Host and pathogen interaction: time course
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ABSTRACT:
PROVIDER: PRJNA147451 | ENA |
REPOSITORIES: ENA
Similar Datasets
Project description:The interaction between fungal pathogen and host during infection is a complex and dynamic process. To resolve this, we chose the zebrafish model organism as the host to study C. albicans infection via systems biology approach. Transcriptome microarray data and histological analysis of surviving fish were sampled at different post-infection time points. The dynamic variations of significant genes expression profiles in C. albicans and zebrafish were concurrently analyzed by principal component analysis (PCA). The PCA results clearly indicated that the infection of C. albicans can be divided into three phases that include adhesion, invasion and damage phases. The results were highly consistent with subsequent histological analysis. Furthermore, we found the primary ontology function of genes with significant variations in both C. albicans and zebrafish is iron related. Most of the iron related genes in C. albicans were over-expressed in late stage, while most of the iron related genes in zebrafish were suppressed at the same phase of infection. It suggested that the iron homeostasis function of the host was shut-down when massive hemorrhage in zebrafish occurred during later stages of infection. At the same time, the iron scavenging function of C. albicans was activated. This implied the competition for iron is an important issue between the host and the fungal pathogen during infection. When we administered excess iron into the microenvironment of infection site, the infection process was significantly delayed. That indicated the virulence of C. albicans is correlated with its protein-bond iron scavenging strategies. Our finings not only provided dynamic mechanistic views of the iron competition but also highlighted the potential regulatory schemes in fungal pathogenesis.
2013-08-26 | GSE32118 | GEO
Project description:The interaction between fungal pathogen and host during infection is a complex and dynamic process. To resolve this, we chose the zebrafish model organism as the host to study C. albicans infection via systems biology approach. Transcriptome microarray data and histological analysis of surviving fish were sampled at different post-infection time points. The dynamic variations of significant genes expression profiles in C. albicans and zebrafish were concurrently analyzed by principal component analysis (PCA). The PCA results clearly indicated that the infection of C. albicans can be divided into three phases that include adhesion, invasion and damage phases. The results were highly consistent with subsequent histological analysis. Furthermore, we found the primary ontology function of genes with significant variations in both C. albicans and zebrafish is iron related. Most of the iron related genes in C. albicans were over-expressed in late stage, while most of the iron related genes in zebrafish were suppressed at the same phase of infection. It suggested that the iron homeostasis function of the host was shut-down when massive hemorrhage in zebrafish occurred during later stages of infection. At the same time, the iron scavenging function of C. albicans was activated. This implied the competition for iron is an important issue between the host and the fungal pathogen during infection. When we administered excess iron into the microenvironment of infection site, the infection process was significantly delayed. That indicated the virulence of C. albicans is correlated with its protein-bond iron scavenging strategies. Our finings not only provided dynamic mechanistic views of the iron competition but also highlighted the potential regulatory schemes in fungal pathogenesis.
2013-08-26 | GSE32117 | GEO
Project description:The interaction between fungal pathogen and host during infection is a complex and dynamic process. To resolve this, we chose the zebrafish model organism as the host to study C. albicans infection via systems biology approach. Transcriptome microarray data and histological analysis of surviving fish were sampled at different post-infection time points. The dynamic variations of significant genes expression profiles in C. albicans and zebrafish were concurrently analyzed by principal component analysis (PCA). The PCA results clearly indicated that the infection of C. albicans can be divided into three phases that include adhesion, invasion and damage phases. The results were highly consistent with subsequent histological analysis. Furthermore, we found the primary ontology function of genes with significant variations in both C. albicans and zebrafish is iron related. Most of the iron related genes in C. albicans were over-expressed in late stage, while most of the iron related genes in zebrafish were suppressed at the same phase of infection. It suggested that the iron homeostasis function of the host was shut-down when massive hemorrhage in zebrafish occurred during later stages of infection. At the same time, the iron scavenging function of C. albicans was activated. This implied the competition for iron is an important issue between the host and the fungal pathogen during infection. When we administered excess iron into the microenvironment of infection site, the infection process was significantly delayed. That indicated the virulence of C. albicans is correlated with its protein-bond iron scavenging strategies. Our finings not only provided dynamic mechanistic views of the iron competition but also highlighted the potential regulatory schemes in fungal pathogenesis. Each fish was intraperitoneally injected with C. albicans cells and these infected fish were collected at 0.5, 1, 2, 4, 6, 8, 12, 16, 18 hpi. 0.625M-NM-<g of Cy3 cRNA for C. albicans array and 1.65 M-NM-<g of Cy3 cRNA for zebrafish array was fragmented to an average size of about 50-100 nucleotides by incubation with fragmentation buffer at 60M-BM-0C for 30 minutes. Each time points contain three biological repeat. For C. albicans array, each biological repeat has two technical replicate.
2013-08-26 | E-GEOD-32118 | biostudies-arrayexpress
Project description:The interaction between fungal pathogen and host during infection is a complex and dynamic process. To resolve this, we chose the zebrafish model organism as the host to study C. albicans infection via systems biology approach. Transcriptome microarray data and histological analysis of surviving fish were sampled at different post-infection time points. The dynamic variations of significant genes expression profiles in C. albicans and zebrafish were concurrently analyzed by principal component analysis (PCA). The PCA results clearly indicated that the infection of C. albicans can be divided into three phases that include adhesion, invasion and damage phases. The results were highly consistent with subsequent histological analysis. Furthermore, we found the primary ontology function of genes with significant variations in both C. albicans and zebrafish is iron related. Most of the iron related genes in C. albicans were over-expressed in late stage, while most of the iron related genes in zebrafish were suppressed at the same phase of infection. It suggested that the iron homeostasis function of the host was shut-down when massive hemorrhage in zebrafish occurred during later stages of infection. At the same time, the iron scavenging function of C. albicans was activated. This implied the competition for iron is an important issue between the host and the fungal pathogen during infection. When we administered excess iron into the microenvironment of infection site, the infection process was significantly delayed. That indicated the virulence of C. albicans is correlated with its protein-bond iron scavenging strategies. Our finings not only provided dynamic mechanistic views of the iron competition but also highlighted the potential regulatory schemes in fungal pathogenesis. Each fish was intraperitoneally injected with C. albicans cells and these infected fish were collected at 0.5, 1, 2, 4, 6, 8, 12, 16, 18 hpi. 0.625M-NM-<g of Cy3 cRNA for C. albicans array and 1.65 M-NM-<g of Cy3 cRNA for zebrafish array was fragmented to an average size of about 50-100 nucleotides by incubation with fragmentation buffer at 60M-BM-0C for 30 minutes. Each time points contain three biological repeat. For C. albicans array, each biological repeat has two technical replicates.
2013-08-26 | E-GEOD-32117 | biostudies-arrayexpress
Project description:Host pathogen interaction at a transcriptional level
| PRJNA109763 | ENA
Project description:The interaction between fungal pathogen and host innnate and adaptive immunity during infection is a complex and dynamic process. To resolve this, we chose the zebrafish model organism as the host to study C. albicans infection via systems biology approach. Transcriptome microarray data and histological analysis of surviving fish were sampled at different post-infection time points. Time-course microarray data following primary and secondary infection of zebrafish by Candida albicans were obatined. From this set of data, we constructed two intracellular protein–protein interaction (PPI) networks for primary and secondary responses of the host.
2014-11-03 | GSE51603 | GEO
Project description:This data is part of a pre-publication release. For information on the proper use of pre-publication data shared by the Wellcome Trust Sanger Institute (including details of any publication moratoria), please see http://www.sanger.ac.uk/datasharing/. We have generated a detailed time-course of RNA-seq from caecum of mice infected with either a high or low dose of Trichuris muris parasites. The data will be used to determine gene expression profiles for each gene in both host and parasite over the course of infection, both for chronic and resolved infections. We will identify genes in host and parasite, which are correlated over the time courses more than expected by chance and use these to generate a list of candidates for host parasite interaction.
2015-02-03 | E-ERAD-337 | biostudies-arrayexpress
Project description:[Original Title] Malaria Host Pathogen Interaction Center Experiment 03: Host and parasite gene transcript abundance measures from bone marrow for Macaca mulatta infected with Plasmodium coatneyi Hackeri strain from 7 time points over a 101 day study of acute, recrudescent, and chronic infections. This project is part of the Malaria Host-Pathogen Interaction Center (MaHPIC) - a transdisciplinary malaria systems biology research program initially supported by an NIH/NIAID contract (# HHSN272201200031C, 2012-2017; see http://www.systemsbiology.emory.edu). The MaHPIC continues with ongoing support from the Defense Advanced Research Project Agency (DARPA) and others. The MaHPIC generates many data types (e.g., clinical, hematological, parasitological, metabolomics, functional genomics, lipidomics, proteomics, immune response, telemetry) and mathematical models, to iteratively test and develop hypotheses related to the complex host-parasite dynamics in the course of malaria in non-human primates (NHPs), and metabolomics data via collaborations with investigators conducting clinical studies in malaria endemic countries, with the overarching goal of better understanding human disease, pathogenesis, and immunity. Curation and maintenance of all data and metadata are the responsibility of the MaHPIC: Mary Galinski mary.galinski@emory.edu (MaHPIC Program Director), Jessica Kissinger jkissinger@uga.edu (MaHPIC Co-Program Director), and Alberto Moreno alberto.moreno@emory.edu (MaHPIC Co-Program Director).
2017-08-24 | GSE103042 | GEO
Project description:This SuperSeries is composed of the SubSeries listed below.
2013-08-26 | GSE32119 | GEO
Project description:Interaction proteomics time course over 24h every 4h, looking for novel interactors of the circadian clock and flowering time protein GIGANTEA. Plants expressing 35S:GIGANTEA:3xFlag6His were used, as well as WT plants for a background control.
2017-07-03 | MSV000081217 | MassIVE