Population genomics of Digitaria insularis from soybean areas in Brazil

BACKGROUND Digitaria insularis is a weed species that has gained considerable importance in Brazil's soybean production areas that rely on glyphosate‐resistant cultivars. Herbicide‐resistant weed populations of this species have been reported in many regions in Brazil, first in the south, follo...

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Veröffentlicht in:Pest management science 2021-12, Vol.77 (12), p.5375-5381
Hauptverfasser: Gonçalves Netto, Acácio, Cordeiro, Erick MG, Nicolai, Marcelo, Carvalho, Saul JP, Ovejero, Ramiro Fernando Lopez, Brunharo, Caio ACG, Zucchi, Maria I, Christoffoleti, Pedro J
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container_end_page 5381
container_issue 12
container_start_page 5375
container_title Pest management science
container_volume 77
creator Gonçalves Netto, Acácio
Cordeiro, Erick MG
Nicolai, Marcelo
Carvalho, Saul JP
Ovejero, Ramiro Fernando Lopez
Brunharo, Caio ACG
Zucchi, Maria I
Christoffoleti, Pedro J
description BACKGROUND Digitaria insularis is a weed species that has gained considerable importance in Brazil's soybean production areas that rely on glyphosate‐resistant cultivars. Herbicide‐resistant weed populations of this species have been reported in many regions in Brazil, first in the south, followed by later reports in the north. We hypothesized that the spread of herbicide‐resistant D. insularis is facilitated by movement of agricultural machinery from the southern regions of Brazil. RESULTS Population genomics revealed a weak or no genetic structure (FST = [0; 0.16]), moderate expected heterozygosity (HE = 0.15; 0.44) and low inbreeding (FIS = [−0.1; 0.1]) in D. insularis populations. Our data supported the hypothesis that herbicide resistance gene flow predominantly occurred in a south‐to‐north direction based on a migration analysis. We also found evidence of local adaptation of resistant populations in the northern soybean‐growing regions of Brazil. CONCLUSION Evidence in our work suggests that gene flow of glyphosate‐resistant D. insularis is associated with movement of agricultural machinery, although local selection pressure seems to play an important role in the evolution of herbicide resistance throughout the country. Our results suggest preventive practices such as equipment sanitation should be implemented to limit the spread of herbicide resistant D. insularis. © 2021 The Authors. Pest Management Science published by John Wiley & Sons Ltd on behalf of Society of Chemical Industry. An agricultural machine transporting Digitaria insularisacross the country. This represents our results that glyphosate‐resistant D. insularis was likely dispersed via movement of agricultural machinery from the south to the north.
doi_str_mv 10.1002/ps.6577
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Herbicide‐resistant weed populations of this species have been reported in many regions in Brazil, first in the south, followed by later reports in the north. We hypothesized that the spread of herbicide‐resistant D. insularis is facilitated by movement of agricultural machinery from the southern regions of Brazil. RESULTS Population genomics revealed a weak or no genetic structure (FST = [0; 0.16]), moderate expected heterozygosity (HE = 0.15; 0.44) and low inbreeding (FIS = [−0.1; 0.1]) in D. insularis populations. Our data supported the hypothesis that herbicide resistance gene flow predominantly occurred in a south‐to‐north direction based on a migration analysis. We also found evidence of local adaptation of resistant populations in the northern soybean‐growing regions of Brazil. CONCLUSION Evidence in our work suggests that gene flow of glyphosate‐resistant D. insularis is associated with movement of agricultural machinery, although local selection pressure seems to play an important role in the evolution of herbicide resistance throughout the country. Our results suggest preventive practices such as equipment sanitation should be implemented to limit the spread of herbicide resistant D. insularis. © 2021 The Authors. Pest Management Science published by John Wiley &amp; Sons Ltd on behalf of Society of Chemical Industry. An agricultural machine transporting Digitaria insularisacross the country. 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Herbicide‐resistant weed populations of this species have been reported in many regions in Brazil, first in the south, followed by later reports in the north. We hypothesized that the spread of herbicide‐resistant D. insularis is facilitated by movement of agricultural machinery from the southern regions of Brazil. RESULTS Population genomics revealed a weak or no genetic structure (FST = [0; 0.16]), moderate expected heterozygosity (HE = 0.15; 0.44) and low inbreeding (FIS = [−0.1; 0.1]) in D. insularis populations. Our data supported the hypothesis that herbicide resistance gene flow predominantly occurred in a south‐to‐north direction based on a migration analysis. We also found evidence of local adaptation of resistant populations in the northern soybean‐growing regions of Brazil. 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Herbicide‐resistant weed populations of this species have been reported in many regions in Brazil, first in the south, followed by later reports in the north. We hypothesized that the spread of herbicide‐resistant D. insularis is facilitated by movement of agricultural machinery from the southern regions of Brazil. RESULTS Population genomics revealed a weak or no genetic structure (FST = [0; 0.16]), moderate expected heterozygosity (HE = 0.15; 0.44) and low inbreeding (FIS = [−0.1; 0.1]) in D. insularis populations. Our data supported the hypothesis that herbicide resistance gene flow predominantly occurred in a south‐to‐north direction based on a migration analysis. We also found evidence of local adaptation of resistant populations in the northern soybean‐growing regions of Brazil. CONCLUSION Evidence in our work suggests that gene flow of glyphosate‐resistant D. insularis is associated with movement of agricultural machinery, although local selection pressure seems to play an important role in the evolution of herbicide resistance throughout the country. Our results suggest preventive practices such as equipment sanitation should be implemented to limit the spread of herbicide resistant D. insularis. © 2021 The Authors. Pest Management Science published by John Wiley &amp; Sons Ltd on behalf of Society of Chemical Industry. An agricultural machine transporting Digitaria insularisacross the country. 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subjects adaptation
admixture
Agricultural equipment
Brazil
Chemical pest control
Crop production
Cultivars
Digitaria
Digitaria insularis
Farm machinery
Flow resistance
Gene flow
Genetic structure
Genomics
Glycine max - genetics
Glyphosate
glyphosate resistance
Herbicide resistance
Herbicide Resistance - genetics
Herbicides
Herbicides - pharmacology
Heterozygosity
Inbreeding
Metagenomics
Pest control
Plant Weeds
Populations
Sanitation
sourgrass
Soybeans
weed genomics
Weeds
title Population genomics of Digitaria insularis from soybean areas in Brazil
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