Line 117: | Line 117: | ||
</div> | </div> | ||
<div class="header-subtitle"> | <div class="header-subtitle"> | ||
− | E.coding description | + | E. coding description |
</div> | </div> | ||
</div> | </div> | ||
Line 133: | Line 133: | ||
<div class="contenido"> | <div class="contenido"> | ||
<div class="body-title">Biological System</div> | <div class="body-title">Biological System</div> | ||
+ | Biological systems modeling is the creation of a kinetics diagram that connects all the important species of the system through relationships that represent bio-chemical reactions. | ||
+ | In the case of the E. coding system, the methodology consisted in: | ||
+ | <ul> | ||
+ | <li> The identification of each individual component</li> | ||
+ | <li> Consulting literature on the possible interactions</li> | ||
+ | <li> Creating a kinetic diagram</li> | ||
+ | <li> Establishing the whole differential equations system via biochemical reactions and the eventual message insertion inside our bacteria</li> | ||
+ | </ul> | ||
+ | |||
<div class="body-subtitle">Identification</div> | <div class="body-subtitle">Identification</div> | ||
+ | In the bateria, five precursor species were identified as the ones relevant for the system. These precursors are precisely Cas1 protein, Cas2 protein, the msr-msd (UM from ‘unprocessed message’), the retrotranscriptase (RT) protein, and IPTG (I from 'inductor'). The first four species are produced by IPTG regulated transcription, which has some advantages, mainly the fact that the bacteria is not able to metabolize it, so its concentration does not change. | ||
<div class="body-subtitle">Protein expression</div> | <div class="body-subtitle">Protein expression</div> | ||
<div class="body-subtitle">Complex formation</div> | <div class="body-subtitle">Complex formation</div> |
Revision as of 15:52, 17 October 2018
Mathematical Model
E. coding description
Introduction
The description of our system had a progressive development parallel to the realization of the whole project. Initially, a simple system of linear coupled differential equations was proposed to describe the whole system, but as the understanding of all the aspects the system involves improved, the model was continuously refined to encompass a more suitable description that became both accurate and practical.
Biological System
Biological systems modeling is the creation of a kinetics diagram that connects all the important species of the system through relationships that represent bio-chemical reactions.
In the case of the E. coding system, the methodology consisted in:
- The identification of each individual component
- Consulting literature on the possible interactions
- Creating a kinetic diagram
- Establishing the whole differential equations system via biochemical reactions and the eventual message insertion inside our bacteria
Identification
In the bateria, five precursor species were identified as the ones relevant for the system. These precursors are precisely Cas1 protein, Cas2 protein, the msr-msd (UM from ‘unprocessed message’), the retrotranscriptase (RT) protein, and IPTG (I from 'inductor'). The first four species are produced by IPTG regulated transcription, which has some advantages, mainly the fact that the bacteria is not able to metabolize it, so its concentration does not change.
Protein expression
Complex formation
Complex interactions
Insertion
Differential Equations System
Kinetic diagram
Equations
Parameters
Modified Quasi-Steady State Approximation
Equations
Parameters
Protein Production characterization
Protein Production Model
Equations
Parameters
Predictions
Sudden bulk induction
Expression
Insertions
Initial conditions expansion
Industry induction
Expression
Insertions
Initial conditions expansion