Improvement of oilseed Brassica crops by Trichoderma use: Gene transfer and direct interaction

Global agriculture must urgently adopt a new approach to ensure adequate food production for the increasing population in the current context of adverse conditions, while prioritizing environmental sustainability. This change requires innovative and environmentally conscious methods, such as symbiotic-microorganisms-based products. Among these organisms, the genus Trichoderma stands out, as these fungal endophytes reside within many plant species including those in the Brassicaceae family and interact with them positively. Brassicaceae encompass numerous taxa of special agricultural and food interest, those known as oilseed brassicas (OSBs). Among these group vegetables such as cabbage, cauliflower or turnip can be found, together with canola and mustard seeds, commonly used for oil and spices production, respectively. OSBs are of greater interest for food because they are rich source of vitamins and minerals, and have also a great antimicrobial, antioxidant and antitumor potential application. Therefore, the improvement of these plant species (or of their cultivation methods) may ultimately lead to an improvement in human food and, accordingly, human health. This progress could go hand in hand with the Trichoderma fungal genus, either based on transgenesis with some of their genes, or using these fungi to formulate and produce bioinoculants. In relation to transgenesis, the most widely studied are those based on Trichoderma genes encoding endochitinases and Kelch-like family proteins, in both cases to achieve an antifungal effect against pathogenic fungi. With regard to Trichoderma -based products, these can be aimed at promoting plant growth, protecting crops against pathogens by acting as biological control agents (BCAs), or even reducing contaminants in the soil, such as heavy metals. The purpose of the present literature review is to analyse and discuss most of the existing studies to date on the interaction between Brassica crops oilseeds and Trichoderma fungi. • Brassicaceae includes crops of food and industrial interest, such as oilseeds. • They can be agronomically improved with endophytic fungi of the genus Trichoderma. • Transgenesis and Trichoderma -based bioinoculants are two methods for such improvement. • One of the main objectives of these methods is the biological control of pathogens. • These advances increase production, while reducing the use of phytochemicals.

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Publication Details

Journal
Oil Crop Science
Published
2025-03-01
DOI
https://doi.org/10.1016/j.ocsci.2025.02.001
Citations
3
Primary Topic
Plant tissue culture and regeneration
Type
article
Field-Weighted Citation Impact
2.42
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article

Improvement of oilseed Brassica crops by Trichoderma use: Gene transfer and direct interaction

Tamara Sánchez-Gómez, Jorge Martín‐García, O. Santamaría, Jorge Poveda
3 citations
Oil Crop Science
Plant tissue culture and regeneration
2.42
article

Improvement of oilseed Brassica crops by Trichoderma use: Gene transfer and direct interaction

Tamara Sánchez-Gómez, Jorge Martín‐García, O. Santamaría, Jorge Poveda
article en
3 citations

Abstract

Global agriculture must urgently adopt a new approach to ensure adequate food production for the increasing population in the current context of adverse conditions, while prioritizing environmental sustainability. This change requires innovative and environmentally conscious methods, such as symbiotic-microorganisms-based products. Among these organisms, the genus Trichoderma stands out, as these fungal endophytes reside within many plant species including those in the Brassicaceae family and interact with them positively. Brassicaceae encompass numerous taxa of special agricultural and food interest, those known as oilseed brassicas (OSBs). Among these group vegetables such as cabbage, cauliflower or turnip can be found, together with canola and mustard seeds, commonly used for oil and spices production, respectively. OSBs are of greater interest for food because they are rich source of vitamins and minerals, and have also a great antimicrobial, antioxidant and antitumor potential application. Therefore, the improvement of these plant species (or of their cultivation methods) may ultimately lead to an improvement in human food and, accordingly, human health. This progress could go hand in hand with the Trichoderma fungal genus, either based on transgenesis with some of their genes, or using these fungi to formulate and produce bioinoculants. In relation to transgenesis, the most widely studied are those based on Trichoderma genes encoding endochitinases and Kelch-like family proteins, in both cases to achieve an antifungal effect against pathogenic fungi. With regard to Trichoderma -based products, these can be aimed at promoting plant growth, protecting crops against pathogens by acting as biological control agents (BCAs), or even reducing contaminants in the soil, such as heavy metals. The purpose of the present literature review is to analyse and discuss most of the existing studies to date on the interaction between Brassica crops oilseeds and Trichoderma fungi. • Brassicaceae includes crops of food and industrial interest, such as oilseeds. • They can be agronomically improved with endophytic fungi of the genus Trichoderma. • Transgenesis and Trichoderma -based bioinoculants are two methods for such improvement. • One of the main objectives of these methods is the biological control of pathogens. • These advances increase production, while reducing the use of phytochemicals.

Oil Crop ScienceVol. 10(1)
Universidad de Valladolid (ES)
Zero hunger
Openalex Percentile: Top 13%
Plant tissue culture and regeneration
2.42
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