Colorado potato beetles (leptinotarsa decemlineata) adapt to proteinase inhibitors induced in potato leaves by methyl jasmonate
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Cited by (172)
Proteases inhibitors-insensitive cysteine proteases allow Nezara viridula to feed on growing seeds of field-grown soybean
2021, Journal of Insect PhysiologyCitation Excerpt :To continue feeding on plants that are expressing PIs, insects have evolved multiple adaptive strategies to circumvent the detrimental effects of nutrient deficiency. Different counter adaptive strategies include the overproduction of existing PI-sensitive digestive proteases (De Leo et al., 1998; Girard et al., 1998b), a shift to production of PI-insensitive protease isoforms (Bolter and Jongsma, 1995; Bown et al., 1997; Cloutier et al., 2000; Jongsma et al., 1995; Mazumdar-Leighton and Broadway, 2001), production of proteases capable to hydrolyze and thus detoxify plant PIs (Ahn and Zhu-Salzman, 2009; Girard et al., 1998a; Giri et al., 1998; Michaud et al., 1995) and moving within the plant avoiding high PIs levels (Zavala and Baldwin, 2004; Zavala et al., 2009). Both trypsin and cysteine PIs are produced in seeds and foliage of soybean crops, as defensive response to insect damage (Giacometti et al., 2016; Zavala et al., 2008).
Regulation of gene expression encoding the digestive α-amylase in the larvae of Colorado potato beetle, Leptinotarsa decemlineata (Say) in response to plant protein extracts
2021, GeneCitation Excerpt :Digestive cysteine proteases of L. decemlineata were inspected for changes in gene expression using quantitative PCR and enzyme activity strongly up-regulated in response to induced plant defenses (Petek et al., 2012). Also, the compensation potential of CPB to plant protease inhibitors has been previously reported by other researchers (Bolter and Jongsma, 1995; Gruden et al., 1998; Rivard et al., 2004). A number of related research projects were conducted on the cotton bollworm, Helicoverpa armigera (Hübner) (Lepidoptera: Noctuidae); mRNA levels corresponding to the highly expressed larval midgut trypsin and chymotrypsin of H. armigera were altered by four different proteinase inhibitors compared to insects reared on an inhibitor-free diet.
Purification and characterization of a novel trypsin inhibitor from Solanum tuberosum subsp. andigenum var. overa: Study of the expression levels and preliminary evaluation of its antimicrobial activity
2020, International Journal of Biological MacromoleculesInsect predator odors protect herbivore from fungal infection
2020, Biological ControlCitation Excerpt :One way that researchers manipulate host plant defenses is to treat foliage with solutions of signaling molecules, like jasmonic acid or salicylic acid. Such treatments have been shown to induce the production of defensive compounds like protease inhibitors and polyphenoloxidase in solanaceous plants including potato (Bolter and Jongsma 1995, Rivard et al. 2004). Colorado potato beetles are a devastating pest of solanaceous crops like potato, Solanum tuberosum L., due in part to their ability to rapidly develop resistance to synthetic chemical insecticides (Whalon et al. 2013).
Management of Colorado potato beetle in invasive frontier areas
2020, Journal of Integrative AgriculturePopulation-associated heterogeneity of the digestive Cys protease complement in Colorado potato beetle, Leptinotarsa decemlineata
2018, Journal of Insect PhysiologyCitation Excerpt :An interesting case is L. decemlineata, which has become somewhat of a model species for the study of herbivorous insect proteases and protease–inhibitor interactions in plant/insect systems (Cingel et al., 2016; Oppert et al., 2014; Smid et al., 2013; Vorster et al., 2015). A wealth of literature has described basic midgut protease profiles (Brunelle et al., 1999; Goulet et al., 2008; Gruden et al., 1998, 2003, 2004; Michaud et al., 1993; Michaud et al., 1995, 1996; Novillo et al., 1997; Sainsbury et al., 2012b; Srp et al., 2016; Thie and Houseman, 1990; Visal et al., 1998; Visal-Shah et al., 2001; Vorster et al., 2015) and protease-related compensatory processes in response to dietary challenges (Bolter and Jongsma, 1995; Bolter and Latoszek-Green, 1997; Brunelle et al., 2004; Cloutier et al., 1999, 2000; Gruden et al., 2003, 2004; Overney et al., 1997; Rivard et al., 2004; Smid et al., 2013, 2015) in L. decemlineata. By contrast, no article yet has assessed midgut complement variability in different populations of this species and the eventual consequences of such variability on the potency of recombinant inhibitor candidates to protect potato in different agricultural regions.