Biological problem addressed 'Metabolic Network'

Parents Model Analysis Type
Current Biological problem addressed Metabolic Network
Children No child terms

Related assays

11 Assays visible to you, out of a total of 14
No description specified

Contributor: Jay Moore

Biological problem addressed: Metabolic Network

Snapshots: No snapshots

Time-dependent simulations of the dynamic switch between acidogenesis and solventogenesis based on the metabolic network and pH-dependent regulation of the enzymes.

Contributor: Sara Jabbari

Biological problem addressed: Metabolic Network

Snapshots: No snapshots

The dynamic model describes response of yeast metabolic network on metabolic perturbation (i.e. glucose-pulse). One compartmental ODE-based model of yeast anaerobic metabolism includes: glycolysis, pentose phosphate reactions, purine de novo synthesis pathway, purine salvage reactions, redox reactions and biomass growth. The model describes metabolic perturbation of steady state growing cells in chemostat.

- Comparison of metabolic flux distribution in carbon core metabolism (EMP, PPP, TCA) of Bacillus subtilis under 3 different conditions: "salt-free" reference, "stress" chemostat, "osmoprotected" chemostat.
- Model created using OpenFLUX and Microsoft Excel
- Model computed using MatLAB

Metabolic network of S. pyogenes including primary metabolism, polysaccharide metabolism, purine and pyrimidine biosoynthesis, teichoic acid biosynthesis, fatty acid and phospholipid bioynthesis, amino acid metabolism, vitamins and cofactors

Contributor: Jennifer Levering

Biological problem addressed: Metabolic Network

Snapshots: No snapshots

Metabolic network of Enterococcus faecalis including primary metabolism, polysaccharide metabolism, purine and pyrimidine biosoynthesis, teichoic acid biosynthesis, fatty acid and phospholipid bioynthesis, amino acid metabolism, vitamins and cofactors

Contributor: Nadine Veith

Biological problem addressed: Metabolic Network

Snapshots: No snapshots

The model describes the behaviour of E. coli in a stationary chemostat with different oxygen availability.

In vitro reconstitution of the PGK, GAPHD, TPI and FBPAase enzymes from S. solfataricus

Model prediction of the conversion of 3PG to fructose-6-phosphate and the gluconeogenic pathway intermediates.
https://jjj.bio.vu.nl/models/experiments/kouril3_experiment-user/simulate

Genome scale metabolic model of Sulfolobus solfataricus
specific scenario: modelling of L-fucose degradation pathways

Contributor: Jacqueline Wolf

Biological problem addressed: Metabolic Network

Snapshots: No snapshots

The multi-compartmental metabolic network of Arabidopsis thaliana was reconstructed and optimized in order to explain growth stoichiometry of the plant both in light and in dark conditions. Balances and turnover of energy (ATP/ADP) and redox (NAD(P)H/NAD(P)) metabolites as well as proton in different compartments were estimated. The model showed that in light conditions, the plastid ATP balance depended on the relationship between fluxes through photorespiration and photosynthesis including both
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