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Magdalena Krzymowska

Explore the profile of Magdalena Krzymowska including associated specialties, affiliations and a list of published articles. Areas
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Articles 17
Citations 371
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Recent Articles
1.
Giska F, Rymaszewski W, Lichocka M, Piechocki M, Kwiatkowski J, Poznanski J, et al.
Sci Rep . 2024 Dec; 14(1):31796. PMID: 39738557
Virulence of many gram-negative bacteria relies upon delivery of type three effectors into host cells. To pass through the conduit of secretion machinery the effectors need to acquire an extended...
2.
Rymaszewski W, Giska F, Piechocki M, Zembek P, Krzymowska M
Front Plant Sci . 2024 Mar; 15:1335830. PMID: 38501137
HopQ1, a type three effector from upon phosphorylation coopts plant 14-3-3 proteins to control its stability and subcellular localization. Mass spectrometry of the cytoplasm-restricted effector revealed that HopQ1 already in...
3.
Lichocka M, Krzymowska M, Gorecka M, Hennig J
J Exp Bot . 2021 Sep; 73(1):94-109. PMID: 34522949
In Arabidopsis, a dry stigma surface enables a gradual hydration of pollen grains by a controlled release of water. Occasionally the grains may be exposed to extreme precipitations that cause...
4.
Lopez V, Park B, Nowak D, Sreelatha A, Zembek P, Fernandez J, et al.
Cell . 2019 Sep; 179(1):205-218.e21. PMID: 31522888
The molecular chaperone HSP90 facilitates the folding of several client proteins, including innate immune receptors and protein kinases. HSP90 is an essential component of plant and animal immunity, yet pathogenic...
5.
Lichocka M, Rymaszewski W, Morgiewicz K, Barymow-Filoniuk I, Chlebowski A, Sobczak M, et al.
BMC Plant Biol . 2018 Sep; 18(1):183. PMID: 30189843
Background: Pollen development is a strictly controlled post-meiotic process during which microspores differentiate into microgametophytes and profound structural and functional changes occur in organelles. Annexin 5 is a calcium- and...
6.
Zembek P, Danilecka A, Hoser R, Eschen-Lippold L, Benicka M, Grech-Baran M, et al.
Front Plant Sci . 2018 Jul; 9:978. PMID: 30042777
employs a battery of type three secretion effectors to subvert plant immune responses. In turn, plants have developed receptors that recognize some of the bacterial effectors. Two strain-specific HopQ1 effector...
7.
Piechocki M, Giska F, Koczyk G, Grynberg M, Krzymowska M
Front Microbiol . 2018 Jul; 9:1060. PMID: 29973916
pv. is the causative agent of halo blight in common bean (). Similar to other pathogenic gram-negative bacteria, it secrets a set of type III effectors into host cells to...
8.
Redkar A, Hoser R, Schilling L, Zechmann B, Krzymowska M, Walbot V, et al.
Plant Cell . 2015 Apr; 27(4):1332-51. PMID: 25888589
The biotrophic smut fungus Ustilago maydis infects all aerial organs of maize (Zea mays) and induces tumors in the plant tissues. U. maydis deploys many effector proteins to manipulate its...
9.
Hoser R, Lichocka M, Zurczak M, Hennig J, Krzymowska M
Plant Signal Behav . 2014 Apr; 9(4). PMID: 24731991
Plant nucleotide-binding (NB) and leucine-rich repeat (LRR) receptors mediate effector-triggered immunity. Two major classes of NB-LRR proteins are involved in this process, namely, toll-interleukin receptor (TIR)-NB-LRR and coiled coil (CC)-NB-LRR...
10.
Hoser R, Zurczak M, Lichocka M, Zuzga S, Dadlez M, Samuel M, et al.
New Phytol . 2013 Jun; 200(1):158-171. PMID: 23731343
SGT1 (Suppressor of G2 allele of SKP1) is required to maintain plant disease Resistance (R) proteins with Nucleotide-Binding (NB) and Leucine-Rich Repeat (LRR) domains in an inactive but signaling-competent state....