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| [[http://Mudsharkstatic.brookes.ac.uk/Pune2016/P1/DiacSynth.spy|Diacetyl synthesis model]] | === Introduction === In this practical we will investigate the general structural properites of the photosynthetic Calvin Cycle (see Slide 7 from the first talk) and seek to answer a specific question that is hard to answer simply by looking at the network diagram: "how can starch degradation act as a carbon source to generate triose phosphate?" |
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| [[http://Mudsharkstatic.brookes.ac.uk/Pune2016/P1/Calvin.spy|Calvin cycle model]] | === Methods === ==== Part 1: ==== 1. [[http://Mudsharkstatic.brookes.ac.uk/Pune2016/P1/Calvin.spy|Download]] the Calvin cycle model. 1. Start !ScrumPy and load the model: 1. {{{>>> m = ScrumPy.Model("Calvin.spy")}}} 1. Locate the reactions and metabolites in the model on the network diagram. 1. As far as possible, identify the routes by which triose phosphate species may be identified. |
Practical 1 - Structural Properties of the Calvin Cycle and Diacetyl Synthesis
Introduction
In this practical we will investigate the general structural properites of the photosynthetic Calvin Cycle (see Slide 7 from the first talk) and seek to answer a specific question that is hard to answer simply by looking at the network diagram: "how can starch degradation act as a carbon source to generate triose phosphate?"
Methods
Part 1:
Download the Calvin cycle model.
Start ScrumPy and load the model:
>>> m = ScrumPy.Model("Calvin.spy")
- Locate the reactions and metabolites in the model on the network diagram.
- As far as possible, identify the routes by which triose phosphate species may be identified.