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Transcriptome reprogramming at late stage of desiccation defines the resurrection behavior of Haberlea rhodopensis

ABSTRACT: Transcriptome reprogramming at late stage of desiccation defines the resurrection behavior of Haberlea rhodopensis

PROVIDER: PRJNA432419 | ENA |

REPOSITORIES: ENA

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Transcriptome reprogramming at late stage of desiccation defines the resurrection behavior of Haberlea rhodopensis

Project description:Water shortage is a major factor that harms agriculture and ecosystems worldwide. Plants display various levels of tolerance to water deficit, but only resurrection plants can survive full desiccation of their vegetative tissues. Haberlea rhodopensis, an endemic plant of the Balkans, is one of the few resurrection plants found in Europe. We performed transcriptomic analyses of this species under slight, severe and full dehydration and recovery to investigate the dynamics of gene expression and associate them with existing physiological and metabolomics data. De novo assembly yielded a total of 142,479 unigenes with an average sequence length of 1,034 nt. Among them, 18,110 unigenes were differentially expressed. Hierarchical clustering of all differentially expressed genes resulted in seven clusters of dynamic expression patterns. The most significant expression changes, involving more than 15,000 genes, started at severe dehydration (~20% relative water content) and were partially maintained at full desiccation (<10% relative water content). More than a hundred pathways were enriched and functionally organized in a GO/pathway network at the severe dehydration stage. Transcriptomic changes in key pathways were analyzed and discussed in relation to metabolic processes, signal transduction, quality control of protein and DNA repair in this plant during dehydration and rehydration. Reprograming of the transcriptome occurs during severe dehydration, resulting in a profound alteration of metabolism toward alternative energy supply, hormone signal transduction, and prevention of DNA/protein damage under very low cellular water content, underlying the observed physiological and metabolic responses and the resurrection behavior of H. rhodopensis.

2018-11-20 | GSE109958 | GEO

Proteomics evidences of a systemic response to desiccation in the resurrection plant Haberlea rhodopensis.

Project description:According to the systems biology approach, genomics tells what can happen, transcriptomics what appears to be happening, metabolomics what has happened and proteomics what makes it happen. Thereby, to get a better what makes resurrection plants extremely tolerant to drought, we explored changes in the resurrection proteome and cellular ultrastructure of Haberlea rhodopensis in response to desiccation. Because genomic and proteomic data concerning resurrection plants are limited, particularly for H. rhodopensis, we identified proteins based on previous transcriptomic studies. For the identified proteins, fold changes and differences in transcript levels between fresh and dry plants were analyzed; proteins significantly enriched in various biological processes and metabolic pathways were detected using metabolomic metadata. The results confirmed that the transcription of different genes is regulated as previously described at the proteomic level; new genes were identified in desiccation tolerance, posttranscriptional regulation events, and posttranslational regulation events. We revealed new evidences about organelle and cell preservation, posttranscriptional and posttranslational regulation, photosynthesis, primary metabolism, and phagocytosis in H. rhodopensis. These findings can inform further genomic and evolutionary studies, as well as targeted genetic engineering to improve drought tolerance in crops as a response to climate change.

2022-08-03 | PXD030496 | Pride

Desiccation-driven senescence in the resurrection plant Xerophyta schlechteri

Project description:RNA-Seq data from the resurrection plant Xerophyta schlechteri during desiccation in three tissues: non-senescent, senescent and pre-senescent during dehydration and rehydration.

2022-12-30 | GSE168229 | GEO

Project description:small RNA sequencing of the resurrection plant Haberlea rhodopensis

| PRJNA548243 | ENA

Haberlea rhodopensis

Project description:Haberlea rhodopensis overview

| PRJNA353536 | ENA

Global transcriptome analysis reveals major roles for protein quality control, autophagy, and reactive oxygen species scavenging during the acquisition of desiccation tolerance in the resurrection plant Boea hygrometrica

2013-12-07 | GSE53058 | GEO

A multi-omics angle sheds light on the molecular mechanisms underlying desiccation tolerance in Craterostigma plantagineum

Project description:The resurrection plant Craterostigma plantagineum possesses an extraordinary capacity to survive long-term desiccation. To enhance our understanding of this phenomenon, complementary transcriptome, soluble proteome and primary metabolome analyses were carried out on plant leaves collected at different physiological stages during a dehydration and rehydration cycle. Dynamic changes in transcript, protein and metabolite levels revealed a unique signature characterizing each stage

2021-04-27 | PXD020923 | Pride

Haberlea rhodopensis

Project description:Haberlea rhodopensis Genome sequencing and assembly

| PRJNA348808 | ENA

Project description:Transcriptional profiling of resurrection plant Boea hygrometrica comparing control untreated plants with plants treated with dehydration. Goal was to determine the different effects of desiccation with different rates, and drought acclimation on global gene expression in Boea hygrometrica . 8 conditions comparison: untreated plants vs. plants treated with rapid dehydration for 2h (RWC~80%) and 48h (RWC<10%), untreated plants vs.plants treated with slow dehydration for 5d (RWC~80%) and 14d (RWC<10%), untreated plants vs. drought acclimated plants treated with rapid dehydration for 2h (RWC~80%) and 48h (RWC<10%). Biological replicates: 3 control replicates, 3 treated replicates.

2013-12-07 | E-GEOD-53058 | biostudies-arrayexpress

Characterizing Acinetobacter baumannii desiccation tolerance.

Project description:Desiccation tolerance has been implicated as an important characteristic that potentiates the spread of the bacterial pathogen Acinetobacter baumannii through hospitals on dry surfaces. Despite the potential importance of this stress response, scarce information is available describing the underlying mechanisms of A. baumannii desiccation tolerance. Here we characterize the factors influencing desiccation survival of A. baumannii. At the macroscale level, we find that desiccation tolerance is influenced by cell density, growth phase, and desiccation medium. Our transcriptome analysis indicates that desiccation represents a unique state for A. baumannii compared to commonly studied growth conditions and strongly influences pathways responsible for proteostasis. Remarkably, we find that an increase in total cellular protein aggregates, which is often considered deleterious, correlates positively with the ability of A. baumannii to survive desiccation. We show that artificially inducing protein aggregate formation increases desiccation survival, and more importantly, that proteins incorporated into cellular aggregates can retain activity. Our results suggest that protein aggregates may promote desiccation tolerance in A. baumannii through preserving and protecting proteins from damage during desiccation until rehydration occurs.

2018-10-27 | GSE111383 | GEO

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