| NIS1 knockout (KO) mutant of C. orbiculare |
was not affected in |
virulence |
Colletotrichum orbiculare |
| in planta transcriptome analysis of multiple C. orbiculare isolates |
identified |
30 C. orbiculare 'core' effector candidates |
Colletotrichum orbiculare |
| appressorium with high turgor pressure |
penetrates through |
cuticle |
Magnaporthe oryzae |
| defects in target protein N-glycosylation |
negatively affect |
pathogenicity of Colletotrichum graminicola |
Colletotrichum graminicola |
| MoPHZG deletion mutant |
caused defects in |
pathogenicity of Magnaporthe oryzae |
Magnaporthe oryzae |
| Fulvia fulva |
causes |
leaf mould |
Solanum lycopersicum |
| context-dependent insect viruses |
decreases |
host fertility |
|
| Ustilago maydis |
uses strategy of reorganizing |
fungal cell wall structure |
Ustilago maydis |
| CL13 strain |
has |
attenuated virulence |
Ustilago maydis |
| (ATBARD1, BARD1, ROW1, AT1G04020) |
may function as |
secreted PCWDE |
Ustilago maydis |
| Fol fungus |
colonizes |
vascular system |
|
| successful fungal plant pathogens |
secrete |
effector arsenals |
|
| different sets of effector proteins |
are required and employed for |
infection of distinct hosts by C. orbiculare |
Colletotrichum orbiculare |
| Xanthomonas campestris pv campestris CN08 TALEs |
are relevant for |
symptom development in cauliflower |
Xanthomonas campestris pv campestris CN08 |
| EMC |
participates directly in |
pathogenicity |
Magnaporthe oryzae |
| ST99CH_3D7 (3D7) |
is highly virulent in |
resistant and susceptible wheat hosts |
Zymoseptoria tritici; Triticum aestivum |
| oomycetes |
are |
some of the most devastating plant and animal pathogens |
|
| (ATBARD1, BARD1, ROW1, AT1G04020) deletion mutants |
compromises |
infection |
Ustilago maydis |
| Pt9029 |
enhances pathogenicity of |
Puccinia triticina |
Triticum aestivum; Puccinia triticina |
| Fusarium oxysporum |
causes |
Fusarium keratitis |
|
| impaired fungal virulence due to FolSir2 silencing |
is independent of |
fungal growth |
Fusarium oxysporum |
| Prototheca wickerhamii |
causes |
protothecosis |
Prototheca wickerhamii |
| ΔhopS2b mutant strain |
shows reduced |
(PDE329, PSA3, AT3G55250) V-13 growth in planta |
Actinidia chinensis var. chinensis |
| Arabidopsis (ANAC034, ANAC035, AtLOV1, LOV1, NAC035, AT2G02450) |
confers susceptibility to |
victorin toxin from Cochliobolus victoriae |
Arabidopsis thaliana |
| TALE-mediated activation of SWEET genes |
is shown in |
rice, cotton, and cassava |
Oryza sativa; Gossypium; Manihot esculenta |
| Δ Mophzf mutant |
caused fewer and smaller lesions compared with |
Guy11 and Δ Mophzf/MoPHZF |
Magnaporthe oryzae; Oryza sativa |
| harmful insect viruses |
damage hosts by killing them or reducing their fertility |
insect host fitness |
|
| Magnaporthe oryzae Triticum pathotype |
causes |
wheat blast disease |
Magnaporthe oryzae; Triticum |
| AvrE1d |
is required for |
virulence in (PDE329, PSA3, AT3G55250) V-13 infection of 'Hort16A' |
Actinidia chinensis var. chinensis |
| AvrB2b |
quantitatively increased virulence of |
Pfm LV-5 ΔhopA1a / ΔhopE1a on 'Hort16A' plants |
Actinidia chinensis var. chinensis |
| EPC genes |
contribute to |
cucurbit host-specific virulence |
Colletotrichum orbiculare |
| five unrelated secreted proteins |
are highly expressed during infection on |
both cucumber and N. benthamiana |
Colletotrichum orbiculare |
| Xanthomonas perforans ∆ xopQ ∆ xopJ4 ∆ avrBsT strain |
showed similar growth in |
GUS-VIGS and NbPtr1-NbZAR1-VIGS |
Xanthomonas perforans; Nicotiana benthamiana |
| glucanases |
facilitate |
dynamic cell wall remodelling |
|
| PpE18-ko-2 and PpE18-ko-24 mutants |
produced smaller lesions compared with |
WT Pp016 |
Phytophthora parasitica |
| Disruption of major virulence tale genes |
results in |
dramatic reduction of pathogen aggressiveness and/or virulence |
Xanthomonas |
| UmSir2 overexpression |
reduces |
tumour formation in the plant |
Ustilago maydis |
| effector genes |
are concertedly expressed throughout |
lifecycle of plant-pathogenic fungi |
|
| race 2 (R2) strains of Fusarium oxysporum causing FWB |
infect |
Bluggoe |
Fusarium oxysporum |
| extensive variation in accessory regions and effector profiles of R1 strains |
possibly suggests that |
different mechanisms contribute to disease in banana |
Fusarium oxysporum |
| (UBP15, AT1G17110) mutant |
Tri4 and Gpmk1 were overexpressed in |
rescue of defects in DON production and formation of penetration structures |
Fusarium graminearum |
| pathogens |
respond by releasing |
effector proteins |
|
| loss of GPI |
compromises |
virulence |
fungal pathogens |
| Δ (ATBARD1, BARD1, ROW1, AT1G04020) infections |
still cause |
tumour formation |
Zea mays |
| PpE18-ko-2 and PpE18-ko-24 mutants |
showed significantly reduced |
virulence |
Phytophthora parasitica |
| movement of hyphae from root cortex to xylem vessels |
is critical for |
disease progression |
|
| four unrelated secreted proteins of unknown function |
are not required for |
virulence to the Solanaceae host, N. benthamiana |
Colletotrichum orbiculare; Nicotiana benthamiana |
| pathogens |
sterilize |
flowers |
|
| adapted pathogens |
secrete |
effectors |
|
| Botrytis cinerea BcRDR1 |
influences |
tomato infection |
Botrytis cinerea |
| plasmid complementation of HopD1a, AvrB2b, HopD2a and HopAW1a |
confirmed that these four effectors were individually able to restore |
ΔxEEL mutant's loss of virulence |
Actinidia chinensis var. chinensis |
| four unrelated secreted proteins of unknown function |
are required for |
full virulence to the Cucurbitaceae host, cucumber |
Colletotrichum orbiculare |
| G-protein-coupled receptor (Pth11) and membrane sensors MoMsb2 and MoSho1 |
regulate |
appressorium formation |
Magnaporthe oryzae |
| Fusarium wilt of banana (FWB) |
is caused by |
suite of Fusarium oxysporum species |
Fusarium oxysporum |
| lack of (UBP15, AT1G17110) |
potentially impacts |
ubiquitination and subsequent protein levels of additional proteins involved in penetration structure formation |
Fusarium graminearum |
| altered secretion |
may compromise |
appressorium biology |
Ustilago maydis |
| overexpression of GFP-NbAPX3-1 |
resulted in significantly smaller lesions compared with |
control Flag-GFP |
Nicotiana benthamiana |
| hopZ5a |
quantitatively increased virulence of |
Pfm LV-5 ΔhopA1a / ΔhopE1a on 'Hort16A' plants |
Actinidia chinensis var. chinensis |
| avrRpm1a |
did not alter virulence when knocked out individually in |
(PDE329, PSA3, AT3G55250) V-13 |
Actinidia chinensis var. chinensis |
| 15 Z. tritici strains (65%) |
are virulent on |
at least one resistant host |
Zymoseptoria tritici; Triticum aestivum |
| extensive accessory regions |
have been linked to |
pathogenicity toward specific hosts |
Fusarium oxysporum |
| down-regulation of Tri4 and Gpmk1 in the (UBP15, AT1G17110) mutant |
was associated with |
infection structure formation |
Fusarium graminearum |
| understanding how ubiquitination is involved in the regulation of fungal development and infection |
may lead to |
development of novel methods for controlling fungal diseases |
|
| effector proteins |
promote |
host colonisation and disease |
Solanum lycopersicum |
| Blumeria graminis |
have |
nonmelanized or slightly melanized appressoria |
Blumeria graminis |
| row1::gfp allele |
does not affect |
(ATBARD1, BARD1, ROW1, AT1G04020) functionality |
Ustilago maydis |
| Row1::GFP |
shows specific localization at |
appressorium |
Ustilago maydis |
| effectors |
promote |
fungal penetration, colonization, and tumour formation |
Zea mays |
| all mutants except Δ row3 |
had |
reduced virulence |
Ustilago maydis |
| tan spot |
is caused by |
Pyrenophora tritici-repentis |
|
| gray leaf spot |
is caused by |
Cercospora zeae-maydis |
|
| Zymoseptoria pseudotritici and Zymoseptoria ardabiliae |
are pathogenic on |
wild grasses |
Zymoseptoria pseudotritici; Zymoseptoria ardabiliae |
| X. perforans ∆ xopQ ∆ xopJ4 lacking avrBsT (∆ xopQ ∆ xopJ4 ∆ avrBsT) |
was used for |
bacterial growth assays |
Xanthomonas perforans; Nicotiana benthamiana |
| Magnaporthe oryzae ROS suppression |
allows |
adaptation to the host environment and rapid colonization within the host tissue |
Magnaporthe oryzae |
| Fungal RdRPs |
influence |
host infection |
fungi |
| Δ row2 mutant |
presented |
lowest virulence capacity |
Ustilago maydis |
| HopA1a Pfm and HopE1a Pfm |
were associated with |
reduction of (PDE329, PSA3, AT3G55250) V-13 virulence in 'Hort16A' plants |
Actinidia chinensis var. chinensis |
| TALE genes |
are conserved in |
most species of the plant-pathogen genus Xanthomonas |
Xanthomonas |
| host susceptibility (S) genes |
confer |
fitness advantages to the pathogen |
|
| strong immune response |
fully arrests |
disease progression |
|
| expression of Avr3D1 3D1 and Avr3D1 ISR398 |
led to decrease in |
percentage of fungal individuals in contact with host stomata that grew apoplastically |
Zymoseptoria tritici; Triticum aestivum |
| Secreted In Xylem (SIX) effectors |
are localized in |
accessory regions (ARs) |
Fusarium oxysporum |
| (ATBARD1, BARD1, ROW1, AT1G04020) |
is identified as |
GPI effector protein |
Ustilago maydis |
| Δ (ATBARD1, BARD1, ROW1, AT1G04020) mutant strain |
had lower percentage of |
filaments forming appressoria |
Ustilago maydis |
| GFP-PpE18 expressing leaf sides |
exhibited significantly larger lesions compared with |
GFP control |
Nicotiana benthamiana |
| ΔxEEL mutant strain |
shows reduced |
(PDE329, PSA3, AT3G55250) V-13 growth in planta |
Actinidia chinensis var. chinensis |
| knockout of xEEL in ΔCEL background |
reduced virulence to similar extent as |
avirulent ΔhrcC mutant |
Actinidia chinensis var. chinensis |
| targeted gene KO |
revealed |
four unrelated secreted proteins of unknown function |
Colletotrichum orbiculare |
| other microbes |
are |
plant pathogens |
|
| overexpressing Gpmk1 and Tri4 in the (UBP15, AT1G17110) mutant |
could not completely rescue |
defects in the formation of infection structures |
Fusarium graminearum |
| cell wall modification |
improves |
infectivity |
|
| Ustilago maydis |
uses strategy of converting |
chitin to chitosan |
Ustilago maydis |
| successful host tissue colonization |
leads to |
subsequent tumour formation |
Zea mays |
| lesion expansion |
is associated with |
increase of fungal DNA |
Arabidopsis thaliana |
| loss of hopAS1b |
has not been identified to significantly affect |
virulence of (PDE329, PSA3, AT3G55250) V-13 |
|
| HopF1e |
quantitatively increased virulence of |
Pfm LV-5 ΔhopA1a / ΔhopE1a on 'Hort16A' plants |
Actinidia chinensis var. chinensis |
| MoAa91 |
exhibits diverse dual functions as |
novel signaling molecule and effector |
Magnaporthe oryzae |
| differences in effector profiles of R1 strains |
might relate to |
quantitative differences in banana corm-discoloration |
Fusarium oxysporum |
| fungi |
undergo |
dynamic cell wall remodelling |
|
| (ATBARD1, BARD1, ROW1, AT1G04020) |
is induced during |
infection |
Ustilago maydis |
| Δ (ATBARD1, BARD1, ROW1, AT1G04020) Δ row2 Δ row4 triple mutant |
showed less severe symptoms than |
double mutant |
Zea mays |
| Pto DC3000 |
infects |
nonhost Nicotiana benthamiana and native host tomato |
Pseudomonas syringae pv. tomato DC3000; Nicotiana benthamiana; Solanum lycopersicum |
| S genes discovered so far |
can be grouped into |
two main functional categories: transcriptional master regulators and nutrient release systems |
|
| Pathogenicity assays with Xoo and Xc |
confirmed |
crucial role of the tale gene family in Xoo |
Xanthomonas oryzae pv oryzae; Xanthomonas cassavae |
| Avr3D1 isoforms from ISY_Ar_19e, IPO87019, ISY_Ar_16h, and ISR398 |
reduced |
symptoms more than Avr3D1 3D1 |
Zymoseptoria tritici; Triticum aestivum |
| penetration efficiency |
is, similarly to virulence, a |
quantitative trait governed by Avr sequence polymorphisms |
Zymoseptoria tritici |
| appressorium |
plays key role in |
host invasion |
Magnaporthe oryzae |
| study of ARs in Fusarium oxysporum strains infecting banana |
would provide insights into |
relation of ARs to pathogenicity |
Fusarium oxysporum |
| endogenous siRNAs generation |
impacts |
Valsa mali's infection of apple |
Valsa mali |
| pathogens |
use |
effectors |
|
| Row family conservation in pathogenic fungi |
suggests |
(ATBARD1, BARD1, ROW1, AT1G04020) is part of a family with similar virulence-related functions |
Basidiomycota |
| NIS1 |
is dispensable for |
host infection by C. orbiculare |
Colletotrichum orbiculare |
| fungi and oomycetes |
display strikingly similar strategies in |
interactions with plant hosts |
|
| overexpression of the Gpmk1 protein alone |
might not be sufficient to restore |
defects in the formation of the penetration structures |
Fusarium graminearum |
| Fusarium graminearum fgrdrp3 knock-out strain |
exhibited decreased |
pathogenicity on inoculated wheat |
Fusarium graminearum |
| Ustilago maydis |
modifies |
its own cell wall |
Ustilago maydis |
| Δ (ATBARD1, BARD1, ROW1, AT1G04020) Δ row2 double mutant |
caused significantly less severe symptoms than |
single mutants |
Zea mays |
| grapevine downy mildew |
is a global threat to |
Eurasian wine grapes (Vitis vinifera) |
Vitis vinifera |
| PpE18 |
is |
virulence factor |
Phytophthora parasitica |
| PpE18 |
encodes |
conserved effector |
Phytophthora parasitica |
| quadruple-locus knockout of ΔCEL / ΔxEEL / ΔhopS2b / ΔhopAZ1a |
was no different from |
ΔhrcC mutant |
Actinidia chinensis var. chinensis |
| effector genes |
have been cloned and characterized in |
(BGT, GCN5, HAC3, HAG01, HAG1, HAT1, AT3G54610) |
Blumeria graminis |
| mutating the N-glycosylation sites in CgCNX1 from Asn to Ala |
caused |
similar loss of pathogenicity to the complete loss of CgCNX1 function |
Colletotrichum graminicola |
| Row family |
is involved in |
Ustilago maydis virulence |
Ustilago maydis |
| Phakopsora pachyrhizi |
have |
nonmelanized or slightly melanized appressoria |
Phakopsora pachyrhizi |
| knockout of hopS2b and hopAZ1a in addition to ΔCEL |
reduced virulence to similar extent as |
avirulent ΔhrcC mutant |
Actinidia chinensis var. chinensis |
| Colletotrichum orbiculare |
develops |
appressoria |
Colletotrichum orbiculare |
| strains expressing the same Avr3D1 allele |
display different |
virulence phenotypes in certain hosts |
Zymoseptoria tritici |
| phenazine-1-carboxylic acid (PCA) suppression of host ROS accumulation |
promotes |
Magnaporthe oryzae infection |
Magnaporthe oryzae |
| Δ (ATBARD1, BARD1, ROW1, AT1G04020) mutant strain |
has |
poorer appressorium formation |
Ustilago maydis |
| (PDE329, PSA3, AT3G55250) quadruple mutant (ΔhopH1a ΔhopZ5a ΔavrPto1b ΔavrRpm1a) |
showed large drop in |
virulence |
Actinidia chinensis var. chinensis |
| C. orbiculare |
is predicted to encode |
hundreds of effector-like small secreted proteins |
Colletotrichum orbiculare |
| TALEs |
play important roles in |
virulence and avirulence of many Xanthomonas species |
Xanthomonas |
| Δ Cgalg3 mutant strains |
showed severely impaired |
pathogenicity |
Colletotrichum graminicola |
| secretion of PCWDEs and effectors |
is particularly important for |
host invasion |
|
| subtilases |
are identified as |
potential virulence factors |
|
| loss of hopAS1b |
did not affect |
virulence of (PDE329, PSA3, AT3G55250) V-13 |
Actinidia chinensis var. chinensis |
| hopA1a delivery |
barely reduced |
(PDE329, PSA3, AT3G55250) V-13-induced virulence in 'Hort16A' |
Actinidia chinensis var. chinensis |
| (PDE329, PSA3, AT3G55250) effectors |
act together in |
dynamic complex to facilitate 'Hort16A' infection |
Actinidia chinensis var. chinensis |
| five unrelated secreted proteins |
simultaneous deletion resulted in |
virulence reduction in both cucumber and N. benthamiana |
Colletotrichum orbiculare; Nicotiana benthamiana |
| MoEmc5 knockout strains |
display |
reduced virulence on host plants |
Magnaporthe oryzae |
| isogenic mutant lines expressing Avr3D1 3D1 and Avr3D1 ISR398 |
led to decrease in |
penetration efficiency |
Zymoseptoria tritici; Triticum aestivum |
| PCA treatment |
promoted percentages of |
type 3 and type 4 invasive hyphae |
Magnaporthe oryzae; Oryza sativa |
| MoPhzF |
might be involved in |
septin-dependent host infection |
Magnaporthe oryzae |
| TR4 |
causes FWB in |
Cavendish |
Fusarium oxysporum |
| deoxynivalenol (DON) |
is |
critical virulence factor |
Fusarium graminearum |
| VmAGO genes |
are crucial for |
pathogenicity |
Valsa mali |
| complementation with plasmid-borne designer TALEs lacking sgRNA-targeted sequence |
restored |
virulence phenotypes |
Xanthomonas phaseoli pv manihotis; Xanthomonas campestris pv campestris; Xanthomonas cassavae |
| magnesium ion transporters MoAlr2 and MoMnr2 |
contribute to |
fungal pathogenicity |
Magnaporthe oryzae |
| recognized effectors |
restrict |
pathogen virulence |
|
| pathogens |
cause |
tissue death |
|
| ash dieback pathogen (ADB; Hymenoscyphus pseudoalbidus) |
threatens |
ash survival |
Fraxinus spp. |
| Pst DC3000 ∆ hopQ1-1 strain |
evades recognition and can cause |
disease |
Nicotiana benthamiana |
| accessory regions |
contain |
most SIX effectors |
Fusarium oxysporum |
| conserved protein family of six members |
are involved in |
pathogenesis |
|
| (ATBARD1, BARD1, ROW1, AT1G04020) |
is important for |
appressoria progression |
Ustilago maydis |
| appressoria progression |
facilitates |
successful host tissue colonization |
Ustilago maydis |
| row2::gfp allele |
did not affect |
Row2 functionality |
Ustilago maydis |
| (ATBARD1, BARD1, ROW1, AT1G04020) and Row2 |
have |
functional redundancy |
Ustilago maydis |
| Magnaporthe oryzae strains closely related to B71 |
caused |
wheat blast outbreaks in South Asia and Africa |
Magnaporthe oryzae |
| Alternaria brassicicola |
is |
necrotrophic fungus |
Arabidopsis thaliana |
| HopE1a delivery |
largely eliminated |
(PDE329, PSA3, AT3G55250) V-13-induced disease symptoms in 'Hort16A' |
Actinidia chinensis var. chinensis |
| HR |
facilitates |
pathogenesis of the necrotrophic pathogens that produce them |
|
| northern leaf blight |
is caused by |
Exserohilum turcicum |
|
| Z. ardabiliae |
exhibited unsuccessful attempts of |
stomata penetration |
Zymoseptoria ardabiliae; Triticum aestivum |
| both homologues |
led to reduction in |
symptoms in susceptible cultivar Drifter |
Triticum aestivum; Zymoseptoria pseudotritici; Zymoseptoria ardabiliae |
| Pseudomonas syringae pv. actinidifoliorum (Pfm) LV-5 |
is incapable of causing |
prolific disease symptoms in 'Hort16A' |
Actinidia chinensis var. chinensis |
| necrotrophic pathogens |
cause |
cell death in their host |
|
| one accessory region in Fusarium oxysporum strains infecting strawberry |
contributes to |
yellowing |
Fusarium oxysporum |
| Botrytis cinerea BcRDR1 |
influences |
Arabidopsis thaliana infection |
Botrytis cinerea; Arabidopsis thaliana |
| appressorium |
is essential for |
establishing virulence |
pathogenic fungi |
| GFP-NbAPX3-1 H89A |
resulted in larger lesion sizes compared with |
GFP-NbAPX3-1 |
Nicotiana benthamiana |
| Fol fungus |
germinates and adheres to |
root surface |
|
| MeSWEET10a sugar transporter targeting by Xanthomonas cassavae TALEs |
is |
example of TALE functional convergence between phylogenetically distant Xanthomonas |
Xanthomonas cassavae; Xanthomonas campestris pv campestris |
| N-glycosylation |
is essential for |
pathogen growth and virulence |
Ustilago maydis; Magnaporthe oryzae; Mycosphaerella graminicola; Phytophthora sojae |
| Magnaporthe oryzae |
is causal agent of |
rice blast disease |
Magnaporthe oryzae |
| (ATBARD1, BARD1, ROW1, AT1G04020) Row2 and Row4 |
might have |
redundant functions during pathogenesis |
Ustilago maydis |
| increased ROS levels within the peroxisome |
may create |
more favorable environment for Phytophthora parasitica infection |
Nicotiana benthamiana |
| host-specific toxins (HSTs) |
are also known as |
necrotrophic effectors |
|
| conidium of Magnaporthe oryzae |
forms |
appressorium |
Magnaporthe oryzae |
| avrPto1b |
did not alter virulence when knocked out individually in |
(PDE329, PSA3, AT3G55250) V-13 |
Actinidia chinensis var. chinensis |
| (ATUBP14, DA3, PER1, TARANI, TNI, TTN6, UBP14, AT3G20630) mutant |
exhibited |
complete loss of pathogenicity |
Magnaporthe oryzae |
| Row1::GFP |
shows no signal in |
filament before or after appressorium formation |
Ustilago maydis |
| Fol vascular colonization |
results in |
wilt symptoms |
|
| elevated levels of nonhistone acetylation due to silencing FolSir2 |
led to |
impaired fungal virulence |
Fusarium oxysporum |
| pectin methylesterases (PMEs) |
is important for |
virulence of Botrytis cinerea |
Botrytis cinerea |
| surfaces of the fish pathogen Trypanosoma carassii |
are covered in |
mucins |
Trypanosoma carassii |
| (VIK, AT1G14000) |
is required for |
infection by Phytophthora infestans |
Nicotiana benthamiana; Phytophthora infestans |
| Kresek disease symptoms |
are similar to |
symptoms of pathogen-infected rice roots |
Oryza sativa |
| pathogenicity of U. maydis with UmSrt1 deleted |
was restored when transformed with |
(ATSUC9, SUC9, AT5G06170) |
Ustilago maydis |
| XopI restraint of rice SAR immunity |
occurs in |
compatible interaction between African Xoo strain BAI3 and rice |
Oryza sativa |
| host-selective toxins (HSTs) |
evoke |
susceptibility |
|
| Isolates of PTR that produce ToxA |
induce |
necrosis in ToxA-sensitive wheat cultivars |
Triticum aestivum |
| (AtTudor1, TSN1, Tudor1, AT5G07350) |
conditions |
wheat sensitivity to ToxA toxin |
Triticum aestivum |
| mucins on parasite surfaces |
participate in |
interactions with host cells during the invasion process |
|
| mucin-like proteins |
have been detected in |
fungal pathogens |
|
| melanin |
is |
important virulence factor for many pathogenic fungi |
|
| phosphorylated AvrPto |
was found to promote |
AvrPto-mediated virulence and avirulence of Pseudomonas syringae in tomato leaves |
Pseudomonas syringae; Solanum lycopersicum |
| virulence effector proteins |
are delivered into hosts to suppress |
basal defense response |
|
| crucial fungal components involved in pathogenicity |
is less known about |
|
Verticillium dahliae |
| pathogens |
have evolved |
repertoire of virulence effector proteins |
|
| ToxA-sensitive wheat cultivars |
exhibit necrosis in an 'inverse' gene-for-gene fashion |
inverse gene-for-gene interaction |
Triticum aestivum |
| Ptr ToxA |
is |
first isolated proteinaceous (ATHST, HST, PDS2, AT3G11945) |
|
| Xanthomonas oryzae pv. oryzae P6 (P6–GUS) |
did not change |
virulence on line 106 and TP309 |
Oryza sativa; Xanthomonas oryzae pv. oryzae |
| xopI knockout mutant |
displays lower virulence than |
BAI3 |
Xanthomonas oryzae pv. oryzae |
| shutdown of PR gene expression |
further leads to |
successful compatible interaction between African Xoo strain BAI3 and rice |
Oryza sativa |
| HopF1c and HopF4a |
are not associated with increases in |
virulence in Pfm LV-5 |
Actinidia chinensis var. chinensis |
| Magnaporthe oryzae |
is the causal agent of |
rice blast disease |
Magnaporthe oryzae |
| PCA treatment |
partially rescued |
virulence of Δ Mophzf and Δ Mophzf/MoPHZF E77D |
Magnaporthe oryzae; Oryza sativa |
| race 1 (R1) strains of Fusarium oxysporum causing FWB |
cause FWB in |
Gros Michel |
Fusarium oxysporum |
| fungi |
undergoes morphological changes to develop |
filaments |
|
| (ATBARD1, BARD1, ROW1, AT1G04020) expression |
occurs at |
1 day postinoculation (dpi) |
Ustilago maydis |
| (ATBARD1, BARD1, ROW1, AT1G04020) |
is important for |
appressorium |
Ustilago maydis |
| Fusarium oxysporum f.sp. lycopersici (Fol) |
causes |
tomato wilt |
|
| FolSir2-mediated removal of K271ac |
accounts for |
changes of fungal virulence |
Fusarium oxysporum |
| UmSrt1 |
was characterized and shown to be |
essential for effective infection |
Ustilago maydis |
| hrpA mutant of Pseudomonas syringae pv. tomato DC3000 |
is defective in |
type III secretion system |
Pseudomonas syringae pv. tomato DC3000 |
| spruce bark beetle (Ips typographus) |
coinvades host trees along with |
Ceratocystis polonica |
Ips typographus; Ceratocystis polonica; Picea abies |
| fusicoccin |
could be |
virulence factor during the necrotrophic growth stage of the F. amygdale disease cycle |
|
| circadian clock |
affects |
susceptible host |
|
| chrysanthemum flowers |
have |
moderate susceptibility to Botrytis cinerea |
Chrysanthemum |
| fungal secretory proteins |
expanded understanding from being |
effectors in plant-pathogen interaction to multitrophic interplay |
|
| fungi |
infect |
different organs of dicotyledonous hosts |
|
| cellulase genes |
are upregulated during |
plant infection |
|
| virulence factors |
include |
effectors |
|
| certain host-derived immune elicitors |
are enriched by |
virulence activities of necrotrophs |
|
| Parastagonospora nodorum |
produces |
eight effectors with nine interacting host susceptibility genes |
Parastagonospora nodorum |
| Botrytis cinerea |
exhibits |
effector degeneracy |
Botrytis cinerea |
| Pseudomonas |
produce |
syringomycin |
|
| Ptr ToxA (ToxA) |
acts as |
virulence factor |
Triticum aestivum; Pyrenophora tritici-repentis |
| ToxA protein |
is product of |
ToxA gene |
Pyrenophora tritici-repentis |
| (NIP1, AT2G17750) |
can act as |
virulence factor on susceptible hosts |
Hordeum vulgare; Rhynchosporium secalis |
| UmSrt1 |
is |
essential gene for virulence symptoms |
Ustilago maydis |
| R. solani |
is |
necrotrophic pathogen |
|
| Pseudomonas syringae pv. actinidiae (Psa) infection |
causes |
necrotic lesions on leaves |
|
| Pseudomonas syringae virulence effector proteins targeting PTI signaling components |
results in increased |
bacterial virulence |
Pseudomonas syringae |
| Cercospora beticola |
produces |
beticolin toxins |
|
| HopZ1a |
is |
member of the YopJ family |
Pseudomonas syringae |
| S-nitrosylation |
contributes to |
pathogen virulence mechanisms |
|
| fungal and oomycete pathogens |
secrete |
complex arrays of proteins |
|
| filamentous plant pathogens |
cause disease in |
economically important crops |
|
| phytopathogenic oomycetes |
pose threat to |
agriculture and global food security |
|
| virulence proteins (effectors) |
modulate |
host physiology or immunity |
|
| short list of proteases with known substrates |
hints at |
vast potential of protease-dependent virulence mechanisms still to be discovered |
|
| High-Temperature Requirement A (HtrA) |
supports pathogenesis by cleaving |
proteins essential to host cell-to-cell adhesion |
Helicobacter pylori |
| NIP1-mediated necrosis |
enables |
Rhynchosporium secalis to acquire nutrients from necrotic tissue |
Hordeum vulgare; Rhynchosporium secalis |
| physical plant barriers |
must be overcome by |
successful pathogen attack |
|
| Pseudomonas syringae mutants each carrying a singular effector |
were co-inoculated onto |
Arabidopsis |
Arabidopsis thaliana |
| white rust disease |
is characterized by |
staghead galls formed as result of inflorescence infection |
Brassica juncea |
| effector proteins |
promote |
microbial virulence |
|
| HopZ1a |
belongs to |
YopJ/HopZ superfamily |
Pseudomonas syringae |
| Ptr ToxA (ToxA) |
is produced by |
Pyrenophora tritici-repentis |
Pyrenophora tritici-repentis |
| UmSrt1 catalyzing sucrose uptake directly |
may help avoid |
defense response |
Ustilago maydis |
| α-1,3-glucan |
is |
fungal masking compound |
|
| moderate susceptibility of chrysanthemum flowers to Botrytis cinerea |
enables |
monitoring of disease progress |
Chrysanthemum |
| Pseudomonas syringae pv. syringae B728a |
is |
causative agent of bacterial brown spot of bean |
Pseudomonas syringae pv. syringae B728a |
| symbiotic relationships |
have emphasized the role of |
effectors |
|
| pathogen and host |
may target each other indirectly |
each other |
|
| this review |
highlights what has been discovered about |
biological activity of effectors |
|
| absence of wheat susceptibility genes |
does not necessarily preclude |
virulence of isolates with matching effectors |
Parastagonospora nodorum; Triticum aestivum |
| cytoplasmic/intracellular effectors |
are translocated into |
interior of the host cell |
|
| auxin |
has a positive regulatory role for |
certain pathogens |
|
| necrotrophic pathogens |
kill |
host plants |
|
| alternariol |
may play a role in |
facilitating growth and spread of fungi in host plant |
|
| filamentous pathogen pangenomes |
can transform understanding of |
pathogenicity |
|
| pathogen feeding |
is tightly linked with |
infection strategies |
|
| effectors of generalist necrotrophs |
exhibit |
dual antagonistic activity |
Botrytis cinerea; Sclerotinia sclerotiorum |
| fungal pathogens |
secrete |
effector proteins |
|
| SRE3 (Pi06094) |
promotes |
virulence of Phytophthora infestans |
Phytophthora infestans |
| Ceratocystis canker |
is caused by |
Ceratocystis ficicola |
Ficus carica |
| plant pathogens |
are causal agents of |
cereal head blight |
|
| toxins |
dominate |
pathogenesis of necrotrophs |
|
| this review |
seeks to use characterized effectors to establish |
potential role of IDR binding sites in mediating effector–host protein interactions |
|
| surfaces of the potato pathogen Phytophthora infestans |
are covered in |
mucins |
Phytophthora infestans |
| plant pathogens |
produce |
cell wall-degrading enzymes, such as polygalacturonase and pectin lyase |
|
| ∆Fo18438 mutants |
were capable of infecting and reducing |
soybean germination |
Glycine max |
| fungi |
infect |
different organs of monocotyledonous hosts |
|
| pathogen and host |
may target each other directly |
each other |
|
| high humidity |
induces expression of |
HrpL transcription factor (TF) in Pseudomonas syringae pv. tomato DC3000 (Pst DC3000) |
Pseudomonas syringae pv. tomato DC3000 |
| (AFB1, ATGRH1, GRH1, AT4G03190) |
may act as |
extracellular effector |
Zea mays |
| Gliotoxin |
may play a role in |
facilitating growth and spread of fungi in host plant |
|
| Candidatus Phytoplasma |
hijack |
plant hosts |
|
| gain or loss of a single effector gene |
can determine |
infection success of an attacking pathogen |
|
| binding to glycosylinositol phosphorylceramide (GIPC) lipids |
causes |
cell death and disease |
Botrytis cinerea |
| air chamber tissue layer |
is |
prime location for pathogen proliferation |
Marchantia polymorpha |
| chitin binding domains (CBDs) of Af CDA6 |
contributed to |
pathogenicity function of Af CDA6 |
Aspergillus flavus |
| pelI mutation |
did not affect |
virulence in host plant Saintpaulia ionantha |
Saintpaulia ionantha |
| detoxification genes |
are critical for |
microbe's ability to invade the host |
|
| host microbiota compositions |
change during |
disease development |
|
| in silico prediction of secretomes |
has led to identification of |
virulence factors |
|
| reducing delivery of avirulence effectors |
allows bacteria to survive |
whilst maintaining important effectors in their genomes |
|
| single gene/locus in the host |
conditions |
sensitivity to an (ATHST, HST, PDS2, AT3G11945) and susceptibility to the pathogen |
|
| Fusicoccum ( Phomopsis ) amygdale |
is causal agent of |
peach and almond canker |
|
| F. oxysporum |
has virulence mechanisms elucidated in |
variety of crops, including soybean |
Glycine max |
| soft rot erwiniae |
are distinguished from |
Pseudomonas syringae |
|
| hemi-biotrophic oomycete pathogen Phytophthora palmivora |
establishes |
digit and branched intracellular haustoria-like structures |
Marchantia polymorpha |
| necrotrophs |
feed on |
dead tissue |
|
| some effector proteins |
display selective antimicrobial activity to manipulate |
microbiota |
|
| Stagonospora nodorum |
secrete |
small unique proteins (effectors) |
Stagonospora nodorum |
| plastic and dynamic genomes |
typically encode |
several hundred candidate secreted effector proteins |
|
| microbial effectors |
promote |
disease |
|
| reprogrammed host cell metabolism and physiology |
aids |
host colonization |
|
| commensalism |
can go wrong and manifest into |
pathologies in specific hosts |
|
| SMEs performing as HSEs |
play a crucial role in |
virulence for pathogens |
|
| Huanglongbing (HLB) disease |
is caused by |
Candidatus Liberibacter asiaticus |
Citrus spp. |
| cell wall-degrading enzymes (CWDEs) |
contribute directly to |
virulence |
|
| Phytophthora palmivora |
occupies |
liverwort air chambers |
Marchantia polymorpha |
| Mo (CBP1, MEE14, AT2G15890) deletion |
did not influence |
pathogenicity on host plant |
Magnaporthe oryzae |
| 3 extracellular proteases |
are predicted to constitute |
effectors |
Vitis vinifera; Plasmopara viticola |
| Plasmopara viticola |
develops |
haustorium |
|
| fungi |
have |
diverse pathogenic lifestyles |
|
| Xanthomonas oryzae pv. oryzae (Xoo) |
causes |
bacterial blight |
Oryza sativa; Xanthomonas oryzae pv. oryzae |
| Crinkler (CRN) effectors |
were considered as |
class of cell death inducing effectors |
|
| fungal pathogens |
secrete |
effectors |
|
| Fg CDA5 |
is strongly expressed during |
pathogenesis |
Fusarium graminearum |
| bacterial pathogens |
establish |
pathogenic infections |
|
| gene-for-gene relationship |
initiates |
disease |
|
| plant pathogens |
are causal agents of |
rice blast |
|
| recessive xa5 |
could also function as |
susceptibility gene |
|
| oxalic acid |
is |
toxin with PCD-triggering activity |
|
| proteomic analysis during infections of rice with Xanthomonas oryzae pv. oryzae (Xoo) |
identified |
eight extracellular proteases |
Oryza sativa; Xanthomonas oryzae pv. oryzae |
| simplistic pathogenic mechanisms |
rely on |
lytic and degradative enzymes |
|
| hemi-biotrophic pathogens |
deploy |
effectors |
Phytophthora; Colletotrichum |
| Fusarium wilt of cotton |
is caused by |
Fusarium oxysporum f. sp. vasinfectum |
|
| plant fungal pathogens |
can be classified according to |
lifestyle |
|
| other effectors with subtle contributions |
are being identified |
necrotrophic pathogenesis |
|
| phytopathogenic oomycetes |
secrete |
virulence proteins (effectors) |
|
| Mo (AT-CDA1, CDA1, DESZ, AT2G19570) single-knockout mutant |
did not affect |
pathogenicity |
Magnaporthe oryzae |
| other SMEs |
have roles associated with |
pathogenesis unrelated to necrotic activity |
|
| effectors of the broad host range fungus Sclerotinia sclerotiorum |
exhibit |
degeneracy |
Sclerotinia sclerotiorum |
| multiple necrosis-inducing proteins |
act on |
diverse plant cell compartments |
Sclerotinia sclerotiorum |
| effectors |
work as |
coordinated system to optimize pathogenesis and adaptation |
|
| Vd PDA2 |
knockout has no effect on |
virulence |
Verticillium dahliae |
| apoplast wash fluid from tomato dipped in Xanthomonas euvesicatoria |
contained |
seven extracellular proteases |
Solanum lycopersicum; Xanthomonas euvesicatoria |
| production of fusaric acid |
has been shown to correlate with |
virulence of F. oxysporum |
|
| cell wall degrading enzymes |
dominate |
pathogenesis of necrotrophs |
|
| individual knockouts for two candidate effectors |
produced |
wild-type symptoms on 12 cultivars |
Zymoseptoria tritici; Triticum aestivum |
| IDR binding regions in viral proteins and bacterial effectors |
hijack |
host cellular machinery |
|
| CDA domain of Af CDA6 |
did not seem responsible for |
pathogenicity function of Af CDA6 |
Aspergillus flavus |
| plant-triggered increases in protease expression |
have been observed for |
Xanthomonas strains |
Xanthomonas |
| Activity-Based Protein Profiling followed by mass spectrometry (ABPP-MS) |
on apoplastic fluids from pea roots infected by Aphanomyces euteiches revealed |
35 extracellular microbial proteases |
Pisum sativum; Aphanomyces euteiches |
| VpPsbP overexpression |
enhances |
grapevine susceptibility to Plasmopara viticola |
|
| basal defense |
is one of |
suppression of host defenses |
|
| interaction of effectors with host proteins or other molecules |
contributes to |
pathogenesis |
|
| convergent targeting of plant proteins by effectors |
would imply that effectors manipulate |
conserved host proteins |
|
| biotrophic pathogens |
do not kill |
respective hosts |
|
| effector proteins with antimicrobial activities |
are secreted by |
plant pathogens |
|
| reduced turgor pressure in appressorium |
strongly decreases |
virulence |
Magnaporthe oryzae |
| Pyrenophora tritici-repentis (Ptr) |
produces |
host-selective toxins (HSTs) |
Pyrenophora tritici-repentis |
| pathogenic fungi |
have evolved ways to penetrate |
endodermis |
|
| Pseudomonas syringae pv. actinidiae (Psa) |
causes |
kiwifruit canker disease |
|
| (AFB1, ATGRH1, GRH1, AT4G03190) |
may have a role in |
maize pathogenesis |
Zea mays |
| Verticillium dahliae secretory effectors VdAve1 and VdAMP2 |
exhibited antimicrobial activity and manipulated microbiota to facilitate |
plant colonization |
|
| phytopathogen effectors |
are important for manipulating |
diverse land plant lineages |
mosses; liverworts; ferns; angiosperms |
| fungal pathogens |
have |
highly variable pools of effectors and pathogenicity-related genes |
|
| Sarocladium oryzae isolates differing in SME production |
were compared to |
healthy tissue |
|
| Fov PDA1 |
deletion has similar effects to |
Vd PDA1 deletion |
Fusarium oxysporum f. sp. vasinfectum; Verticillium dahliae |
| necrotrophic pathogens |
rapidly kill |
plant cells of infected tissue |
|
| psyllid yellows |
is caused by |
Candidatus Liberibacter solanacearum |
Solanum lycopersicum |
| Pseudomonas syringae pv. tabaci 6605 |
is |
causative agent for wildfire disease in tobacco |
Pseudomonas syringae pv. tabaci 6605 |
| parasite genomes |
are shaped to maximize pathogenic success according to |
different infection strategies |
|
| high cytokinin levels |
associate with |
plant disease symptoms (galls, tumors, knots, green islands) |
|
| fungal interactions |
might have |
pathogenic outcomes |
|
| pathogens |
deploy |
specialized and generic virulence strategies |
|
| certain pathogen-derived immune elicitors |
are enriched by |
virulence activities of necrotrophs |
|
| virulence activity |
involves |
induction of plant cell death |
Botrytis cinerea; Sclerotinia sclerotiorum |
| microbiota compositions |
change during |
disease development |
|
| systemic spread of Xanthomonas and Clavibacter |
causes |
disease |
|
| shaping the plant microbial community |
allows |
producers to better establish themselves |
|
| necrotrophic plant pathogenic fungi |
possess |
simplistic pathogenic mechanisms |
|
| local microbiota |
can impact |
outcome of interaction with hosts |
|
| SMEs performing as HSEs |
require |
corresponding molecular target, such as a resistance (R) gene product or susceptibility factor |
|
| targeted disruption of CFP gene |
results in greatly reduced |
virulence of the fungus to soybean |
Cercospora spp.; Glycine max |
| deletion of polygalacturonase (PG1, PGL2, AT1G60390) |
systematically reduced |
strains aggressiveness |
Botrytis cinerea |
| Physcomitrium tissues |
are susceptible to |
pathogen attack |
Physcomitrium |
| impaired fungal cell wall integrity and development |
leads as a consequence to |
impaired virulence |
Puccinia striiformis f. sp. tritici |
| 35 extracellular microbial proteases |
are active in |
apoplast |
Pisum sativum; Aphanomyces euteiches |
| plant pathogens |
deploy extracellular proteases during |
infection |
|
| gain of virulence mediated by T3E loss or mutation |
is |
observed |
|
| Albugo candida infection |
includes |
sporulation within spore-bearing pustules |
|
| Fusarium graminearum |
infects |
maize plant |
maize; Fusarium graminearum |
| structural and functional approaches |
will be essential to decipher |
effector mechanisms |
Ustilago maydis |
| Thaxtomin A (TXT) |
is |
determinant factor of Streptomyces (SPP, AT5G42390) pathogenicity |
Streptomyces spp |
| plant cell wall degrading enzymes |
are responsible for |
soft rot phenotype |
|
| plant necrotrophic pathogens |
secrete |
pPCD triggering toxins |
|
| cytokinin (CK) perception |
differs in |
infections by different phytopathogenic bacteria, fungi, nematodes and parasitic plants |
|
| combinatorial effects of effectors |
enhance |
disease susceptibility |
|
| F. oxysporum |
needs to interact with |
soybean holobiont |
Glycine max |
| bacterial effector proteins |
mediate |
defense suppression |
|
| Rhodococcus fascians |
causes |
leafy gall formation |
Rhodococcus fascians |
| fas operon |
is located on |
linear plasmids |
Rhodococcus fascians |
| substitutions of the (D14, AT3G03990) residue with alanine or valine in Pseudomonas syringae pv. tabaci 6605 |
impaired |
ability to cause disease |
Pseudomonas syringae pv. tabaci 6605 |
| Crinkler (CRN) effectors |
is |
class of oomycete cytoplasmic/intracellular effectors |
|
| mutation of Um CDA3 |
had a strong phenotype in |
pathogenicity |
Ustilago maydis |
| effector protein RSP3 |
blocks |
antifungal activity of (AFP1, AT1G69260) |
Ustilago maydis; maize |
| pathogens |
are based on their requirement for |
nutrients being limited to specific substrates |
|
| accumulation of misfolded or damaged proteins |
can result in |
disease progression |
|
| T3 effector proteins (T3Es) |
create |
conditions favorable to disease |
|
| ICE excision occurring more frequently in resistant bean hosts |
lowers expression to allow |
bacterial survival |
Pseudomonas syringae |
| expression profiles of distinct proteases of Ustilago maydis |
correlates to |
infection of Ustilago maydis in corn |
Ustilago maydis |
| pathogen extracellular proteases |
are present in |
apoplast |
|
| functional redundancy |
might explain |
lack of virulence compromise in snp1 deletion mutant |
Stagonospora nodorum |
| impaired delivery of effectors into host cells |
results in |
attenuated virulence |
Ustilago maydis |
| soybean cyst nematode (SCN) |
is |
important pathogen of soybean |
Heterodera glycines |
| FOXG_18438 (Fo18438) |
was dispensable for |
pathogenicity on soybean |
Glycine max |
| sulfenylation |
contributes to |
pathogen virulence mechanisms |
|
| effector–host relationships |
show conservation and convergence across |
diverse plant lineages |
liverworts; angiosperms; lycophytes; ferns |
| biotrophs |
feed on |
living tissue |
|
| modular polyketide synthases likely acquired from bacteria |
are required for |
a broadened host range |
|
| Syndrome basses richesses (SBR) |
is caused by |
Candidatus Phytoplasma solani |
|
| cytokinin mix |
is |
main virulence factor of R. fascians strain D188 |
Rhodococcus fascians |
| cyclophilins |
have been reported to play |
important role in pathogenesis by suppressing host cell's immune response |
|
| effectors |
facilitate |
interactions between biotic stressors and plants |
|
| individual bacteria in polymicrobial disease complexes |
do not |
cause disease |
|
| oxalic acid |
is from |
necrotrophic fungus Sclerotinia sclerotiorum |
Sclerotinia sclerotiorum |
| terrein |
has dual functions in |
virulence and response to specific stressors |
|
| intrinsically disordered regions (IDRs) |
are directly involved in |
oomycete effector activities such as escaping host recognition |
|
| some effector proteins |
target |
antagonistic niche competitors |
|
| Mo CDA6 |
is highly expressed during |
invasive hyphal growth in planta |
Magnaporthe oryzae |
| cytokinins (CKs) |
are |
virulence factor |
|
| breakdown of post-invasion resistance |
permits |
macrocolonization of E. pisi |
Arabidopsis thaliana |
| polygalacturonase (PG) from necrotrophic fungal pathogens |
is implicated as |
virulence factor |
|
| some microbial pathogens |
cause |
infection |
|
| endo-polygalacturonases (endo-PGs) and exo-polygalacturonases (exo-PGs) |
have different expression levels under |
pathogenic conditions |
|
| necrotrophic pathogens |
can utilize |
dead tissue |
|
| pathogen exploitation of hormone signaling pathways |
promotes |
disease |
|
| plant hormones (auxin, gibberellic acid, ethylene, abscisic acid, cytokinin) |
contribute to |
virulence |
|
| cytoplasmic effectors |
action in moss has not yet been described |
moss |
Physcomitrella patens |
| broad-host range pathogens |
modulate |
liverwort, angiosperm, and perhaps even lycophyte/fern susceptibility |
liverworts; angiosperms; lycophytes; ferns |
| host-mediated programmed cell death |
allows |
pathogen to cause disease |
|
| large-scale reprograming of the smRNome |
occurs in |
pathogenic interactions |
|
| deletion of Um CDA7 |
had the strongest effect on |
virulence |
Ustilago maydis |
| Ustilago maydis |
secretes |
effector protein RSP3 |
Ustilago maydis |
| proteases that are present and active in context of disease |
are |
prime candidates for virulence factors |
|
| heterologous expression |
is observed in |
bacterial communities |
|
| numerous laboratories |
are determining |
enzymatic functions of pathogen effectors and their host targets |
|
| haustorium |
secretes and delivers |
effectors, including RXLR31154 |
|
| F. oxysporum genes |
impact |
soybean microbiota |
Glycine max |
| viroid RNAs |
are |
infectious agents |
|
| small unique proteins (effectors) |
are internalised by |
host cells |
|
| conserved host proteins |
promote |
disease progression |
land plants |
| necrotrophic effectors (NEs) |
modulate |
host response |
|
| interference with stability and function of flagellin |
causes |
detrimental impact on plant colonisation |
|
| SnTox1 |
interacts directly with |
Snn1 |
Parastagonospora nodorum; Triticum aestivum |
| air chambers |
are |
architectural vulnerability in thalloid liverworts |
Marchantia polymorpha |
| proteomics on apoplastic fluid of grapevine infected with Plasmopara viticola |
identified |
3 extracellular proteases |
Vitis vinifera; Plasmopara viticola |
| heterologous expression in bacterial communities |
allows |
phenotypically different subpopulations to emerge |
|
| plant pathogenic bacteria |
can secrete |
specific virulence factors |
|
| programmed cell death (PCD) in (ATBAK1, ATSERK3, BAK1, ELG, RKS10, SERK3, AT4G33430) plants |
is triggered after infection with |
virulent, necrotizing pathogens |
|
| nonadapted P. syringae pv phaseolicola strains provided with AvrPtoB |
exhibit increased virulence in |
Arabidopsis |
Arabidopsis thaliana |
| elicitors |
include |
necrosis and ethylene-inducing peptide 1 (Nep1) |
|
| elicitors |
include |
elicitins |
|
| specific virulence factors |
effectively re-open |
stomata |
|
| breakdown of post-invasion resistance |
permits |
microcolonization of Bgh |
Arabidopsis thaliana |
| Thaxtomin A (TXT) |
is produced by |
plant-pathogenic Streptomyces species |
Streptomyces scabies |
| necrotrophic pathogens |
benefit from |
host cell death |
|
| individual strains |
were not |
pathogenic |
Pseudomonas syringae |
| phytopathogens |
secrete |
elicitors |
|
| Bacterial speck |
is caused by |
Pseudomonas syringae pv. tomato (Pst) |
Solanum lycopersicum |
| viruses, bacteria, and fungi |
display |
distinct strategies for infection and colonization |
|
| R. fascians strain D188 infection on wild-type Arabidopsis plants |
was compared with |
phenotype provoked on four max and (AtBRC1, ATTCP18, BRC1, TCP18, AT3G18550) mutants |
Arabidopsis thaliana |
| induction of otherwise developmentally regulated host genes |
results in |
disease susceptibility |
Oryza sativa |
| two fungal pathogens of maize |
cause severe diseases during |
flowering time |
Zea mays |
| cell wall |
is |
one of main targets of Thaxtomin A (TXT) |
|
| host development manipulation |
suppresses |
defence |
|
| mutation within TXT biosynthesis genes |
rendered |
Streptomyces scabies strain non-pathogenic |
Streptomyces scabies |
| decoys |
do not contribute to |
pathogen fitness in the absence of its cognate R-protein in plant |
|
| coronatine (COR) |
is produced by |
Pseudomonas syringae |
Solanum lycopersicum |
| Pseudomonas syringae pv. tomato (Pst) |
produces |
coronatine (COR) |
Solanum lycopersicum |
| HopF1e |
did not alter virulence when knocked out individually in |
(PDE329, PSA3, AT3G55250) V-13 |
Actinidia chinensis var. chinensis |
| Colletotrichum graminicola |
uses |
multistage hemibiotrophic strategy for host infection |
Zea mays |
| deubiquitinating enzyme |
have important roles in regulating |
virulence |
|
| avirulence gene AvrPm1a |
encodes |
pathogen-derived effector protein AvrPm1a |
Blumeria graminis |
| resistance alleles at dominant S-gene loci |
deprive |
pathogen of a factor that enhances its pathogenesis |
|
| EPC KO mutants |
were attenuated in |
appressorium-mediated epidermal cell invasion |
Colletotrichum orbiculare |
| higher expression of the EPC genes on cucumber than on N. benthamiana |
partially explains |
cucurbit host-specific requirement of EPCs for fungal virulence |
Colletotrichum orbiculare |
| Avr3D1 3D1 |
did not result in changes in |
virulence compared to 3D1∆ avr3D1 |
Zymoseptoria tritici |
| Avr3D1 recognition |
occurs at early stages of |
infection, before or during stomata penetration |
Triticum aestivum; Zymoseptoria tritici |
| appressoria melanization and turgor pressure |
enable the fungus to mechanically breach |
host surface |
|
| (ATBARD1, BARD1, ROW1, AT1G04020) orthologues from Sporisorium reilianum and Ustilago hordei |
could fully restore |
virulence phenotype of (ATBARD1, BARD1, ROW1, AT1G04020) deletion mutant |
Ustilago maydis |
| ΔhopAZ1a mutant strain |
shows reduced |
(PDE329, PSA3, AT3G55250) V-13 growth in planta |
Actinidia chinensis var. chinensis |
| knocking out hopS2b, hopAZ1a, and xEEL in addition to ΔCEL |
did not show disease progression differences from |
symptomless ΔCEL-infected 'Hort16A' plants |
Actinidia chinensis var. chinensis |
| wheat gene (AtTudor1, TSN1, Tudor1, AT5G07350) |
confers susceptibility to |
host selective toxins produced by P. nodorum |
Triticum aestivum |
| Δ Mophzf/MoPHZF E77D strain with PCA treatment |
showed diseased lesion area increased to |
11.14% |
Magnaporthe oryzae; Oryza sativa |
| Fusarium graminearum fgrdrp4 knock-out strain |
exhibited decreased |
pathogenicity on inoculated wheat |
Fusarium graminearum |
| filaments |
penetrate |
plant cuticle |
|
| (ATBARD1, BARD1, ROW1, AT1G04020) induction |
occurs alongside |
appressoria formation |
Ustilago maydis |
| PpE18-expressing transformants |
exhibited higher disease degrees compared with |
control Flag-GFP-expressing seedlings |
Arabidopsis thaliana |
| disease assays that bypass hydathodes |
do not examine |
initial hydathode colonization |
|
| taa1-1 tar2-1 mutants |
symptom onset was severely compromised in |
symptom onset |
|
| coronatine (COR) |
is indispensable to ensure |
total virulence of the bacteria in plant cells |
Solanum lycopersicum |
| ΔhopA1a / ΔhopE1a double mutant strain |
did not show increased virulence in 'Hort16A' plants compared with |
WT Pfm LV-5 or (PDE329, PSA3, AT3G55250) V-13 |
Actinidia chinensis var. chinensis |
| N-glycosylation |
is essential for |
plant infection by plant pathogenic fungi |
|
| constitution and dynamics of ARs |
could influence |
pathogenicity |
Fusarium oxysporum |
| ubiquitin-specific protease 15 (UBP15, AT1G17110) |
controls |
virulence |
Fusarium graminearum |
| dark appressoria |
require |
cell wall melanization |
|
| appressorium wall remodeling |
is necessary for |
appressorium formation and progression |
Ustilago maydis |
| (ATHST, HST, PDS2, AT3G11945) produced by C. heterostrophus |
may subvert |
primary disease resistance role of ChSK1 |
|
| fungal genomes |
encode |
suites of hundreds of diverse candidate effector genes |
|
| effector-like small secreted proteins |
are delivered to |
biotrophic interface located at appressorial penetration pores and around the primary invasion hyphae |
Colletotrichum orbiculare |