Bioclimatic analyses of distributions of a parasitoid <i>Peristenus digoneutis</i> and its host species <i>Lygus</i> spp. in Europe and North America

Haye, Tim; Olfert, O.; Weiss, R.M.; Gariépy, Tara D.; Broadbent, Bruce; Kuhlmann, Ulrich

doi:10.1111/j.1461-9563.2012.00590.x

Cited by 16 publications

(24 citation statements)

References 41 publications

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“…While this may be true in terms of the fundamental niche of a species, biotic interactions such as competition, predation/parasitism and symbiosis are major determinants of the realized niche of a species and therefore of their observed distribution (Davis et al, 1998;Bullock et al, 2000;Pearson & Dawson, 2003;Ara ujo & Peterson, 2012). Indeed, the role of biotic interactions has been acknowledged by the Biotic-Abiotic-Movement (BAM) framework (Sober on & Nakamura, 2009) and in a number of recently developed species distribution models where, for example, the distribution of a parasitoid is restricted to areas where two generations of its host insect occur (Haye et al, 2013) or the BEMs of a weed and its biological control agent are overlapped to predict where the weed would be successfully controlled (Mukherjee et al, 2012).…”

Section: Introductionmentioning

confidence: 99%

Climate and host plant availability impact the future distribution of the bean leaf beetle (Cerotoma trifurcata)

Berzitis

Minigan

Hallett

et al. 2014

Global Change Biology

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The bean leaf beetle, Cerotoma trifurcata, has become a major pest of soybean throughout its North American range. With a changing climate, there is the potential for this pest to further expand its distribution and become an increasingly severe pest in certain regions. To examine this possibility, we developed bioclimatic envelope models for both the bean leaf beetle, and its most important agronomic host plant, soybean (Glycine max). These two models were combined to examine the potential future pest status of the beetle using climate change projections from multiple general circulation models (GCMs) and climate change scenarios. Despite the broad tolerances of soybean, incorporation of host plant availability substantially decreased the suitable and favourable areas for the bean leaf beetle as compared to an evaluation based solely on the climate envelope of the beetle, demonstrating the importance of incorporating biotic interactions in these predictions. The use of multiple GCM-scenario combinations also revealed differences in predictions depending on the choice of GCM, with scenario choice having less of an impact. While the Norwegian model predicted little northward expansion of the beetle from its current northern range limit of southern Ontario and overall decreases in suitable and favourable areas over time, the Canadian and Russian models predict that much of Ontario and Quebec will become suitable for the beetle in the future, as well as Manitoba under the Russian model. The Russian model also predicts expansion of the suitable and favourable areas for the beetle over time. Two predictions that do not depend on our choice of GCM include a decrease in suitability of the Mississippi Delta region and continued favourability of the southeastern United States.

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Section: Introductionmentioning

confidence: 99%

Climate and host plant availability impact the future distribution of the bean leaf beetle (Cerotoma trifurcata)

Berzitis

Minigan

Hallett

et al. 2014

Global Change Biology

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“…Additionally, no host‐associated patterns were observed as Manitoba samples only consisted of wasps reared from L. borealis feeding on alfalfa (Table ). The Manitoba P. mellipes has only one generation per year despite the absence of P. howardi , which could be the result of their host phenology as Manitoba has a shorter summer than Alberta, thus only allowing for the development of one full generation of Lygus (Haye et al., ). While P. mellipes were only collected from Canadian prairies in this study, previous work (Zhang et al., ) and historical records have shown that there are two generations of Lygus and P. mellipes in warmer regions such as Ontario (Goulet & Mason, ).…”

Section: Discussionmentioning

confidence: 99%

“…The Manitoba P. mellipes has only one generation per year despite the absence of P. howardi, which could be the result of their host phenology as Manitoba has a shorter summer than Alberta, thus only allowing for the development of one full generation of Lygus (Haye et al, 2013). While P. mellipes were only collected from Canadian prairies in this study, previous work (Zhang et al, 2017) and historical records have shown that there are two generations of Lygus and P. mellipes in warmer regions such as Ontario (Goulet & Mason, 2006 was not the focus of the current study, the effects of partial host and temporal separation between closely related Peristenus species and their evolutionary history could be tested using similar methods.…”

Section: Temporal Isolation But No Had Within the Peristenus Speciesmentioning

confidence: 99%

“…Although HAD has been recorded from other Miridae (Hereward, Walter, Debarro, Lowe, & Riginos, 2013), no evidence of HAD has been shown in Lygus species despite the detection of population-level differences based on geography (Burange, Roehrdanz, & Boetel, 2012;Zhou, Kandemir, Walsh, Zalom, & Lavine, 2012). Lygus have one to three generations per year depending on the temperature, where southern populations in warmer climates are multivoltine and northern populations in cooler climates tend to be univoltine (Cárcamo et al, 2002;Haye et al, 2013). The Canadian prairies ecosystem is a major agricultural growing region where Lygus is an economically relevant pest on several field crops, such as canola, alfalfa, and mustard.…”

Section: Introductionmentioning

confidence: 99%

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Habitat or temporal isolation: Unraveling herbivore–parasitoid speciation patterns using double digest RADseq

Zhang

Bass

Fernández

et al. 2018

Ecology and Evolution

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Ecological speciation is often observed in phytophagous insects and their parasitoids due to divergent selection caused by host‐associated or temporal differences. Most previous studies have utilized limited genetic markers or distantly related species to look for reproductive barriers of speciation. In our study, we focus on closely related species of Lygus bugs and two sister species of Peristenus parasitoid wasps. Using mitochondrial DNA COI and genomewide SNPs generated using ddRADseq, we tested for potential effects of host‐associated differentiation (HAD) or temporal isolation in this system. While three species of Lygus are clearly delineated with both COI and SNPs, no evidence of HAD or temporal differentiation was detected. Two Peristenus sister species were supported by both sets of markers and separated temporally, with P. mellipes emerging early in June and attacking the first generation of Lygus, while P. howardi emerging later in August and attacking the second generation of their hosts. This is one of the few studies to examine closely related hosts and parasitoids to examine drivers of diversification. Given the results of this study, the Lygus‐Peristenus system demonstrates temporal isolation as a potential barrier to reproductive isolation for parasitoids, which could indicate higher parasitoid diversity in regions of multivoltine hosts. This study also demonstrates that incorporating systematics improves studies of parasitoid speciation, particularly by obtaining accurate host records through rearing, carefully delimiting cryptic species and examining population‐level differences with genomic‐scale data among closely related taxa.

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“…; Kriticos ; Haye et al. ). The CliMond 10 climate data set was used as input into the model (Kriticos et al.…”

Section: Methodsmentioning

confidence: 99%

Phenology and temperature‐dependent development of Ceutorhynchus assimilis, a potential biological control agent for Lepidium draba

Virág

Bon

Cloşca

et al. 2016

J Applied Entomology

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Lepidium draba (Brassicaceae) is a major concern for agriculture and biodiversity in the western United States. As current control methods do not provide long‐term, sustainable solutions, research has been conducted to find biological control agents. Ceutorhynchus assimilis is one of the currently investigated candidates. Known as oligophagous in the literature, a specialist clade of this root‐galling weevil exists in southern Europe. This raised the question of its ability to survive in colder climates in the target range. We investigated the phenology of C. assimilis in the field in southern France (specialist clade) and Romania (generalist clade) and measured various temperature‐dependent parameters in the laboratory. In both ranges, weevils were univoltine. Oviposition in autumn started later in France compared to Romania, while mature larvae exited galls (to pupate in the soil) earlier the following year. On average, 25% and 32% of galls from France and Romania were completely below the soil surface, respectively, and this appeared to depend on soil substrate. Weevils transported from France to Romania were able to develop, but at a much lower rate than Romanian weevils. Mortality of overwintering larvae of both clades increased with decreasing temperature and exposure time. At −5°C, lethal times Lt50 and Lt95 were 15 and 42 days for the specialist clade and 26 and 72 days for the generalist clade. A higher proportion of third instar larvae compared to first and second instar larvae survived. Pupation time at different temperatures did not differ between weevils from France or Romania. A climate match model (comparing winter temperatures) indicated that the specialist clade of C. assimilis from France has the potential to establish in some parts of the target range (e.g. Washington, Oregon, California). However, temperature extremes and winters without snow cover will likely limit its establishment unless rapid adaptive evolution takes place.

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Bioclimatic analyses of distributions of a parasitoid Peristenus digoneutis and its host species Lygus spp. in Europe and North America

Cited by 16 publications

References 41 publications

Climate and host plant availability impact the future distribution of the bean leaf beetle (Cerotoma trifurcata)

Climate and host plant availability impact the future distribution of the bean leaf beetle (Cerotoma trifurcata)

Habitat or temporal isolation: Unraveling herbivore–parasitoid speciation patterns using double digest RADseq

Phenology and temperature‐dependent development of Ceutorhynchus assimilis, a potential biological control agent for Lepidium draba

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