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Gene expression in Arabidopsis leaves after P. brassicae egg deposition, chilling, and/or herbivory by P. brassicae larvae

ABSTRACT: Plant defence against insects is well known to be affected by previous exposure to cues warning of herbivory. Using Arabidopsis thaliana and the herbivore Pieris brassicae, we addressed the question whether the maintenance of the effects of the warning cue depends on its reliability. We determined the transcriptomes of Arabidopsis leaves that were treated by P. brassicae egg deposition (i) five days after oviposition, (ii) one day after removal of the eggs following the egg treatment, (iii) three days after removal of the eggs, (iv) after two days of herbivory that started one day after removal of the eggs; or that were treated by chilling (v) five days after transfer to 4°C, (vi) one day after transfering the plants to 20°C following the chilling treatment, (vii) three days after transfering the plants to 20°C, (viii) after two days of herbivory that started one day after transfering the plants to 20°C.

ORGANISM(S): Arabidopsis thaliana

PROVIDER: GSE69623 | GEO | 2016/06/23

SECONDARY ACCESSION(S): PRJNA286002

REPOSITORIES: GEO

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Gene expression in Arabidopsis leaves after P. brassicae egg deposition, chilling, and/or herbivory by P. brassicae larvae

Project description:Plant defence against insects is well known to be affected by previous exposure to cues warning of herbivory. Using Arabidopsis thaliana and the herbivore Pieris brassicae, we addressed the question whether the maintenance of the effects of the warning cue depends on its reliability. We determined the transcriptomes of Arabidopsis leaves that were treated by P. brassicae egg deposition (i) five days after oviposition, (ii) one day after removal of the eggs following the egg treatment, (iii) three days after removal of the eggs, (iv) after two days of herbivory that started one day after removal of the eggs; or that were treated by chilling (v) five days after transfer to 4Â°C, (vi) one day after transfering the plants to 20Â°C following the chilling treatment, (vii) three days after transfering the plants to 20Â°C, (viii) after two days of herbivory that started one day after transfering the plants to 20Â°C. Arabidopsis thaliana Col-0 wild type plants were grown under short day conditions (10 h/14 h light/dark) at 20Â°C for 7 weeks. Subsequently (i) the plants were transferred to 4Â°C for 5 days, or (ii) Pieris brassicae deposited ca. 40 eggs on leaf 17 where they remained for five days, or (iii) as controls plants grew untreated for five days. Next, the plants were transferred back to 20Â°C and the eggs were removed, respectively. Next, all plants rested for 1 day at 20Â°C. Next, P. brassicae larvae were allowed to feed for 2 days on leaf 17 adjacent to the former egg deposit site or at a respective leaf region of chilling-treated or untreated plants. Control plants were not exposed to larvae. From all treated and untreated plants material from a leaf region proximal to the egg deposition and/or feeding site was harvested for transcriptome analysis.

2016-06-23 | E-GEOD-69623 | biostudies-arrayexpress

Gene expression in Arabidopsis leaves after P. brassicae egg deposition and/or herbivory by P. brassicae larvae

Project description:Plants can prepare their defense of impending herbivory, when they previously perceived eggs deposited by herbivores insect which reliably indicates that larvae will soon hatch and feed on the plants. Using Arabidopsis thaliana and Pieris brassicae we addressed the question whether prior egg deposition affects transcriptional changes in feeding-damaged plants. We determined the transcriptomes of Arabidopsis leaves that (i) were for six days deposited with eggs and suffered larval feeding for two days, (ii) suffered larval feeding for two days without prior egg deposition or (iii) were left untreated.

2018-10-04 | GSE94446 | GEO

Brassica nigra challenged by Pieris brassicae, eggs of Pieris brassicae, Xanthomonas campestris pv. raphani, Brevicoryne brassicae or by combined stresses eggs of P. brassicae / P. brassicae, X. campestris / P. brassicae, B. brassicae / P. brassicae

Project description:Brassica nigra plants, a Brassicaceae close to Arabidopsis thaliana, was used for combined stresses experiments. In this study, we performed a whole-genome microarray analysis on five-week-old plants and compared untreated plants and plants treated different single or dual stresses: the larvae Pieris brassicae, egg extract of Pieris brassicae, the bacterial Xanthomonas campestris pv. raphani, the aphid Brevicoryne brassicae or by combined stresses eggs of P. brassicae / P. brassicae, X. campestris / P. brassicae, B. brassicae / P. brassicae.

2017-03-31 | E-MTAB-5059 | biostudies-arrayexpress

RNA-Seq of Arabidopsis thaliana plants primed by insect eggs from Pieris brassicae and triggered by insect herbivory against untreated controls in two different developmental phases (vegetative vs. reproductive)

Project description:Plants can cope with stress better if they experience a mild form of the stress before the actual \\"real\\" stress event. In Arabidopsis thaliana it is known that plants that harboured eggs of the White cabbage butterfly (Pieris brassicae) before larval feeding can defend better against the herbivore stress. The main aim of the experiment was to compare the priming effect induced by insect egg deposition of Pieris brassicae between vegetative and reproductive (first open flowers) Arabidopsis thaliana plants on the transcriptional level. We used a full factorial setup consisting of a) untreated control plants , b) plants which experienced eggs for 6 days without larval feeding after that period, c) plants which experienced no eggs before larval feeding for 24 hours d) plants which experienced eggs for 6 days and larval herbivory for 24 hours. This setup was conducted with 6 week old vegetative plants and 10 week old reproductive plants were the first flowers were open. For all treatments leaf tissue from the leaves that experienced egg oviposition and/or larval feeding were collected. From reproductive plants flower buds were collected as well.

2022-05-10 | E-MTAB-9196 | biostudies-arrayexpress

Gene expression in Arabidopsis leaves after P. brassicae egg deposition

Project description:Characterization of Arabidopsis thaliana`s transcriptional response to Pieris brassicae eggs

2018-10-04 | GSE114041 | GEO

Plasmodiophora brassicae infection of Arabidopsis thaliana

Project description:Arabipdosis thaliana (ecotype Col-0) was infected with the root pathogen Plasmodiophora brassicae. Gene expression of the host plant has been analyzed at two time points after inoculation (10 and 23 days after inoculation) compared to the correspondend control plants.

2005-02-25 | E-MEXP-254 | biostudies-arrayexpress

Activation of plant defence in Brassica napus L. cv. Westar and transgenic MINELESS plants after attack by Mamestra brassicae (cabbage moth)

Project description:Plants within the Brassicaceae family have a unique defence mechanism known as the “glucosinolate-myrosinase” system. Upon tissue disruption by insect herbivores, glucosinolates are hydrolysed by the enzyme myrosinase (EC 3.2.1.147) into a variety of degradation products, which can deter insect herbivory. This process has been termed as “The Mustard Oil Bomb”. Seeds of Brassica napus have been genetically modified to remove myrosinase containing myrosin cells. The modified plants have been named MINELESS due to a lack of toxic mines in seeds. This study aimed to get insights into defence responses of B. napus wild-type and MINELESS seedlings, after being challenged by larvae of the generalist herbivore Mamestra brassicae. The microarray analysis showed 494 and 159 genes to be differentially regulated after M. brassicae feeding on wild-type and MINELESS seedlings, respectively. Many of the observed transcriptional responses i B. napus and the MINELESS mutant are related to those found in Arabidopsis thaliana plants when they are exposed to insects.

2015-01-01 | GSE40932 | GEO

Conserved Arabidopsis response to oviposition and crude egg extract treatment

Project description:Although a seemingly harmless developmental stage of herbivores, insect eggs trigger efficient plant defenses that include necrosis, callus formation, accumulation of ovicidal compounds and release of volatiles to attract egg predators. The large white butterfly Pieris brassicae deposits batches of 20-30 eggs onto Arabidopsis leaves, causing a large transcriptional reprograming that is drastically distinct from the expression profile triggered by larval feeding. Also, P. brassicae eggs induce localized cell death, accumulation of reactive oxygen species (ROS) and salicylic acid (SA), and expression of PTI-related genes, suggesting that egg-associated molecular patterns (EAMPs) activate a response that is similar to the response induced by microbial pathogens. We previously reported that a crude P. brassicae egg extract (EE, soluble fraction from crushed eggs) induced similar responses as oviposition, including ROS and SA accumulation, cell death and defense gene induction. In order to compare oviposition and EE treatment at the transcriptome level, we analyzed changes in transcipt abundance with P. brassicae EE or after natural oviposition. After 5 days, hundreds of genes were significantly upregulated by each treatment and their induction was highly similar between treatments. This conserved transcriptomic signature thus strongly supports our previous observations that oviposition and EE treatment trigger comparable responses in Arabidopsis.

2020-01-23 | GSE144091 | GEO

Brassica nigra challenged by ozone, Pieris brassicae and both ozone followed by P. brassicae feeding.

2017-02-10 | E-MTAB-5030 | biostudies-arrayexpress

Morphological and transcriptomic analysis reveal robust nonhost resistance response during chickpea interaction with Alternaria brassicae

Project description:Alternaria brassicae is a necrotrophic fungal pathogen which infects brassica crops and lead to huge loss in crop production. There is a need to exploit the novel resistance mechanism against A. brassicae. Under field condition, chickpea is the potential nonhost plant for A. brassicae. At molecular level, it is not known how the NHR in chickpea operates against A. brassicae. In present study, we did the transcriptomic analysis in chickpea plants exposed to nonhost pathogen, A. brassicae by using microarray. Chickpea plants were spray inoculated with the spore suspension of A. brassicae. The leaf samples were harvested after 24 hpi and 48 hpi from pathogen treated plants and from the mock-treated control plants. The Transcriptome analysis were done from the leaf samples obtained at both the time-points by microarray using Agilent ChickpeaGXP_8X60K chip. Our result suggested the robust transcriptional reprogramming leading to defense response against A. brassicae.

2019-09-01 | GSE119865 | GEO

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