Molecular basis and regulatory mechanisms underlying fungal insecticides' resistance to solar ultraviolet irradiation

Resistance to solar ultraviolet (UV) irradiation is crucial for field‐persistent control efficacies of fungal formulations against arthropod pests, because their active ingredients are formulated conidia very sensitive to solar UV wavelengths. This review seeks to summarize advances in studies aimin...

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Published inPest management science Vol. 78; no. 1; pp. 30 - 42
Main Authors Tong, Sen‐Miao, Feng, Ming‐Guang
Format Journal Article
LanguageEnglish
Published Chichester, UK John Wiley & Sons, Ltd 01.01.2022
Wiley Subscription Services, Inc
Subjects
Antioxidants
arthropods
biological control
biosynthesis
cell photoreactivation
Cell walls
Conidia
deoxyribodipyrimidine photo-lyase
Deoxyribodipyrimidine Photo-Lyase - genetics
DNA
DNA photorepair
entomopathogenic fungi
Formulations
Fungi
Insecticide Resistance
Insecticides
Insects
Irradiation
Pests
Photoreactivation
Proteins
radiation resistance
Regulatory mechanisms (biology)
Solutes
Spores, Fungal
Ultraviolet radiation
Ultraviolet Rays
UV resistance
Wavelengths
biological control
entomopathogenic fungi
DNA photorepair
UV resistance
cell photoreactivation
Online AccessGet full text
ISSN1526-498X
1526-4998
1526-4998
DOI10.1002/ps.6600

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Abstract Resistance to solar ultraviolet (UV) irradiation is crucial for field‐persistent control efficacies of fungal formulations against arthropod pests, because their active ingredients are formulated conidia very sensitive to solar UV wavelengths. This review seeks to summarize advances in studies aiming to quantify, understand and improve conidial UV resistance. One focus of studies has been on the many sets of genes that have been revealed in the postgenomic era to contribute to or mediate UV resistance in the insect pathogens serving as main sources of fungal insecticides. Such genetic studies have unveiled the broad basis of UV‐resistant molecules including cytosolic solutes, cell wall components, various antioxidant enzymes, and numerous effectors and signaling proteins, that function in developmental, biosynthetic and stress‐responsive pathways. Another focus has been on the molecular basis and regulatory mechanisms underlying photorepair of UV‐induced DNA lesions and photoreactivation of UV‐impaired conidia. Studies have shed light upon a photoprotective mechanism depending on not only one or two photorepair‐required photolyases, but also two white collar proteins and other partners that play similar or more important roles in photorepair via interactions with photolyases. Research hotspots are suggested to explore a regulatory network of fungal photoprotection and to improve the development and application strategies of UV‐resistant fungal insecticides. © 2021 Society of Chemical Industry. Photoreactivation of fungal cells impaired by solar UV irradiation relies upon DNA lesion photorepair by one or two photolyases localized exclusively in the nucleus.
AbstractList Resistance to solar ultraviolet (UV) irradiation is crucial for field‐persistent control efficacies of fungal formulations against arthropod pests, because their active ingredients are formulated conidia very sensitive to solar UV wavelengths. This review seeks to summarize advances in studies aiming to quantify, understand and improve conidial UV resistance. One focus of studies has been on the many sets of genes that have been revealed in the postgenomic era to contribute to or mediate UV resistance in the insect pathogens serving as main sources of fungal insecticides. Such genetic studies have unveiled the broad basis of UV‐resistant molecules including cytosolic solutes, cell wall components, various antioxidant enzymes, and numerous effectors and signaling proteins, that function in developmental, biosynthetic and stress‐responsive pathways. Another focus has been on the molecular basis and regulatory mechanisms underlying photorepair of UV‐induced DNA lesions and photoreactivation of UV‐impaired conidia. Studies have shed light upon a photoprotective mechanism depending on not only one or two photorepair‐required photolyases, but also two white collar proteins and other partners that play similar or more important roles in photorepair via interactions with photolyases. Research hotspots are suggested to explore a regulatory network of fungal photoprotection and to improve the development and application strategies of UV‐resistant fungal insecticides. © 2021 Society of Chemical Industry.
Resistance to solar ultraviolet (UV) irradiation is crucial for field-persistent control efficacies of fungal formulations against arthropod pests, because their active ingredients are formulated conidia very sensitive to solar UV wavelengths. This review seeks to summarize advances in studies aiming to quantify, understand and improve conidial UV resistance. One focus of studies has been on the many sets of genes that have been revealed in the postgenomic era to contribute to or mediate UV resistance in the insect pathogens serving as main sources of fungal insecticides. Such genetic studies have unveiled the broad basis of UV-resistant molecules including cytosolic solutes, cell wall components, various antioxidant enzymes, and numerous effectors and signaling proteins, that function in developmental, biosynthetic and stress-responsive pathways. Another focus has been on the molecular basis and regulatory mechanisms underlying photorepair of UV-induced DNA lesions and photoreactivation of UV-impaired conidia. Studies have shed light upon a photoprotective mechanism depending on not only one or two photorepair-required photolyases, but also two white collar proteins and other partners that play similar or more important roles in photorepair via interactions with photolyases. Research hotspots are suggested to explore a regulatory network of fungal photoprotection and to improve the development and application strategies of UV-resistant fungal insecticides. © 2021 Society of Chemical Industry.Resistance to solar ultraviolet (UV) irradiation is crucial for field-persistent control efficacies of fungal formulations against arthropod pests, because their active ingredients are formulated conidia very sensitive to solar UV wavelengths. This review seeks to summarize advances in studies aiming to quantify, understand and improve conidial UV resistance. One focus of studies has been on the many sets of genes that have been revealed in the postgenomic era to contribute to or mediate UV resistance in the insect pathogens serving as main sources of fungal insecticides. Such genetic studies have unveiled the broad basis of UV-resistant molecules including cytosolic solutes, cell wall components, various antioxidant enzymes, and numerous effectors and signaling proteins, that function in developmental, biosynthetic and stress-responsive pathways. Another focus has been on the molecular basis and regulatory mechanisms underlying photorepair of UV-induced DNA lesions and photoreactivation of UV-impaired conidia. Studies have shed light upon a photoprotective mechanism depending on not only one or two photorepair-required photolyases, but also two white collar proteins and other partners that play similar or more important roles in photorepair via interactions with photolyases. Research hotspots are suggested to explore a regulatory network of fungal photoprotection and to improve the development and application strategies of UV-resistant fungal insecticides. © 2021 Society of Chemical Industry.
Resistance to solar ultraviolet (UV) irradiation is crucial for field‐persistent control efficacies of fungal formulations against arthropod pests, because their active ingredients are formulated conidia very sensitive to solar UV wavelengths. This review seeks to summarize advances in studies aiming to quantify, understand and improve conidial UV resistance. One focus of studies has been on the many sets of genes that have been revealed in the postgenomic era to contribute to or mediate UV resistance in the insect pathogens serving as main sources of fungal insecticides. Such genetic studies have unveiled the broad basis of UV‐resistant molecules including cytosolic solutes, cell wall components, various antioxidant enzymes, and numerous effectors and signaling proteins, that function in developmental, biosynthetic and stress‐responsive pathways. Another focus has been on the molecular basis and regulatory mechanisms underlying photorepair of UV‐induced DNA lesions and photoreactivation of UV‐impaired conidia. Studies have shed light upon a photoprotective mechanism depending on not only one or two photorepair‐required photolyases, but also two white collar proteins and other partners that play similar or more important roles in photorepair via interactions with photolyases. Research hotspots are suggested to explore a regulatory network of fungal photoprotection and to improve the development and application strategies of UV‐resistant fungal insecticides. © 2021 Society of Chemical Industry. Photoreactivation of fungal cells impaired by solar UV irradiation relies upon DNA lesion photorepair by one or two photolyases localized exclusively in the nucleus.
Author Tong, Sen‐Miao
Feng, Ming‐Guang
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Keywords biological control
entomopathogenic fungi
DNA photorepair
UV resistance
cell photoreactivation
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2020; 93
2014; 16
1994; 77
2007; 6
2016; 41
2011; 67
2008; 112
2014; 98
2017; 62
2019; 9
2005; 90
2018; 102
2018; 740
2017; 66
1999; 28
2019; 103
2016; 94
2020; 144
1993
2016; 93
2017; 130
2016; 18
2012; 36
1996; 16
2018; 20
2011; 7
2004; 54
2016; 5
2016; 6
2004; 50
2020; 30
2015; 61
2015; 112
2004; 150
2008; 45
2009; 101
1994; 13
2005; 15
2003; 103
2016; 8
2016; 23
2010; 55
2018; 122
2017; 7
2014; 70
2011; 315
2003; 13
2019; 127
2016; 100
2014; 68
2011; 12
2013; 280
2005; 24
2001; 105
2020; 6
2013; 15
2019; 65
1999; 13
2003; 2
2009; 168
1999; 96
2017; 121
2014; 9
2004; 87
2014; 118
2006; 93
2021; 6
2015; 17
2000; 28
2020; 86
2006; 13
2002; 297
2015; 99
2020; 104
2016; 363
2020; 76
2021; 94
2016; 120
2010; 85
2006; 82
2018; 152
2010; 86
2012; 2
2017; 90
2021; 12
2019; 85
2021
2004; 14
2018; 157
2017; 98
1996; 272
2017; 19
2020; 65
2007; 43
2017; 101
2001; 78
2012; 7
2001; 73
1994; 4
2001; 74
1998; 35
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Snippet Resistance to solar ultraviolet (UV) irradiation is crucial for field‐persistent control efficacies of fungal formulations against arthropod pests, because...
Resistance to solar ultraviolet (UV) irradiation is crucial for field-persistent control efficacies of fungal formulations against arthropod pests, because...
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SubjectTerms Antioxidants
arthropods
biological control
biosynthesis
cell photoreactivation
Cell walls
Conidia
deoxyribodipyrimidine photo-lyase
Deoxyribodipyrimidine Photo-Lyase - genetics
DNA
DNA photorepair
entomopathogenic fungi
Formulations
Fungi
Insecticide Resistance
Insecticides
Insects
Irradiation
Pests
Photoreactivation
Proteins
radiation resistance
Regulatory mechanisms (biology)
Solutes
Spores, Fungal
Ultraviolet radiation
Ultraviolet Rays
UV resistance
Wavelengths
Title Molecular basis and regulatory mechanisms underlying fungal insecticides' resistance to solar ultraviolet irradiation
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fps.6600
https://www.ncbi.nlm.nih.gov/pubmed/34397162
https://www.proquest.com/docview/2607290475
https://www.proquest.com/docview/2561926427
https://www.proquest.com/docview/2636607080
Volume 78
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