Ontology highlight
ABSTRACT:
PROVIDER: PRJNA1092535 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR28469338_1.fastq.gz | Fastqsanger.gz | |||
| SRR28469338_2.fastq.gz | Fastqsanger.gz | |||
| SRR28469339_1.fastq.gz | Fastqsanger.gz | |||
| SRR28469339_2.fastq.gz | Fastqsanger.gz | |||
| SRR28469340_1.fastq.gz | Fastqsanger.gz |
Items per page: 5 1 - 5 of 36 |
Similar Datasets
Project description:For identification of genes up-regulated in abiotic stress (drought, high salinity, low temperature and ABA) treated rice, total RNA (100 μg) was prepared from root tissues of 14-d-old rice seedlings (Oryza sativa cv Nakdong) grown under normal growth conditions. For the high salinity and ABA treatments, the 14-d-old seedlings were transferred to a nutrient solution containing 400 mM NaCl or 100 μM ABA for 2 h in the greenhouse under continuous light of approximately 1000 μmol m-2 s -1. For drought treatment, 14-d-old seedlings were air-dried for 2 h also under continuous light of approximately 1000 μmol m-2 s -1. For low temperature treatments, 14-d-old seedlings were exposed at 4°C in a cold chamber for 6 h under continuous light of 150 μmol m-2 s -1.
2012-03-01 | GSE31874 | GEO
Project description:Pearl millet [Pennisetum glaucum (L.) R.Br] is the fifth most important cereal crop next to rice, wheat, maize, and sorghum. It is cultivated especially by small holder farmers in arid and semi-arid regions because of its drought resistance. However, the molecular mechanisms during drought stress in Pennisetum remain elusive. In the present study we have used a shotgun proteomics approach (GEL-LC-Orbitrap-MS) for identification and quantification of proteins from different tissues (root, seed and leaf) under drought and control conditions. Plants were grown in a tube system to survey root growth under drought stress. The water content was measured in the upper and the lower part of the tube using soil moisture sensors. Under drought stress root elongation was observed. Measurement of stomatal conductance showed a clear response to drought stress. For proteomics measurements root, leaf and seed tissues were harvested. In total 2281 proteins were identified, 1095 in root, 1299 in seed, and 1208 in leaf in both stress and control conditions.
2023-08-23 | PXD002923 | Pride
Project description:Drought stress is one of the main environmental factors that affects growth and productivity of crop plants, including lentil. To gain insights into the genome-wide transcriptional regulation in lentil root and leaf under short- and long-term drought conditions, we performed RNA-seq on a drought-sensitive lentil cultivar (Lens culinaris Medik. cv. Sultan). After establishing drought conditions, lentil samples were subjected to de novo RNA-seq-based transcriptome analysis. The 207,076 gene transcripts were successfully constructed by de novo assembly from the sequences obtained from root, leaf, and stems. Differentially expressed gene (DEG) analysis on these transcripts indicated that period of drought stress had a greater impact on the transcriptional regulation in lentil root. The numbers of DEGs were 2915 under short-term drought stress while the numbers of DEGs were increased to 18,327 under long-term drought stress condition in the root. Further, Gene Ontology analysis revealed that the following biological processes were differentially regulated in response to long-term drought stress: protein phosphorylation, embryo development seed dormancy, DNA replication, and maintenance of root meristem identity. Additionally, DEGs, which play a role in circadian rhythm and photoreception, were downregulated suggesting that drought stress has a negative effect on the internal oscillators which may have detrimental consequences on plant growth and survival. Collectively, this study provides a detailed comparative transcriptome response of drought-sensitive lentil strain under short- and long-term drought conditions in root and leaf. Our finding suggests that not only the regulation of genes in leaves is important but also genes regulated in roots are important and need to be considered for improving drought tolerance in lentil.
2019-04-19 | GSE115199 | GEO
Project description:Investigation of whole genome gene expression level changes in two asparagus bean accesions B47 and B128 under drought stress, compared to well-watered conditions. Two organs, leaf and root, were sampled for each accesion under both well-watered and drought conditions.
2014-11-26 | GSE63636 | GEO
Project description:To elucidate the epigenetic regulation of salt-responsive genes helps to understand the underlying mechanisms that confer salt tolerance in rice. However, it is still largely unknown how epigenetic mechanisms function in regulating the salt-responsive genes in rice and other crops at a global level. In this study, we mainly focused on dynamic changes in transcriptome and histone marks between rice leaf and root tissues during salt treatment by using RNA-seq and ChIP-seq approaches. We demonstrated that the majority of salt-related differentially expressed genes (DEGs) display tissue-dependent changes. Similarly, tissue-dependent chromatin changes have been detected between leaf and root tissues during salt treatment. Most importantly, our study indicates that chromatin states with a combination of marks, rather than an individual mark, most likely play crucial roles in regulating differential expression of salt-responsive genes between leaf and root tissues. Especially, a special CS containing bivalent marks, H3K4me3 and H3K27me3 with a functional exclusion with each other, displays distinct functions in regulating expression of DEGs between leaf and root tissues, H3K27me3-related repressive mark mainly regulates expression of DEGs in root, but H3K4me3-releated active mark dominantly functions in regulation of down-regulated genes and possibly antagonize the repressive role of H3K27me3 in up-regulated genes in leaf. Thus, our findings indicate salt-responsive genes are differentially regulated at the chromatin level between the leaf and root tissues in rice, which provides new insights in the understanding of chromatin-based epigenetic mechanisms that confer salt tolerance in plants.
2019-06-19 | GSE109617 | GEO
Project description:To elucidate the epigenetic regulation of salt-responsive genes helps to understand the underlying mechanisms that confer salt tolerance in rice. However, it is still largely unknown how epigenetic mechanisms function in regulating the salt-responsive genes in rice and other crops at a global level. In this study, we mainly focused on dynamic changes in transcriptome and histone marks between rice leaf and root tissues during salt treatment by using RNA-seq and ChIP-seq approaches. We demonstrated that the majority of salt-related differentially expressed genes (DEGs) display tissue-dependent changes. Similarly, tissue-dependent chromatin changes have been detected between leaf and root tissues during salt treatment. Most importantly, our study indicates that chromatin states with a combination of marks, rather than an individual mark, most likely play crucial roles in regulating differential expression of salt-responsive genes between leaf and root tissues. Especially, a special CS containing bivalent marks, H3K4me3 and H3K27me3 with a functional exclusion with each other, displays distinct functions in regulating expression of DEGs between leaf and root tissues, H3K27me3-related repressive mark mainly regulates expression of DEGs in root, but H3K4me3-releated active mark dominantly functions in regulation of down-regulated genes and possibly antagonize the repressive role of H3K27me3 in up-regulated genes in leaf. Thus, our findings indicate salt-responsive genes are differentially regulated at the chromatin level between the leaf and root tissues in rice, which provides new insights in the understanding of chromatin-based epigenetic mechanisms that confer salt tolerance in plants.
2019-06-19 | GSE109616 | GEO
Project description:Our study showed that the CHD3 protein PKL plays a role in the regulation of cold stress response likely via the regulation of chlorophyll accumulation under low temperature conditions. Our results suggest that PKL may regulate cold response partly via a CBF3-mediated pathway. Besides, our results reveal that the PKL gene is also involved in the regulation of drought and salt stress resistance.
2019-03-06 | GSE127819 | GEO
Project description:Transcriptional profiling of 4 maize varieties comparing genetic root response under control temperature conditions with genetic root response under low temperature conditions
2016-05-24 | GSE72508 | GEO