# Biological problem addressed 'Model Analysis Type'

Model Analysis Type

Cell Cycle (0) | Enzymology (0) | Gene Expression (0) | Gene Regulatory Network (0) | Genome Scale (0) | Metabolic Network (1) | Metabolic Redesign (0) | Metabolism (3) | Post Translational Modification (0) | Signal Induction (0) | Stress Response (0) | Translation (0)

## Related assays

**12**Assays visible to you, out of a total of

**21**

Glycolysis in Saccharomyces cerevisiae

**Scales:**
Not specified

Detailed glycolytic model in Lactococcus lactis

**Contributor**: Katy Wolstencroft

**Biological problem addressed**: Metabolic Network

**Snapshots: **No snapshots

**Scales:**
Not specified

A kinetic model of the glycerol synthesis pathway has been constructed. Kinetic parameters were collected from published values. Maximal enzyme activities and intracellular effector concentrations were determined experimentally.

**Scales:**
Not specified

The temperature dependent degradation of DHAP and GAP is modelled as an exponential decay process using experimental data for the disintegration at 70C.

**Scales:**
Not specified

Mathematical model for FBPAase kinetics, saturation of GAP and DHAP

**Scales:**
Not specified

Mathematical model for PGK kinetics, saturation with ADP, ATP, 3PG and BPG.

**Scales:**
Not specified

Mathematical model for GAPDH kinetics, saturation of GAP, BPG, NADP, NADPH and Pi.

**Scales:**
Not specified

Mathematical model for TPI kinetics, saturation of GAP and DHAP.

**Scales:**
Not specified

Mathematical model for the analysis of carbon loss of BPG, GAP and DHAP in reconstituted system of S. solfataricus at 70C.

**Scales:**
Not specified

Mathematical model for the reconstituted system with PGK, GAPDH, TPI and FBPAase.

**Scales:**
Not specified

Varying the relative amounts of PGK and FBPAase and analyse the 3PG uptake and F6P production rates.

**Scales:**
Not specified