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Transcription profiling of maize gene expression during infection with Fusarium moniliforme

ABSTRACT: The fungal pathogen Fusarium moniliforme causes ear rot in maize. Ear rot in maize is a destructive disease globally caused by Fusarium moniliforme , due to decrease of grain yield and increase of risks in raising livestock by mycotoxins production. Plants have developed various defense pathways to cope with pathogens. We used microarrays to detail the global programme of gene expression during the infection process of Fusarium moniliforme in its host plant to get insights into the defense programs and the host processes potentially involved in plant defense against this pathogen. Experiment Overall Design: In two compared independent experiments plants were infected with the Fusarium moniliforme. Samples from infected bracts of resistant maize (Bt-1) as well as susceptible maize (Ye478) were taken at 4 days post infection. Samples from uninfected control plants were taken at the same time points. For example: R0 (control) and RT (treat) in Bt-1 and S0 (control) and ST (treat) in Ye478.

ORGANISM(S): Zea mays

SUBMITTER: Guangsheng Yuan

PROVIDER: E-GEOD-19501 | biostudies-arrayexpress |

REPOSITORIES: biostudies-arrayexpress

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Maize gene expression during infection with Fusarium moniliforme

Project description:The fungal pathogen Fusarium moniliforme causes ear rot in maize. Ear rot in maize is a destructive disease globally caused by Fusarium moniliforme , due to decrease of grain yield and increase of risks in raising livestock by mycotoxins production. Plants have developed various defense pathways to cope with pathogens. We used microarrays to detail the global programme of gene expression during the infection process of Fusarium moniliforme in its host plant to get insights into the defense programs and the host processes potentially involved in plant defense against this pathogen.

2009-12-16 | GSE19501 | GEO

Gene expression of F.graminearum during maize stalk infection

Project description:Fusarium graminearum can infect maize stalk causing Gibberella stalk rot. We want to know the whole genome wide gene profiling when infecting maize stalk. Using lasr capture microdisecction, we captured 8 time points infecting hyphae samples for maize stalk and after two-round amplification, we hybrid the aRNA to Affymetrix array.

2016-02-11 | E-GEOD-53854 | biostudies-arrayexpress

Gene expression of F.graminearum during maize stalk infection

Project description:Fusarium graminearum can infect maize stalk causing Gibberella stalk rot. We want to know the whole genome wide gene profiling when infecting maize stalk.

2016-02-11 | GSE53854 | GEO

Comparative proteomic analysis of the defense response to Gibberella stalk rot in maize

Project description:Fusarium graminearum is the causal agent of Gibberella stalk rot in maize stem, resulting maize lodging, yield, quality, and mechanical harvesting capacity. To date, little is known about the maize stem defense mechanism in response to invasion of F. graminearum. This study represents a global proteomic approach to document the infection by F. graminearum. A total of 1,894 differentially accumulated proteins (DEPs) were identified after inoculation of maize plants with F. graminearum. Functional categorization analysis indicated that proteins involved in plant-pathogen interaction were inducible at early stages of infection. We also found that the expression of proteins involved in phenylpropanoid, flavonoid, and terpenoid biosynthesis were up-regulated in response to F. graminearum infection, which may reflect a particular contribution of secondary metabolism in protection against the fungal attack in maize stem. Together, our results indicated that the defense response of maize stem to F. graminearum infection was multifaceted and involved the induction of proteins from various innate immunity related pathways, which had directive significance for molecular genetic breeding of maize disease-resistant varieties.

2021-05-31 | PXD024342 | Pride

RNA-seq-based analysis of the pathogen-induced defense transcriptome in Arabidopsis

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.

2012-06-01 | E-GEOD-34241 | biostudies-arrayexpress

Transcript profile of Trichoderma-induced response in Zea mays against Fusarium verticillioides infection

Project description:In the present study we have assessed, by transcriptional profiling, the systemic defense response of Zea mays plants to the ear rotting pathogen Fusarium verticilioides induced by the beneficial fungus Trichoderma atroviride

2020-01-13 | GSE93760 | GEO

The transcriptomic responses of maize stalks infected with Fusarium graminearum PH-1 and Δcfem1

Project description:This experiment is to assess the changes of maize genes expression in response to Fusarium graminearum stains wild-type PH-1 and Δcfem1 mutant. F. graminearum is the major casual fungal pathogen of Gibberella stalk rot on maize.

2022-11-12 | GSE199300 | GEO

Integrative transcriptome and proteome analysis reveals maize responses to Fusarium verticillioides infection inside the stalks

Project description:Fusarium verticillioides (F. verticillioides) stalk rot is one of the most devastating diseases of maize that causes significant yield losses and poses potential security concerns of foods worldwide. The underlying mechanisms of maize plants regulating defense against the disease remain poorly understood. Here, integrative proteomic and transcriptomic analyses were employed to identify pathogenies-related protein genes by comparing differentially expressed genes (DEGs) and proteins (DEPs) in maize stalks after inoculated with F. verticillioides.

2022-11-04 | PXD037964 |

Fusarium verticillioides strain:ZH12-2

Project description:A Fusarium fungus, Fusarium verticillioides that causes ear rot and stalk rot in fresh maize.

| PRJNA1049597 | ENA

RNA-seq Analysis of RFX1-dependent Genes in Fusarium graminearum Z-3639

Project description:Fusarium graminearum is a major pathogen of Fusarium head blight in wheat, barley, and rice, as well as ear rot and stalk rot in maize. Regulatory Factor X (RFX) transcription factors are well-conserved in animals and fungi, but their functions are diverse, ranging from DNA-damage response to ciliary gene regulation. We investigated the role of the sole RFX transcription factor, RFX1, in F. graminearum. Deletion of rfx1 resulted in multiple defects in hyphal growth, conidiation, virulence, and sexual development. Deletion mutants of rfx1 were more sensitive to various types of DNA damage than the wild-type strain. Septum formation was inhibited and micronuclei were produced in the rfx1 deletion mutants. The results of the neutral comet assay demonstrated that disruption of rfx1 function caused spontaneous DNA double-strand breaks. To understand regulatory mechanisms of rfx1 in F. graminearum, we obtained and analyzed genome-wide transcription profiles generated from the RNA-sequencing data of the wild-type and Δrfx1 strains. RNA-sequencing-based transcriptomic analysis revealed that RFX1 suppressed the expression of many genes, including genes for the repair of DNA damage.

2014-01-28 | GSE52198 | GEO

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