Solanum tuberosum; Nicotiana benthamiana; Solanum lycopersicum
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ABSTRACT:
PROVIDER: PRJNA766537 | ENA |
REPOSITORIES: ENA
Similar Datasets
Project description:Transcriptome data of three hosts infected by Phytophthora infestation
| PRJNA766466 | ENA
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| S-EPMC3842579 | biostudies-literature
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| S-EPMC4940826 | biostudies-literature
Project description:Rice stripe virus (RSV) causes the general chlorosis symptom and influences expression of numberous chloropalst-related genes at transcriotional level in Nicotiana benthamiana plants, but the mechanism are not well understood. Small RNAs (sRNAs), including virus-derived siRNA (vsiRNA) play roles in modulating genes expression post-transcriptionally. This present work presents multi-omics analysis of the transcriptome, sRNAome and degradome in RSV-infected N.benthamiana plants. Transcriptome-seq profiled 4127 N. benthamiana genes, with differentially expressed genes (DEGs) enriched in functional categories such as metabolic process, protein phosphorylation, regulation of transcription, carotenoid biosynthetic process. We identified 400863, 203874 and 244713 reads of vsiRNA from 3 sRNA libraries of RSV-infected N.benthamiana plants respectively. The degradome-seq report discovered a significant number of N.benthamiana genes that might be regulated by vsiRNAs post-transcriptionally. Based on integrated analysis of the three omics, we provide a substantial amount of novel information on the transcriptional and post-transcriptional networks in RSV-infected N.benthamiana, which will extends our horizon about the interactions between virus and their hosts.
2021-04-22 | GSE172507 | GEO
Project description:Objectives: Our work focuses on the responses of Solanaceous plants to viruses that cause economically important diseases in tree fruits. Using mock inoculated leaf tissue as a reference, we plan to compare the gene expression profiles of Nicotiana Benthamiana plants infected with one of three viruses; Plum Pox Potyvirus (PPV), Tomato Ringspot Nepovirus (ToRSV), and Prunus Nectrotic Ringspot Nepovirus (PNRSV). Our goals are as follows: (1) Identify genes that are induced/repressed in response to individual viruses. (2) Identify genes that are induced/repressed in response to all 3 viruses. (3) Compare results to existing potato array data to look for similarities in responses to other pathogens. Experimental Design: Nicotiana benthamiana plants were inoculated with one of three viruses: PPV, ToRSV, or PNRSV. 3 week old plants were inoculated by rubbing virus infected plant sap onto leaves dusted with carborundum. Control plants were mock inoculated using sap from healthy plants. All plants were maintained in a growth chamber at 22C for 18 days. 8 plants were inoculated with each virus or mock inoculated. This experiment was repeated twice. 4 biological replicates derived from 2 virus infected plants from each replica experiment (4 plants) are to be used for hybridizations. RNA from all mock inoculated plants was similarly pooled to create 4 biological replicates. Each replicate control will serve as a universal reference sample that is to be hybridized pair wise with each of the three virus infected samples. RNA extraction: After 18 days, un-inoculated leaves displaying clear symptoms were harvested and immediately frozen in liquid N2. Total RNA was purified using Trizol according to TIGRs listed protocol. RNA was subsequently treated with Turbo DNA-free RNase (Ambion cat#1907). Finally, total RNA was further purified on RNeasy columns (Qiagen) according to manufacturer’s instructions and quantified using a Nanodrop spectrophotometer. Keywords: Reference design
2007-09-01 | GSE8256 | GEO
Project description:Transcriptome profiling of Nicotiana benthamiana infected with CBSV and ACMV
| PRJNA378940 | ENA
Project description:Transcriptome profiling of Nicotiana benthamiana infected with CBSV and ACMV
| PRJNA378924 | ENA
Project description:Kac, a reversible PTM, plays essential roles in various biological processes, including those involving metabolic pathways, pathogen resistance and transcription, in both prokaryotes and eukaryotes. TMV, the major factor that causes poor quality of Solanaceae crops worldwide, directly alters many metabolic processes in tobacco. However, the extent and function of Kac during TMV infection have not been determined. Here, using LC−MS/MS in conjunction with highly sensitive immune-affinity purification, we comprehensively analyzed the changes in the proteome and acetylome of TMV-infected tobacco (Nicotiana benthamiana) seedlings. In total, 2082 lysine-acetylated sites on 1319 proteins differentially expressed in response to TMV infection were identified. Extensive bioinformatic studies disclosed changes in acetylation of proteins engaged in cellular metabolism and biological processes. The vital influence of Kac in fatty acid degradation and alpha-linolenic acid metabolism was also revealed in TMV-infected seedlings. This study first revealed Kac information in N. benthamiana under TMV infection and expands upon the existing landscape of acetylation in pathogen infection.
2022-10-15 | PXD035737 | Pride
Project description:Objectives: Our work focuses on the responses of Solanaceous plants to viruses that cause economically important diseases in tree fruits. Using mock inoculated leaf tissue as a reference, we plan to compare the gene expression profiles of Nicotiana Benthamiana plants infected with one of three viruses; Plum Pox Potyvirus (PPV), Tomato Ringspot Nepovirus (ToRSV), and Prunus Nectrotic Ringspot Nepovirus (PNRSV). Our goals are as follows: (1) Identify genes that are induced/repressed in response to individual viruses. (2) Identify genes that are induced/repressed in response to all 3 viruses. (3) Compare results to existing potato array data to look for similarities in responses to other pathogens. Experimental Design: Nicotiana benthamiana plants were inoculated with one of three viruses: PPV, ToRSV, or PNRSV. 3 week old plants were inoculated by rubbing virus infected plant sap onto leaves dusted with carborundum. Control plants were mock inoculated using sap from healthy plants. All plants were maintained in a growth chamber at 22C for 18 days. 8 plants were inoculated with each virus or mock inoculated. This experiment was repeated twice. 4 biological replicates derived from 2 virus infected plants from each replica experiment (4 plants) are to be used for hybridizations. RNA from all mock inoculated plants was similarly pooled to create 4 biological replicates. Each replicate control will serve as a universal reference sample that is to be hybridized pair wise with each of the three virus infected samples. RNA extraction: After 18 days, un-inoculated leaves displaying clear symptoms were harvested and immediately frozen in liquid N2. Total RNA was purified using Trizol according to TIGRs listed protocol. RNA was subsequently treated with Turbo DNA-free RNase (Ambion cat#1907). Finally, total RNA was further purified on RNeasy columns (Qiagen) according to manufacturer’s instructions and quantified using a Nanodrop spectrophotometer. Keywords: Reference design 23 hybs total
2007-09-01 | E-GEOD-8256 | biostudies-arrayexpress
Project description:Phloem localization of plant viruses is advantageous for acquisition by sap-sucking vectors but hampers host-virus protein interaction studies. In this study, Potato leafroll virus (PLRV)-host protein complexes were isolated from systemically infected potato, a natural host of the virus. Comparing two different co-immunoprecipitation support matrices coupled to mass spectrometry, we identified 44 potato proteins and one viral protein (P1) specifically associated with virus isolated from infected phloem. An additional 142 proteins interact in complex with virus at varying degrees of confidence. Greater than 80% of these proteins were previously found to form high confidence interactions with PLRV isolated from the model host Nicotiana benthamiana. Bioinformatics revealed that these proteins are enriched for functions related to plasmodesmata, organelle membrane transport, translation and mRNA processing. Our results show that model system proteomics experiments are extremely valuable for understanding protein interactions regulating infection in recalcitrant pathogens such as phloem-limited viruses.
2016-12-14 | PXD004814 | Pride