Analysis of plant leaf metabolites reveals no common response to insect herbivory by Pieris rapae in three related host-plant species

Riach, Anna Christian; Perera, M. V. L.; Florance, Hannah; Penfield, Steven; Hill, Jane K.

doi:10.1093/jxb/erv045

Cited by 13 publications

(5 citation statements)

References 65 publications

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“…For instance, hundreds of regulated ions (and thus potential defense compounds) have been reported in cabbage (Jansen et al, 2009), tobacco (Gulati et al, 2013; Li et al, 2015), oak (Kersten et al, 2013), maize (Marti et al, 2013; Machado et al, 2021), rice (Alamgir et al, 2016) and black mustard (Ponzio et al, 2017; Papazian et al, 2019), but only a fraction of them has actually been resolved to the structural level (Maag et al, 2015). Even closely related species of plants can show differential metabolic responses to identical herbivores (Riach et al, 2015), which further emphasizes the enormous complexity and scale of specialized metabolism in plants.…”

Section: Classification Of Plant Defense Chemicals With Major But Not...mentioning

confidence: 99%

Integrated view of plant metabolic defense with particular focus on chewing herbivores

Wari

Aboshi

Shinya

et al. 2022

JIPB

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Success of plants largely depends on their ability to defend against herbivores. Since emergence of the first voracious consumers, plants maintained adapting their structures and chemistry to escape from extinction. The constant pressure was further accelerated by adaptation of herbivores to plant defenses, which all together sparked the rise of a chemical empire comprised of thousands of specialized metabolites currently found in plants.

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Section: Classification Of Plant Defense Chemicals With Major But Not...mentioning

confidence: 99%

Integrated view of plant metabolic defense with particular focus on chewing herbivores

Wari

Aboshi

Shinya

et al. 2022

JIPB

View full text Add to dashboard Cite

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“…CMAUP data may also be useful for facilitating other studies. These include the study of the metabolite distribution across plant species (52), the analysis of the relationships of the plant species (53), phylogenies (54), phytochemicals (55) and functions (56) across geographical regions and environmental conditions. There is a need for more comprehensive literature mining for the multi-target activities of multiple ingredients of more diverse ranges of functionally useful plants, and the incorporation of these profiles into this and other relevant databases.…”

Section: Perspectivesmentioning

confidence: 99%

CMAUP: a database of collective molecular activities of useful plants

Zeng

Zhang

Wang

et al. 2018

Nucleic Acids Research

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The beneficial effects of functionally useful plants (e.g. medicinal and food plants) arise from the multi-target activities of multiple ingredients of these plants. The knowledge of the collective molecular activities of these plants facilitates mechanistic studies and expanded applications. A number of databases provide information about the effects and targets of various plants and ingredients. More comprehensive information is needed for broader classes of plants and for the landscapes of individual plant’s multiple targets, collective activities and regulated biological pathways, processes and diseases. We therefore developed a new database, Collective Molecular Activities of Useful Plants (CMAUP), to provide the collective landscapes of multiple targets (ChEMBL target classes) and activity levels (in 2D target-ingredient heatmap), and regulated gene ontologies (GO categories), biological pathways (KEGG categories) and diseases (ICD blocks) for 5645 plants (2567 medicinal, 170 food, 1567 edible, 3 agricultural and 119 garden plants) collected from or traditionally used in 153 countries and regions. These landscapes were derived from 47 645 plant ingredients active against 646 targets in 234 KEGG pathways associated with 2473 gene ontologies and 656 diseases. CMAUP (http://bidd2.nus.edu.sg/CMAUP/) is freely accessible and searchable by keywords, plant usage classes, species families, targets, KEGG pathways, gene ontologies, diseases (ICD code) and geographical locations.

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“…Ecosystem effects of herbivory are modeled through grouping plants into functional groups and assuming high similarity within a functional group. However, plants may respond to herbivory in a speciesspecific way (Riach et al 2015;Richards et al 2015). Plant species also have idiosyncratic effects on soil, giving rise to species-specific ecosystem effects (Eisenhauer et al 2011;Kos et al 2015;Heinen et al 2018).…”

Section: Introductionmentioning

confidence: 99%

Idiosyncratic responses to simulated herbivory by root fungal symbionts in a subarctic meadow

Kytöviita

Olofsson

2021

Arctic, Antarctic, and Alpine Research

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Plant-associated fungi have elementary roles in ecosystem productivity. There is little information on the interactions between arbuscular mycorrhizal (AM) fungal symbiosis, fine endophytic (FE) and dark septate endophytic (DSE) fungi, and their host plants in cold climate systems. In particular, the environmental filters potentially driving the relative abundance of these root symbionts remain unknown. We investigated the interlinkage of plant and belowground fungal responses to simulated herbivory (clipping, fertilization, and trampling) in a subarctic meadow system. AM and FE frequency in the two target plant roots, Potentilla crantzii and Saussurea alpina, was unaffected by simulated herbivory, highlighting the importance and resilience of arbuscule forming mycorrhizas in a range of environmental conditions. Fertilization and trampling increased DSE colonization in P. crantzii roots although generally P. crantzii performance was reduced in these plots. The idiosyncratic responses by DSE fungal frequency in the two host plants in our experiment indicate that the host plant identity has a pivotal role in the DSE fungus-plant outcome. DSE fungal frequency did not respond to environmental manipulations in a manner similar to arbuscular mycorrhizas, suggesting that they have a different role in plant ecology.

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Analysis of plant leaf metabolites reveals no common response to insect herbivory by Pieris rapae in three related host-plant species

Abstract: Highlight:Herbivore attacks on three species of Brassicales result in different metabolic fingerprints. Furthermore, there is no overlap among the three plants in the individual metabolites that are induced by herbivory.

Cited by 13 publications

References 65 publications

Integrated view of plant metabolic defense with particular focus on chewing herbivores

Integrated view of plant metabolic defense with particular focus on chewing herbivores

CMAUP: a database of collective molecular activities of useful plants

Idiosyncratic responses to simulated herbivory by root fungal symbionts in a subarctic meadow

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