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Transcriptome response to carbon-limiting conditions.

ABSTRACT: Transcriptome response to carbon-limiting conditions.

PROVIDER: PRJNA612848 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR11313220.fastq.gz	Fastqsanger.gz
	SRR11313221.fastq.gz	Fastqsanger.gz
	SRR11313222.fastq.gz	Fastqsanger.gz
	SRR11313223.fastq.gz	Fastqsanger.gz
	SRR11313224.fastq.gz	Fastqsanger.gz

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Transcriptome response to carbon-limiting conditions.

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Project description:Growth is one of the most fundamental characteristics of life, but detailed knowledge regarding growth at nutrient limiting conditions remains scarce. In recent years progress in microfluidic single-cell analysis and cultivation techniques has given insights into many fundamental growth characteristics such as growth homeostasis, aging and cell division of microbial cells. Using microfluidic single-cell cultivation technologies we examined how single-cell growth at defined carbon conditions, ranging from strongly limiting conditions (0.01 mmol L-1) to a carbon surplus (100 mmol L-1), influenced cell-to-cell variability. The experiments showed robust growth of populations at intermediate concentrations and cell-to-cell variability was higher at low and high carbon concentrations, among an isogenic population. Single-cell growth at extremely limiting conditions led not only to significant variability of division times, but also to an increased number of cells that did not pursue growth. Overall, the results demonstrate that cellular behaviour shows robust, Monod-like growth, with significant cell-to-cell heterogeneity at extreme limiting conditions, resembling natural habitats. Due to this significant influence of the environment on cellular physiology, more carefulness needs to be given future microfluidic single-cell experiments. Consequently, our results lay the foundation for the re-interpretation and design of workflows for future experiments aiming at an improved understanding of cell growth mechanisms.

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Vascular transcription factors control epidermal responses to limiting phosphate conditions

Project description:Vascular transcription factors control epidermal responses to limiting phosphate conditions

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affy_med_2011_14-Transcriptomic analysis of roots of WT (A17) Medicago truncatula plants and of a hypermycorrhizal mutant (B9) grown on limiting (P/10) or non-limiting phosphate (P2).

Project description:affy_med_2011_14 - affy_med_2011_14 - -In natural ecosystems most terrestrial plants form arbuscular mycorrhiza (AM), mutualistic symbioses with soil fungi belonging to the order Glomeromycota. This symbiosis takes place when phosphate is limiting and enables the plant to acquire nutrients (in particular phosphate) in exchange of carbon provided to the fungus A hypermycorrhizal mutant B9 was identified (Morandi et al. Mycorrhiza (2009) 19: 435) which displayed higher root colonization by Glomus intraradices. This phenotype could be linked to a defect in phosphate sensing or transport. We have undertaken the analysis of the root transcriptome of both WT and mutant plants grown on limiting or non-limiting phosphate to determine which processes are affected in the hypermycorrhizal mutant.-- Roots were harvested from 4 week-old WT and B9 mutant plants grown in a culture chamber with limiting (P/10, 130 ÂµM phosphate) or non limiting (P2, 2.6 mM phosphate) phosphate under long days (16 hrs day at 22Â°C with 380 ÂµE.m-2.s-1 light and 8hrs night at 19Â°C). RNAs were then extracted for transcriptomic analysis. We will compare WT (or mutant) root transcriptome on P/10 versus WT (or mutant) root transcriptome on P2 as well as mutant versus WT transcriptome on either P/10 or P2. 12 arrays - Medicago; dose response,gene knock out

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Vascular transcription factors control epidermal responses to limiting phosphate conditions

Project description:Optimal plant growth is hampered by limiting amounts of the essential macronutrient phosphate in most soils. As a response, plant roots produce root hairs to capture this immobile nutrient. Although vital to high-yielding crops, this response remains poorly understood. By generating and exploiting a high spatial and temporal resolution single cell atlas of the Arabidopsis root, we show a remarkable enrichment of TMO5/LHW target genes in root hair epidermal cells. Moreover, these vascular bHLH factors are sufficient to induce a root hair formation response in the epidermal cells, similar as observed during low phosphate conditions, via the downstream cytokinin signaling. We further show that root hair formation under low phosphate conditions is almost absent when TMO5 function or cytokinin signaling is perturbed. In conclusion, cytokinin signaling links the adaptation of roots under low phosphate conditions in the epidermis to perception in vascular cells.

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Autophagy mutants show delayed chloroplast development during de-etiolation in carbon limiting conditions

Project description:Autophagy is a conserved catabolic process that plays an essential role under nutrient starvation condition and influences different developmental processes. We observed that seedlings of autophagy mutants (atg2, atg5, atg7, and atg9) germinated in the dark showed delayed chloroplast development following illumination. The delayed chloroplast development was characterized by a decrease in photosynthetic and chlorophyll biosynthetic proteins, lower chlorophyll content, reduced chloroplast size, and increased levels of proteins involved in lipid biosynthesis. Confirming the biological impact of these differences, photosynthetic performance was impaired in autophagy mutants 12h post illumination. We observed that while gene expression for photosynthetic machinery during de-etiolation was largely unaffected in atg mutants, several genes involved in photosystem assembly were transcriptionally downregulated. We also investigated if the delayed chloroplast development could be explained by lower lipid import to the chloroplast or lower triglyceride (TAG) turnover. We observed that the limitations in the chloroplast lipid import imposed by trigalactosyldiacylglycerol1 are unlikely to explain the delay in chloroplast development. However, we found that lower TAG mobility in the triacylglycerol lipase mutant sugardependent1 significantly affected de-etiolation. Moreover, we showed that lower levels of carbon resources exacerbated the slow-greening phenotype whereas higher levels of carbon resources had an opposite effect. This work suggests a lack of autophagy machinery limits chloroplast development during de-etiolation, and this is exacerbated by limited lipid turnover (lipophagy) that physically or energetically restrains chloroplast development.

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Transcriptomic changes in response to different carbon sources in Neurospora crassa

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