Synthetic biology toolbox for nitrogen-fixing soil microbes.

The soil environment adjacent to plant roots, termed the rhizosphere, is home to a wide variety of microorganisms that can significantly affect the physiology of nearby plants. Microbes in the rhizosphere can provide nutrients, secrete signaling compounds, and inhibit pathogens. These processes could be manipulated with synthetic biology to enhance the agricultural performance of crops grown for food, energy, or environmental remediation, if methods can be implemented in these nonmodel microbes. A common first step for domesticating nonmodel organisms is the development of a set of genetic engineering tools, termed a synthetic biology toolbox. A toolbox comprises transformation protocols, replicating vectors, genome engineering (e.g., CRISPR/Cas9), constitutive and inducible promoter systems, and other gene expression control elements. This work validated synthetic biology toolboxes in three nitrogen-fixing soil bacteria: Azotobacter vinelandii, Stutzerimonas stutzeri (Pseudomonas stutzeri), and a new isolate of Klebsiella variicola. All three organisms were amenable to transformation and reporter protein expression, with several functional inducible systems available for each organism. S. stutzeri and K. variicola showed more reliable plasmid-based expression, resulting in successful Cas9 recombineering to create scarless deletions and insertions. Using these tools, we generated mutants with inducible nitrogenase activity and introduced heterologous genes to produce resorcinol products with relevant biological activity in the rhizosphere.

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Main Authors: VENKATARAMAN, M., YÑIGEZ-GUTIERREZ, A., INFANTE, V., MACINTYRE, A., FERNANDES JUNIOR, P. I., ANÉ, J.-M., PFLEGER, B.
Other Authors: MAYA VENKATARAMAN
Format: Artigo de periódico biblioteca
Language:Ingles
English
Published: 2023-12-18
Subjects:CRISPR, Cas9, Caixa de ferramentas, Biologia sintética, Edição de genoma, Solo, Nitrogenase, Synthetic biology, Genome,
Online Access:http://www.alice.cnptia.embrapa.br/alice/handle/doc/1159849
https://doi.org/10.1021/acssynbio.3c00414
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spelling dig-alice-doc-11598492023-12-18T13:32:31Z Synthetic biology toolbox for nitrogen-fixing soil microbes. VENKATARAMAN, M. YÑIGEZ-GUTIERREZ, A. INFANTE, V. MACINTYRE, A. FERNANDES JUNIOR, P. I. ANÉ, J.-M. PFLEGER, B. MAYA VENKATARAMAN AUDREY YÑIGEZ-GUTIERREZ VALENTINA INFANTE APRIL MACINTYRE PAULO IVAN FERNANDES JUNIOR, CPATSA JEAN-MICHEL ANÉ BRIAN PFLEGER. CRISPR Cas9 Caixa de ferramentas Biologia sintética Edição de genoma Solo Nitrogenase Synthetic biology Genome The soil environment adjacent to plant roots, termed the rhizosphere, is home to a wide variety of microorganisms that can significantly affect the physiology of nearby plants. Microbes in the rhizosphere can provide nutrients, secrete signaling compounds, and inhibit pathogens. These processes could be manipulated with synthetic biology to enhance the agricultural performance of crops grown for food, energy, or environmental remediation, if methods can be implemented in these nonmodel microbes. A common first step for domesticating nonmodel organisms is the development of a set of genetic engineering tools, termed a synthetic biology toolbox. A toolbox comprises transformation protocols, replicating vectors, genome engineering (e.g., CRISPR/Cas9), constitutive and inducible promoter systems, and other gene expression control elements. This work validated synthetic biology toolboxes in three nitrogen-fixing soil bacteria: Azotobacter vinelandii, Stutzerimonas stutzeri (Pseudomonas stutzeri), and a new isolate of Klebsiella variicola. All three organisms were amenable to transformation and reporter protein expression, with several functional inducible systems available for each organism. S. stutzeri and K. variicola showed more reliable plasmid-based expression, resulting in successful Cas9 recombineering to create scarless deletions and insertions. Using these tools, we generated mutants with inducible nitrogenase activity and introduced heterologous genes to produce resorcinol products with relevant biological activity in the rhizosphere. 2023-12-18T13:32:30Z 2023-12-18T13:32:30Z 2023-12-18 2023 Artigo de periódico ACS Synthetic Biology, v. 12, n. 12, p. 3623-3634, 2023. http://www.alice.cnptia.embrapa.br/alice/handle/doc/1159849 https://doi.org/10.1021/acssynbio.3c00414 Ingles en openAccess
institution EMBRAPA
collection DSpace
country Brasil
countrycode BR
component Bibliográfico
access En linea
databasecode dig-alice
tag biblioteca
region America del Sur
libraryname Sistema de bibliotecas de EMBRAPA
language Ingles
English
topic CRISPR
Cas9
Caixa de ferramentas
Biologia sintética
Edição de genoma
Solo
Nitrogenase
Synthetic biology
Genome
CRISPR
Cas9
Caixa de ferramentas
Biologia sintética
Edição de genoma
Solo
Nitrogenase
Synthetic biology
Genome
spellingShingle CRISPR
Cas9
Caixa de ferramentas
Biologia sintética
Edição de genoma
Solo
Nitrogenase
Synthetic biology
Genome
CRISPR
Cas9
Caixa de ferramentas
Biologia sintética
Edição de genoma
Solo
Nitrogenase
Synthetic biology
Genome
VENKATARAMAN, M.
YÑIGEZ-GUTIERREZ, A.
INFANTE, V.
MACINTYRE, A.
FERNANDES JUNIOR, P. I.
ANÉ, J.-M.
PFLEGER, B.
Synthetic biology toolbox for nitrogen-fixing soil microbes.
description The soil environment adjacent to plant roots, termed the rhizosphere, is home to a wide variety of microorganisms that can significantly affect the physiology of nearby plants. Microbes in the rhizosphere can provide nutrients, secrete signaling compounds, and inhibit pathogens. These processes could be manipulated with synthetic biology to enhance the agricultural performance of crops grown for food, energy, or environmental remediation, if methods can be implemented in these nonmodel microbes. A common first step for domesticating nonmodel organisms is the development of a set of genetic engineering tools, termed a synthetic biology toolbox. A toolbox comprises transformation protocols, replicating vectors, genome engineering (e.g., CRISPR/Cas9), constitutive and inducible promoter systems, and other gene expression control elements. This work validated synthetic biology toolboxes in three nitrogen-fixing soil bacteria: Azotobacter vinelandii, Stutzerimonas stutzeri (Pseudomonas stutzeri), and a new isolate of Klebsiella variicola. All three organisms were amenable to transformation and reporter protein expression, with several functional inducible systems available for each organism. S. stutzeri and K. variicola showed more reliable plasmid-based expression, resulting in successful Cas9 recombineering to create scarless deletions and insertions. Using these tools, we generated mutants with inducible nitrogenase activity and introduced heterologous genes to produce resorcinol products with relevant biological activity in the rhizosphere.
author2 MAYA VENKATARAMAN
author_facet MAYA VENKATARAMAN
VENKATARAMAN, M.
YÑIGEZ-GUTIERREZ, A.
INFANTE, V.
MACINTYRE, A.
FERNANDES JUNIOR, P. I.
ANÉ, J.-M.
PFLEGER, B.
format Artigo de periódico
topic_facet CRISPR
Cas9
Caixa de ferramentas
Biologia sintética
Edição de genoma
Solo
Nitrogenase
Synthetic biology
Genome
author VENKATARAMAN, M.
YÑIGEZ-GUTIERREZ, A.
INFANTE, V.
MACINTYRE, A.
FERNANDES JUNIOR, P. I.
ANÉ, J.-M.
PFLEGER, B.
author_sort VENKATARAMAN, M.
title Synthetic biology toolbox for nitrogen-fixing soil microbes.
title_short Synthetic biology toolbox for nitrogen-fixing soil microbes.
title_full Synthetic biology toolbox for nitrogen-fixing soil microbes.
title_fullStr Synthetic biology toolbox for nitrogen-fixing soil microbes.
title_full_unstemmed Synthetic biology toolbox for nitrogen-fixing soil microbes.
title_sort synthetic biology toolbox for nitrogen-fixing soil microbes.
publishDate 2023-12-18
url http://www.alice.cnptia.embrapa.br/alice/handle/doc/1159849
https://doi.org/10.1021/acssynbio.3c00414
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