Technology type 'Mass Spectrometry'
Accelerator Mass Spectrometry (0) | Gas Chromatography Mass Spectrometry (7) | Inductively Coupled Plasma Mass Spectrometry (1) | Ion Mobility Spectrometry Mass Spectrometry (0) | Isotope Ratio Mass Spectrometry (4) | Liquid Chromatography-tandom Mass Spectrometry (3) | Liquid Chromatography Mass Spectrometry (3) | MALDI-TOF (0) | Orbitrap Velos (0) | SELDI-TOF (0) | Tandem Mass Spectrometry (2)
Related assays31 Assays visible to you, out of a total of 39
Samples obtained form the central fermentation facility of Sulfosys have been compared using iTRAQ (isobaric tag for relative and absolute quantification). A pilot experiment resulted in creation of SOP and initial data on cells grown at 70 and 80C
Pilot experiment concerning metabolome of S. solfataricus was conducted in order to acquire SOPs regarding the technique and gain insight on differences in metabolite concentrations at 70 and 80C
The task of this assay is to determine the impact of oxygen availability on the concentrations of metabolites from different central metabolic pathways. The focus lies on metabolites connected to glycolysis, tri-carbon-acid-cycle and energy metabolism. All strains have been cultured and analysed according to the SOPs listed below
Dynamics of intracellular metabolites (pyr, suc, fum, mal, akg, pep, g3p, 2pg, 3pg, cit, r5p, f6p, g6p, 6pg, ATP, ADP, AMP, UTP, GTP, inosine, NAD+, IMP, UDP, NADP+, CTP, AdenyloSuccinate, NADPH, trehalose) during glucose pulse. Glucose pulse was performed in anaerobically growing yeast Saccharomyces cerevisiae in steady state chemostat (D = 0.1 h-1) and transent concentrations of the extra- and intracellular metabolites from central carbon metabolism (e.g. glycolysis, PPP, glycerol, purines,
Absolute quantification of proteins using heavy labeled QconCAT as an internal standard and quantifying the native proteins in the complex sample via scheduled Multiple Reaction Monitoring(MRM) .
In order to construct an in vivo-like buffer for S. pyogenes, the intracellular concentrations of Fe, K, Mg, Mn Na, P and S elements were determined via ICP-AES (inductively coupled plasma atomic emissionspectroscopy) method at the Institute of Land Use, University of Rostock. The samples for the analysis were obtained from a steady state culture grown on CDM-LAB with glucose.
This assay is for method development to quantify intra- and extra-cellular metabolites on T. brucei 427 bloodstream form using isotope ratio based MS technique with 13C-labelled E. coli extract
Intracellular metabolites in T. brucei at different stage of cell growth have been quantified absolutely by isotope ratio based MS technique using uniformly 13C-labelled E. coli extract. This is the case study for method development of absolute quantification for metabolic flux analysis.
26 intracellular metabolites (amino acids, polyamines, TCA intermediates) in T. brucei exposed to methylene blue have been absolutely quantified using isotope ratio based MS technique.
26 intracellular metabolites (amino acids, polyamines, TCA intermediates) in T. brucei under pH stress (pH8.7) have been absolutely quantified using isotope ratio based MS technique.
Extracellular metabolites in T. brucei at different stage of cell growth have been quantified absolutely by isotope ratio based MS technique using uniformly 13C-labelled E. coli extract. This is the case study for method development of absolute quantification for metabolic flux analysis.
The same plant material used for transcriptome analysis in (Flis et al., 2016) was the basis of our proteome study. Briefly, Arabidopsis thaliana Col-0 plants were grown on GS 90 soil mixed in a ratio 2:1 (v/v) with vermiculite. Plants were grown for 1 week in a 16 h light (250 μmol m−2 s−1, 20 °C)/8 h dark (6 °C) regime followed by an 8 h light (160 μmol m−2 s−1, 20 °C)/16 h dark (16 °C) regime for one week. Plants were then replanted with five seedlings per pot, transferred for