Use of CRISPR‐Cas tools to engineer Trichoderma species

Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and agricultural applications. Genetic manipulation plays a valuable role in tailoring novel engineered strains with enhanced target traits. Neverthele...

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Published inMicrobial biotechnology Vol. 15; no. 10; pp. 2521 - 2532
Main Authors Wang, Ying, Chen, Hongyu, Ma, Liang, Gong, Ming, Wu, Yingying, Bao, Dapeng, Zou, Gen
Format Journal Article
LanguageEnglish
Published United States John Wiley & Sons, Inc 01.10.2022
John Wiley and Sons Inc
Wiley
Subjects
Biological control
Biopesticides
Biotechnology
CRISPR
CRISPR-Cas Systems
Degradability
Editing
Enzymes
Fungi
Gene Editing
Genes
Genetic engineering
Genetic modification
Genome editing
Genomes
Lignocellulose
Mini Review
Minireview
Plasmids
Polyethylene glycol
Proteins
Trichoderma
Trichoderma - genetics
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Abstract Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and agricultural applications. Genetic manipulation plays a valuable role in tailoring novel engineered strains with enhanced target traits. Nevertheless, as applied to fungi, the classic tools of genetic manipulation tend to be time‐consuming and tedious. However, the recent development of the CRISPR‐Cas system for gene editing has enabled researchers to achieve genome‐wide gene disruptions, gene replacements, and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma. Here, we provide a brief overview of the traditional approaches to genetic manipulation, the different strategies employed in establishing CRSIPR‐Cas systems, the utilization of these systems to develop engineered strains of Trichoderma for desired applications, and the future trends in biotechnology. The recent development of the CRISPR‐Cas system for gene editing has enabled researchers to achieve genome‐wide gene disruptions, gene replacements and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma.
AbstractList Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and agricultural applications. Genetic manipulation plays a valuable role in tailoring novel engineered strains with enhanced target traits. Nevertheless, as applied to fungi, the classic tools of genetic manipulation tend to be time-consuming and tedious. However, the recent development of the CRISPR-Cas system for gene editing has enabled researchers to achieve genome-wide gene disruptions, gene replacements, and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma. Here, we provide a brief overview of the traditional approaches to genetic manipulation, the different strategies employed in establishing CRSIPR-Cas systems, the utilization of these systems to develop engineered strains of Trichoderma for desired applications, and the future trends in biotechnology.
Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and agricultural applications. Genetic manipulation plays a valuable role in tailoring novel engineered strains with enhanced target traits. Nevertheless, as applied to fungi, the classic tools of genetic manipulation tend to be time‐consuming and tedious. However, the recent development of the CRISPR‐Cas system for gene editing has enabled researchers to achieve genome‐wide gene disruptions, gene replacements, and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma . Here, we provide a brief overview of the traditional approaches to genetic manipulation, the different strategies employed in establishing CRSIPR‐Cas systems, the utilization of these systems to develop engineered strains of Trichoderma for desired applications, and the future trends in biotechnology.
Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and agricultural applications. Genetic manipulation plays a valuable role in tailoring novel engineered strains with enhanced target traits. Nevertheless, as applied to fungi, the classic tools of genetic manipulation tend to be time‐consuming and tedious. However, the recent development of the CRISPR‐Cas system for gene editing has enabled researchers to achieve genome‐wide gene disruptions, gene replacements, and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma . Here, we provide a brief overview of the traditional approaches to genetic manipulation, the different strategies employed in establishing CRSIPR‐Cas systems, the utilization of these systems to develop engineered strains of Trichoderma for desired applications, and the future trends in biotechnology. The recent development of the CRISPR‐Cas system for gene editing has enabled researchers to achieve genome‐wide gene disruptions, gene replacements and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma .
Abstract Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and agricultural applications. Genetic manipulation plays a valuable role in tailoring novel engineered strains with enhanced target traits. Nevertheless, as applied to fungi, the classic tools of genetic manipulation tend to be time‐consuming and tedious. However, the recent development of the CRISPR‐Cas system for gene editing has enabled researchers to achieve genome‐wide gene disruptions, gene replacements, and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma. Here, we provide a brief overview of the traditional approaches to genetic manipulation, the different strategies employed in establishing CRSIPR‐Cas systems, the utilization of these systems to develop engineered strains of Trichoderma for desired applications, and the future trends in biotechnology.
Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and agricultural applications. Genetic manipulation plays a valuable role in tailoring novel engineered strains with enhanced target traits. Nevertheless, as applied to fungi, the classic tools of genetic manipulation tend to be time‐consuming and tedious. However, the recent development of the CRISPR‐Cas system for gene editing has enabled researchers to achieve genome‐wide gene disruptions, gene replacements, and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma. Here, we provide a brief overview of the traditional approaches to genetic manipulation, the different strategies employed in establishing CRSIPR‐Cas systems, the utilization of these systems to develop engineered strains of Trichoderma for desired applications, and the future trends in biotechnology. The recent development of the CRISPR‐Cas system for gene editing has enabled researchers to achieve genome‐wide gene disruptions, gene replacements and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma.
Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and agricultural applications. Genetic manipulation plays a valuable role in tailoring novel engineered strains with enhanced target traits. Nevertheless, as applied to fungi, the classic tools of genetic manipulation tend to be time-consuming and tedious. However, the recent development of the CRISPR-Cas system for gene editing has enabled researchers to achieve genome-wide gene disruptions, gene replacements, and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma. Here, we provide a brief overview of the traditional approaches to genetic manipulation, the different strategies employed in establishing CRSIPR-Cas systems, the utilization of these systems to develop engineered strains of Trichoderma for desired applications, and the future trends in biotechnology.Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and agricultural applications. Genetic manipulation plays a valuable role in tailoring novel engineered strains with enhanced target traits. Nevertheless, as applied to fungi, the classic tools of genetic manipulation tend to be time-consuming and tedious. However, the recent development of the CRISPR-Cas system for gene editing has enabled researchers to achieve genome-wide gene disruptions, gene replacements, and precise editing, and this technology has emerged as a primary focus for novel developments in engineered strains of Trichoderma. Here, we provide a brief overview of the traditional approaches to genetic manipulation, the different strategies employed in establishing CRSIPR-Cas systems, the utilization of these systems to develop engineered strains of Trichoderma for desired applications, and the future trends in biotechnology.
Author Gong, Ming
Ma, Liang
Wu, Yingying
Wang, Ying
Bao, Dapeng
Zou, Gen
Chen, Hongyu
AuthorAffiliation 1 Shanghai Key Laboratory of Agricultural Genetics and Breeding, Institute of Edible Fungi Shanghai Academy of Agricultural Sciences Shanghai China
2 Key Laboratory for Quality Improvement of Agricultural Products of Zhejiang Province, College of Advanced Agricultural Sciences Zhejiang A&F University Lin'an Hangzhou China
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BackLink https://www.ncbi.nlm.nih.gov/pubmed/35908288$$D View this record in MEDLINE/PubMed
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Notes Ying Wang, Hongyu Chen and Liang Ma contributed equally to this work.
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PublicationTitle Microbial biotechnology
PublicationTitleAlternate Microb Biotechnol
PublicationYear 2022
Publisher John Wiley & Sons, Inc
John Wiley and Sons Inc
Wiley
Publisher_xml – name: John Wiley & Sons, Inc
– name: John Wiley and Sons Inc
– name: Wiley
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Snippet Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and...
Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial and...
Abstract Given their lignocellulose degradability and biocontrol activities, fungi of the ubiquitously distributed genus Trichoderma have multiple industrial...
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SubjectTerms Biological control
Biopesticides
Biotechnology
CRISPR
CRISPR-Cas Systems
Degradability
Editing
Enzymes
Fungi
Gene Editing
Genes
Genetic engineering
Genetic modification
Genome editing
Genomes
Lignocellulose
Mini Review
Minireview
Plasmids
Polyethylene glycol
Proteins
Trichoderma
Trichoderma - genetics
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Title Use of CRISPR‐Cas tools to engineer Trichoderma species
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Volume 15
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