstract><cop>Oxford, UK</cop><pub>Blackwell Publishing Ltd</pub><pmid>16640605</pmid><doi>10.1111/j.1365-313X.2006.02718.x</doi><tpages>8</tpages></addata></record>
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subjects Biochemistry, Molecular Biology
Biological and medical sciences
DNA-Directed RNA Polymerases - physiology
Fundamental and applied biological sciences. Psychology
Gene Expression Regulation
Life Sciences
Molecular and cellular biology
Molecular genetics
Nicotiana - genetics
Nicotiana - ultrastructure
Plants, Genetically Modified - genetics
Plants, Genetically Modified - metabolism
Plants, Genetically Modified - ultrastructure
plastid
Plastids - genetics
Plastids - metabolism
Plastids - ultrastructure
Recombinant Fusion Proteins - metabolism
regulated transgene expression
sigma factor
Sigma Factor - genetics
Sigma Factor - physiology
transcription
Transcription Factors - physiology
Transcription, Genetic
Transcription. Transcription factor. Splicing. Rna processing
Transgenes
title Hybrid transcription system for controlled plastid transgene expression
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