Full-scale gas biodesulfurization installation from Indonesia
Ontology highlight
ABSTRACT:
PROVIDER: PRJEB32000 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| ERR3261718_1.fastq.gz | Fastqsanger.gz | |||
| ERR3261718_2.fastq.gz | Fastqsanger.gz | |||
| ERR3261719_1.fastq.gz | Fastqsanger.gz | |||
| ERR3261719_2.fastq.gz | Fastqsanger.gz |
Items per page: 5 1 - 4 of 4 |
Similar Datasets
Project description:Selection and application of sulfide oxidizing microorganisms able to withstand thiols in gas biodesulfurization systems
| PRJEB14146 | ENA
Project description:Acetogens are promising cell factories for producing fuels and chemicals from waste feedstocks via gas fermentation, but quantitative characterization of carbon, energy, and redox metabolism is required to guide their rational metabolic engineering. Here, we explore acetogen gas fermentation using physiological, metabolomics, and transcriptomics data for Clostridium autoethanogenum steady-state chemostat cultures grown on syngas at various gas-liquid mass transfer rates. We observe that C. autoethanogenum shifts from acetate to ethanol production to maintain ATP homeostasis at higher biomass concentrations but reaches a limit at a molar acetate/ethanol ratio of ∼1. This regulatory mechanism eventually leads to depletion of the intracellular acetyl-CoA pool and collapse of metabolism. We accurately predict growth phenotypes using a genome-scale metabolic model. Modeling revealed that the methylene-THF reductase reaction was ferredoxin reducing. This work provides a reference dataset to advance the understanding and engineering of arguably the first carbon fixation pathway on Earth.
2017-05-22 | GSE90792 | GEO
Project description:Comparative analysis of microbial composition of Biodesulfurization plants
| PRJEB43104 | ENA
Project description:Microbial community analyzes of the bacterial samples taken from the lab-scale gas biodesulfurization system
| PRJEB32001 | ENA
Project description:GAS strains were grown in THY broth to early exponential phase and RNA extracted. cDNA was generated and the expression profiles were determined using the RMLgenechip. Comparisons between the sample groups allow the identification of genes differentially expressed between strains. This experiment compared pre- and post- mouse passaged GAS strains. Keywords: GAS comparison
2006-02-01 | GSE3899 | GEO
Project description:Microbial composition analysis for five full-scale biodesulfurization plants
| PRJEB43514 | ENA
Project description:The increasing global human population has been associated with the development of high-density urban communities. This has led to increase in fossil energy consumption and posed serious threats to the environment and human health. Organosulfur compounds found in crude oil and transportation fuels such as diesel have gained strong attention because they are hazardous to human and the ecosystem. Moreover, the sulfur oxide gases resulting from fuel combustion are a major cause of acid rain. Governments and environmental organizations worldwide have recognized the problem and implemented strict regulations and legislations that limit the amount of sulfur in diesel. Hydrodesulphurization (HDS) is commonly used by oil refineries to reduce sulfur content in refined fuels. However, HDS has many disadvantages. It is costly, environmentally polluting, and not sufficiently efficient. Accordingly, there has been increasing interest in the development of alternative desulfurization technologies to circumvent the problems associated with the conventional HDS. Biodesulfurization (BDS) has emerged as an alternative or a complement technology to overcome the drawbacks of the conventional HDS. BDS exploits the ability of dedicated microorganisms to remove sulfur from many organosulfur compounds that are commonly found in crude oil and refined fuels. As compared to thermochemical treatments like HDS, BDS is environmentally friendly, cost-effective and active towards organosulfur compounds that escape the conventional HDS. Nonetheless, lack of deep understanding of the physiology and metabolism, particularly sulfur metabolism, of biodesulfurizing microbes has impeded the development and implementation of a commercially viable BDS process. In this project, we apply metabolomics and proteomics to better understand the physiological adaptations and sulfur metabolism of in a model biodesulfurization-competent strain Rhodococcus qingshengii IGTS8.
2021-08-09 | PXD021362 | Pride
Project description:Living biological systems display a fascinating ability to self-organise their metabolism. This ability ultimately determines metabolic robustness that is fundamental to control cellular behaviour. However, fluctuations in metabolism can affect cellular homeostasis through transient oscillations. For example, yeast cultures exhibit rhythmic oscillatory behaviour in high-cell density continuous cultures. Oscillatory behaviour provides a unique opportunity for quantitating the robustness of metabolism, as cells respond to changes by inherently compromising metabolic efficiency. Here, we quantify the limits of metabolic robustness in self-oscillating autotrophic continuous cultures of the gas-fermenting acetogen Clostridium autoethanogenum. On-line gas analysis and high-resolution temporal metabolomics showed oscillations in gas uptake rates and extracellular by-products synchronised with biomass levels. Loss of H2 uptake makes CO the sole carbon and energy source until cells recover uptake of H2 in synchrony with increasing biomass levels. Intriguingly, oscillations are not linked to translational control as no differences were observed in protein expression during oscillations. However, intracellular metabolomics analysis revealed decreasing levels of redox ratios in perfect synchrony with the cycles. Therefore, we developed a thermodynamic metabolic flux analysis (tMFA) model to investigate if regulation in acetogens is controlled at the thermodynamic level. The data shows that the feasible range for the thermodynamic driving force of the Nfn transhydrogenase complex (i.e. NADH/NAD+×NADP+/NADPH) closely matched the experimentally observed range. The data indicate that metabolic oscillations in gas fermentation acetogens are controlled at the thermodynamic level. Our work suggests thermodynamic control of metabolism, potentially contributing to metabolic efficiency and working as a mean of energy conservation.
2020-05-18 | PXD016381 | Pride
Project description:GAS is a highly virulent Gram-positive bacterium. For the successful infection GAS express many virulence factors, which are clustered together with transcriptional regulators in distinct genomic regions. Ralp3 is a central regulator of the ERES region. In this study, we investigated the role of Ralp3 in GAS pathogenesis. To characterize the Ralp3 regulatory function on the whole genome level, GAS M49 wild type and Äralp3 mutant strains were comprehensively compared by two colour microarray analysis. Samples were taken from cultures in the transition phase.
2011-07-05 | GSE30397 | GEO
Project description:GAS is a highly virulent Gram-positive bacterium. For the successful infection GAS express many virulence factors, which are clustered together with transcriptional regulators in distinct genomic regions. Ralp3 is a central regulator of the ERES region. In this study, we investigated the role of Ralp3 in GAS pathogenesis. To characterize the Ralp3 regulatory function on the whole genome level, GAS M49 wild type and Äralp3 mutant strains were comprehensively compared by two colour microarray analysis. Samples were taken from cultures in the transition phase. One condition experiment, wild type vs Δralp3. Biological replicates: 4 wild type and 4 mutant replicates per array.
2011-07-05 | E-GEOD-30397 | biostudies-arrayexpress