|
| Pathogen-Host | Description of study (References) |
|
| Alternaria bassicicola-Arabidopsis | Study of change in the Arabidopsis secretome in response to salicylic acid and identifying of several proteins involved in pathogen response such as GDSL LIPASE1 (GLIP1) [231]. |
|
| Aphanomyces eutiches-Medicago truncatula | Identification of several proteins which play a major role during root adaptation to various stress conditions [232], and study of parasitic plant-pathogen interactions formed between legumes and this oomycete [233, 234]. |
|
| Black point disease-Barley | Identification of a novel late embryogenesis abundant (LEA) protein and a barley grain peroxidase 1 (BP1) that were specifically more abundant in healthy grain and black pointed grain, respectively [235]. |
|
| B. graminis hordei-Barley | Systematic shotgun proteomics analysis at different stages of development of powdery mildew in the host to gain further understanding of the biology during infection of this fungus [153]. |
|
| Cladosporium fulvum-Tomato | Identified 3 novel fungal secretory proteins [236]. |
|
| Cronartium ribicola-Pinus strobus | Study of molecular basis of white pine blister rust resistance [237]. |
|
| Diploidia scrobiculata-Pinus nigra Sphaeropsis sapinea-Pinus nigra | Study about defense protein responses in phloem of Austrian pine inoculated with D. scrobiculata and S. sapinea [238]. |
|
| Erysiphe pisi-Pea | Identification of proteins implicated in powdery mildew resistance [239]. |
|
| F. graminearum-Barley | Identification of proteins associated with resistance to Fusarium head blight in barley [240]. |
|
| F. graminearum-Wheat | Identification of proteins associated with resistance to Fusarium head blight in wheat [241] and which have a role in interaction between F. graminearum and T. aestivum [155]. |
|
| F. graminearum-Wheat | Identification of proteins associated with resistance to scab in wheat spikes [238]. |
|
| F. moniliforme-Arabidopsis | Study of changes in the extracellular matrix of A. thaliana cell suspension cultures with fungal pathogen elicitors of F. moniliforme [242]. |
|
| F. oxysporum-Sugar beet | Study of resistance to F. oxysporum disease [243]. |
|
| F. oxysporum-Tomato | Identification of 21 tomato and 7 fungal proteins in the xylem sap of tomato plants infected by F. oxysporum [156]. |
|
| F. verticillioides-Maize | Identification of protein change patterns in germinating maize embryos in response to infection with F. verticillioides [244]. |
|
| Fusarium-Arabidopsis | Identification of differentially expressed proteins in response to treatments with pathogen-derived elicitors to identify pivotal genes’ role in pathogen defence systems [245]. |
|
| Fusarium-Maize | Study of the role of the extracellular matrix in signal modulation during pathogen-induced defence responses [246]. |
|
| Gossypium hirsutum-Cotton | Identified pathogen-induced cotton proteins implicated in post-invasion defence reponses (PR-proteins related to oxidative burst), nitrogen metabolism, amino acid synthesis and isoprenoid synthesis [247]. |
|
| Hyaloperonospora parasitica-Arabidopsis B. cinerea-Arabidopsis | Study of pathogenic resistance of Arabidopsis wild-type and CaHIR1-overexpressing transgenic plants inoculated with these fungi, among other pathogens [248]. |
|
| Leptosphaeria maculans-Brassica | Identification of Brassica proteins involved in resistance to this fungus [249]. |
|
| L. maculans-Brassica carinata L. maculans-Brassica napus | Study of changes in the leaf protein profiles of Brassica napus (highly susceptible) and Brassica carinata (highly resistant) in order to understand the biochemical basis for the observed resistance to L. maculans [250]. |
|
| M. grisea-Rice | Change protein analysis during blast fungus infection of rice leaves with different levels of nitrogen nutrient [251]. Analysis of differentially expressed proteins induced by blast fungus in suspension-cultured cells [252] in leaves [253] and during appressorium formation [254]. Proteomic approach of differentially expressed proteins in rice plant leaves at 12 h and 24 h after treatment with the glycoprotein elicitor CSB I, purified from ZC(13), a race of the rice blast fungus M. grisea [255]. |
|
| Marsonina brunnea f. sp. Multigermtub-Populus euramericana | Identification of proteins related to black spot disease resistance in poplar leaves [256]. |
|
| Moliniophtora perniciosa-Cocoa | Optimization of protein extraction for cocoa leaves and meristemes infected by this fungus that causes witches’ broom disease [257]. |
|
| Nectria haematococca-Pea | Study of extracellular proteins in pea roots inoculated with N. haematococca [258]. |
|
| Penincillium exposum-Piccia membranefaciens-Peach fruit | Peach fruit inoculated with P. exposum and treated with SA and P. membranefaciens [259]. |
|
| Phellinus sulphurasces-Pseudotsuga menzeii | Comparative proteomic study to explore the molecular mechanisms that underlie the defense response of Douglas-fir to laminated root rot disease caused by P. sulphurascens [260]. |
|
| Peronospora viciae-Pea | Catalogued host (pea) leaf proteins, which showed alternation in their abundance levels during a compatible interaction with P. viciae [261]. |
|
| Plasmodiophora brassicae-Brassica napus | Study of changes in the root protein profile of canola with clubroot disease [262]. |
|
| Puccinia triticina-Wheat | Change analysis in the proteomes of both host and pathogen during development of wheat leaf rust disease [154]. |
|
| Rhizoctonia solani-Rice | Identification of proteins and DNA markers in rice associated with response to infection by R. solani [263]. |
|
| Rust-Phaseolus vulgaris | Study of basal and R-gene-mediated plant defense in bean leaves against this pathogen [264]. |
|
| S. sclerotiorum-Brassica napus | Study of changes in the leaf proteome of B. napus accompanying infection by S. sclerotiorum [265]. |
|
