Identification of acetylated proteins in Fusarium oxysporum
Ontology highlight
ABSTRACT:
INSTRUMENT(S): Q Exactive HF
ORGANISM(S): Candida Albicans (yeast)
TISSUE(S): Whole Body
SUBMITTER: 
Xianliang Ma
LAB HEAD: Wenxing Liang
PROVIDER: PXD037397 | Pride | 2022-11-22
REPOSITORIES: Pride
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Project description:Lysine 2-hydroxyisobutyrylation, a recently discovered post-translational modification, plays a key role in the regulation of diverse cellular processes. Fusarium oxysporum is a destructive necrotrophic fungal pathogen distributed worldwide with broad ranging hosts.
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Project description:Pathogen infection triggers transcriptional reprogramming in host plants, however we still know little about the dynamics of the pathogen-induced defense transcriptome. The goal of this study was to investigate the dynamic reprogramming of the defense transcriptome in response to Fusarium oxysporum infection in Arabidopsis using RNA-seq technology and to provide a comprehensive analysis of genes underlying the innate immune response against the fungal pathogen. Our results suggest that the Arabidopsis transcriptome is reprogrammed to co-ordinately express multiple positive and negative regulators following pathogen infection to modulate defense gene expression and disease resistance. Our study identified a number of novel genes responsive to pathogen infection and provided a rich source of pathogen responsive genes for further functional characterization. Four samples (M1DPI, M6DPI, F1DPI and F6DPI; M=mock treated; F=Fusarium oxysporum infected; DPI=day post inoculation) were sequenced to identify pathogen responsive genes in each time point. Each sample was sequenced once, i.e. without biological replicate.
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Project description:Lysine acetylation (Kac), a discovered post-translational modification, plays a key role in the regulation of diverse cellular processes. Fusarium oxysporumis a destructive necrotrophic fungal pathogen distributed worldwide with broad ranging hosts. However, the functions of Kac are unknown in Fusarium oxysporumr any other plant fungal pathogens. Here, we comprehensively evaluated the acetylation proteome ofFusarium oxysporum .
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Project description:To explore the presence of milRNA in Fusarium oxysporum f. sp. niveum (Fon) and evaluate their expression at different propagules, two categories of sRNAs were identified from Fon hyphae and microconidia by using illumina sequencing. A total of 650,960 and 561,114 unique sRNAs were obtained from the hyphae and microconidia samples. With a previously constructed pipeline to search for microRNA, we then identified 74 and 56 miRNA-like small RNAs (milRNAs) candidates in hyphae and microconidia based on the short hairpin structure analysis, respectively. Global expression analysis showed an extensively differential expression of sRNAs between two propagules. Altogether, 78 significantly differently expressed milRNAs were identified in two libraries. Target prediction revealed 2 interesting genes involved in trichothecene and necrosis and ethylene-inducing peptide 1 (NEP1) biosynthesis predicted to be down regulated by Fon-miR7696a-3p and Fon-miR6108a. These two milRNAs were further validated by qRT-PCR and showed a well consistency with sequencing. The negative correlation expression levels between these two milRNAs and their targets genes imply that they might play a role in trichothecene and NEP1 biosynthesis, and this negative regulation for toxin related gene expression are more specific in microconidia. The present study provides the firstly large-scale characterization of milRNAs in Fon and the comparison between hyphae and microconidia propagules gives a clue on how milRNAs involves in toxin biosynthesis. microRNA-like RNAs in hyphae and microconidia were identified and compared
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Project description:Previous studies have demonstrated the essential role of morphogenetic regulation in Fusarium oxysporum pathogenesis, including processes such as cell-wall biogenesis, cell division and differentiation of infection-like structures. We identified three F. oxysporum genes encoding predicted transcription factors showing significant identities to Magnaporthe oryzae Con7p, Con7-1, plus two identical copies of Con7-2. Targeted deletion of con7-1 produced non-pathogenic mutants with altered morphogenesis, including defects in cell wall structure, polar growth, hyphal branching and conidiation. By contrast, simultaneous inactivation of both con7-2 copies caused no detectable defects in the resulting mutants. Comparative microarray-based gene expression analysis indicated that Con7-1 modulates the expression of a large number of genes involved in different biological functions, including host-pathogen interactions, morphogenesis and development, signal perception and transduction, transcriptional regulation and primary and secondary metabolism. Taken together, our results points to Con7-1 as general regulator of morphogenesis and virulence in F. oxysporum. Con7-1 dependent gene expression in Fusarium oxysporum wt and M-NM-^Tcon7-1 mutant was measured after shifting the mycelia to PDB pH5.0 for 30 min and the transferred to PDB pH7.0 for 30 min. Three independent experiments were performed.
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Project description:In the present study, we screened various fungi for their ability to degrade intact polymers, such as ether-based PU and LDPE, using Impranil and a mixture of long-chain alkanes, not only as sole carbon sources but also as enzyme indicators for polymer degradation. The agar plate screening revealed 3 fungal strains belonging to Fusarium and Aspergillus genera, which were further cultured in presence of the same carbon sources, and their secretome was utilized for polymer degradation. Especially for ether-based PU, the secreted proteins of a Fusarium species reduced the weight and the molecular weight of the sample by 24.5 and 20.4%, respectively, while at the same time the secretome of an Aspergillus species caused changes in the molecular structure of LDPE. The proteomic analysis followed proved that the enzymes induced in presence of Impranil can selectively degrade the urethane bond of ether-based PU, a discovery that offers a new alternative in PU waste treatment. Meanwhile, the mechanism of LDPE degradation was not completely understood, although the presence of oxidative enzymes probably accompanied by reactive oxygen species, could be the main factors contributing to polymer functionalization.
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Project description:Lysine crotonylation (Kcr), a recently discovered post-translational modification, plays a key role in the regulation of diverse cellular processes.. However, the functions of Kcr are unknown in H. axyridis .
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Project description:Xylem sap proteome studies on susceptible or resistant tomato (Solanum lycopersicum) inoculated with endophytic and/or pathogenic strains of Fusarium oxysporum f.sp. lycopersici were conducted to get insights into the molecular differences between endophyte- and R-gene-mediated resistance (EMR and RMR). The EMR and RMR proteomes were compared to each other and to the mock control. Interestingly, specific PR-5 isoforms were found to exclusively accumulate during endophyte or genetic resistance, providing excellent markers to distinguish both resistance types at the molecular level.
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Project description:Fungal interactions with plant roots, either beneficial or detrimental, have a major impact on agriculture and ecosystems1. The soil inhabiting ascomycete Fusarium oxysporum (Fo) constitutes a species complex of worldwide distribution causing vascular wilt in more than a hundred different crops2,3. Individual isolates of the fungus exhibit host-specific pathogenicity, determined by proteinaceous effectors termed secreted in xylem (SIX)4,5. However, such isolates can also colonize roots of non-host plants asymptomatically as endophytes, or even protect the plant against pathogenic isolates6,7. The molecular determinants of multi-host plant colonization are currently unknown. Here, we identified a set of fungal effectors termed ERCs (Early Root Compatibility effectors), which are secreted during early biotrophic growth of Fo on both host and non-host plants. In contrast to SIX effectors, which are encoded on lineage specific (LS) genomic regions5,8, ERCs are encoded on core genomic regions and broadly conserved across the Fo species complex. Targeted deletion of ERC genes in pathogenic Fo isolate resulted in reduced virulence on the host plant and rapid activation of plant immune responses, while in a non-pathogenic isolate it led to impaired root colonization and loss of biocontrol ability. Strikingly, some ERCs also contribute to Fo infection on the non-vascular land plant Marchantia polymorpha. Our results reveal an evolutionarily conserved mechanism for multi-host colonization by root infecting fungi.
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