Co-localisation of host plant resistance QTLs affecting the performance and feeding behaviour of the aphid Myzus persicae in the peach tree

Mh, Sauge; Lambert, Patrick; Pascal, Thierry

doi:10.1038/hdy.2011.74

Cited by 37 publications

(29 citation statements)

References 36 publications

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“…No evidence was found in the EPG experiments for antixenotic resistance in the resistant cultivar and resistant NIL; however, a possible antibiosis‐type resistance could be present but work in a delayed manner, and would therefore not be detected in the short‐term EPG experiments as was hypothesized by Sauge et al. ().…”

Section: Discussionmentioning

confidence: 86%

“…Another explanation could be that Nr-resistance exerts an antibiotic effect on free-living aphids. No evidence was found in the EPG experiments for antixenotic resistance in the resistant cultivar and resistant NIL; however, a possible antibiosis-type resistance could be present but work in a delayed manner, and would therefore not be detected in the short-term EPG experiments as was hypothesized by Sauge et al (2012). Alvarez et al (2006) found similar results for Myzus persicae on Solanum cardiophyllum Lindl.…”

Section: Differences In Virulence Between Populations On Resistant Linesmentioning

confidence: 84%

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Feeding behaviour and performance of different populations of the black currant‐lettuce aphid, Nasonovia ribisnigri, on resistant and susceptible lettuce

Broeke

Dicke

Loon

2013

Entomologia Exp Applicata

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When crops are bred for resistance to herbivores, these herbivores are under strong selection pressure to overcome this resistance, which may result in the emergence of virulent biotypes. This is a growing problem for crop species attacked by aphids. The Nr‐gene in lettuce confers near‐complete resistance against the black currant‐lettuce aphid, Nasonovia ribisnigri (Mosely) (Hemiptera: Aphididae). Since 2007, populations of N. ribisnigri have been reported in several locations in Europe to infest resistant lettuce varieties that possess the Nr‐gene. The objective of this study was to analyse the behaviour and level of virulence of several N. ribisnigri populations observed to have colonized Nr‐locus‐containing lettuce lines. We analysed the stylet penetration and feeding behaviour, and the performance of these N. ribisnigri populations on resistant and susceptible lettuce lines. Large variation in the degree of virulence to the Nr‐locus‐containing lettuce lines was found among populations of the Nr:1 biotype. The German population was highly virulent on the Nr‐containing resistant lettuce lines, and showed similar feeding behaviour and performance on both the susceptible and resistant lettuces. The French population from Paris was the second most virulent, though reproduction on the resistant lines was reduced. The French population from Perpignan and a population from Belgium, however, showed reduced performance and feeding rate on the resistant compared to the susceptible lettuces. The lettuce background in which the Nr‐gene is expressed influences the level of resistance to the various Nr:1 aphid populations, because the performance and feeding behaviour differed between the aphids on the cultivars (romaine lettuce) compared to the near‐isogenic lines (butterhead/iceberg lettuce). This study also shows that being able to feed on a plant not automatically implies that a population can successfully develop on that plant, because aphids showed phloem ingestion during the 8‐h recording period on resistant lettuce, but were not able to survive and reproduce on the same lettuce line.

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Section: Discussionmentioning

confidence: 86%

Section: Differences In Virulence Between Populations On Resistant Linesmentioning

confidence: 84%

Feeding behaviour and performance of different populations of the black currant‐lettuce aphid, Nasonovia ribisnigri, on resistant and susceptible lettuce

Broeke

Dicke

Loon

2013

Entomologia Exp Applicata

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“…No linkage was found in other herbivorous species, such as Callosobruchus maculatus (southern cowpea weevil; Wasserman and Futuyma 1981), Colias philodice (butterfly; Tabashnik 1986), Papilionidae (swallowtail butterflies; Thompson 1988;Thompson et al 1990), Chrysomelidae (leaf-feeding beetles; Keese 1996), Nilaparvata lugens (brown planthopper; Sezer and Butlin 1998a,b), and Oreina elongata (leaf beetle; Ballabeni and Rahier 2000). However, more recent QTL mapping data for aphids (Hawthorne and Via 2001;Caillaud and Via 2012;Sauge et al 2012), and other genetic association studies in Euphydryas editha (Edith's checkerspot butterfly ;Ng 1988;Singer et al 1988), Liriomyza sativae (leafminer fly; Via 1986), Phyllotreta nemorum (flea beetle; Nielsen 1996), and Papilio glaucus (eastern tiger swallowtail butterfly; Bossart 2003), suggest that some preference and performance alleles can be genetically linked.…”

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confidence: 99%

A Locus in Drosophila sechellia Affecting Tolerance of a Host Plant Toxin

et al. 2013

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Many insects feed on only one or a few types of host. These host specialists often evolve a preference for chemical cues emanating from their host and develop mechanisms for circumventing their host's defenses. Adaptations like these are central to evolutionary biology, yet our understanding of their genetics remains incomplete. Drosophila sechellia, an emerging model for the genetics of host specialization, is an island endemic that has adapted to chemical toxins present in the fruit of its host plant, Morinda citrifolia. Its sibling species, D. simulans, and many other Drosophila species do not tolerate these toxins and avoid the fruit. Earlier work found a region with a strong effect on tolerance to the major toxin, octanoic acid, on chromosome arm 3R. Using a novel assay, we narrowed this region to a small span near the centromere containing 18 genes, including three odorant binding proteins. It has been hypothesized that the evolution of host specialization is facilitated by genetic linkage between alleles contributing to host preference and alleles contributing to host usage, such as tolerance to secondary compounds. We tested this hypothesis by measuring the effect of this tolerance locus on host preference behavior. Our data were inconsistent with the linkage hypothesis, as flies bearing this tolerance region showed no increase in preference for media containing M. citrifolia toxins, which D. sechellia prefers. Thus, in contrast to some models for host preference, preference and tolerance are not tightly linked at this locus nor is increased tolerance per se sufficient to change preference. Our data are consistent with the previously proposed model that the evolution of D. sechellia as a M. citrifolia specialist occurred through a stepwise loss of aversion and gain of tolerance to M. citrifolia's toxins. HALF of all insects interact with plants (Grimaldi and Engel 2005). Most phytophageous insects, however, use only a few plant genera for food, mating, and oviposition (Bernays and Chapman 1994). Changes in host use can result in both new species and new adaptations (Ehrlich and Raven 1964;Janz 2011). For example, the evolution of a new host specialization may have contributed to the formation of new species in pea aphids (Acyrthosiphon) among others (Via 2001;Matsubayashi et al. 2010). Adapting to a new host can drive genetic and phenotypic change that is critical for isolating nascent species. In some cases, specialization has a price: Increased performance on the new host correlates with reduced performance on other hosts (Futuyma and Moreno 1988;Jaenike 1990;Fry et al. 1996;Scheirs et al. 2005; Via and Hawthorne 2005). This scenario poses a new challenge for the nascent specialist, as it must keep together alleles for finding and selecting the appropriate host ("preference") along with those for utilizing that host ("performance," e.g., physiologically adapting to that host's secondary compounds or nutritional content; Jaenike 1990; Janz 2011). Theory suggests that a genetic correlation betwe...

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“…This hypothesis could be tested in the our own fruit tree-aphid system. Several Prunus genotypes that bear quantitative trait locus of antibiosis resistance against M. persicae are available in the peach germplasm (Sauge et al, 2012).…”

Section: Discussionmentioning

confidence: 99%

Drought‐stress and plant resistance affect herbivore performance and proteome: the case of the green peach aphid Myzus persicae (Hemiptera: Aphididae)

et al. 2015

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Little is known about the simultaneous effects of drought stress and plant resistance on herbivorous insects. By subjecting the green peach aphid Myzus persicae Sulzer to well-watered and drought-stressed plants of both susceptible and resistant peach (Prunus persica), the effects of both stressors on aphid performance and proteomics are tested. Overall, the influence of the water treatment on aphid performance is less pronounced than the effect of host plant genetic resistance. On the susceptible cultivar, aphid survival, host acceptance and ability to colonize the plant do not depend on water treatment. On the resistant cultivar, aphid survival and ability to colonize are higher on drought-stressed than on well-watered plants. A study examining the pattern of protein expression aiming to explain the variation in aphid performance finds higher protein expression in aphids on the drought-stressed susceptible cultivars compared with the well-watered ones. In the susceptible cultivar, the regulated proteins are related to energy metabolism and exoskeleton functionality, whereas, in the resistant cultivar, the proteins are involved with the cytoskeleton. Comparison of the protein expression ratios for resistant versus susceptible plants reveals that four proteins are down-regulated in well-watered plants and 15 proteins are down-regulated in drought-stressed plants. Drought stress applied to the susceptible cultivar induces the regulation of proteins in M. persicae that enable physiological adaptation to maintain an almost unaltered aphid performance. By contrast, for aphids on the resistant cultivar subjected to drought stress, the down-regulation of proteins responds to an induced host susceptibility effect.

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Co-localisation of host plant resistance QTLs affecting the performance and feeding behaviour of the aphid Myzus persicae in the peach tree

Cited by 37 publications

References 36 publications

Feeding behaviour and performance of different populations of the black currant‐lettuce aphid, Nasonovia ribisnigri, on resistant and susceptible lettuce

Feeding behaviour and performance of different populations of the black currant‐lettuce aphid, Nasonovia ribisnigri, on resistant and susceptible lettuce

A Locus in Drosophila sechellia Affecting Tolerance of a Host Plant Toxin

Drought‐stress and plant resistance affect herbivore performance and proteome: the case of the green peach aphid Myzus persicae (Hemiptera: Aphididae)

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