Difference between revisions of "Team:SJTU-BioX-Shanghai/Model"

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                     <div > Why did we model? What did we want to achieve?  </div>
 
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            <FONT SIZE=3> The goals for modeling are firstly to design and optimize the project (how to produce the results), and secondly to simulate and analyze (what the results are and how they are) the expected behaviors in conjunction with experiments in the wetlab. So we calculate the response of lysis protein production in front of <span class="footnote_link">Ara per os
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            <p> The goals for modeling are firstly to design and optimize the project (how to produce the results), and secondly to simulate and analyze (what the results are and how they are) the expected behaviors in conjunction with experiments in the wetlab. So we calculate the response of lysis protein production in front of <span class="footnote_link">Ara per os
 
                  
 
                  
 
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, and modify the gene circuit by introducing attenuator based on calculation. For simulating the locomotion of bacteria in human colorectum, we introduce <span class="footnote_link">young's modulus
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, and modify the gene circuit by introducing attenuator based on calculation. For simulating the locomotion of bacteria in human colorectum, we introduce <span class="footnote_link">Young's modulus
 
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  of bacteria, and simulate its fluid mechanic behavior. We analyse the ultrasonic response of gas vesicles in our device, by firstly build ing the rigid ball model, develop it to covered elastic ball model, and modify the key parameters by experimental results.
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  of bacteria, and simulate its fluid mechanic behavior. We analyse the ultrasonic response of gas vesicles in our device, by firstly build ing the rigid ball model, develop it to covered elastic ball model, and modify the key parameters by experimental results. </p>
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Revision as of 01:14, 18 October 2018

Model Overview

Why did we model? What did we want to achieve?

The goals for modeling are firstly to design and optimize the project (how to produce the results), and secondly to simulate and analyze (what the results are and how they are) the expected behaviors in conjunction with experiments in the wetlab. So we calculate the response of lysis protein production in front of Ara per os oral administration of arabinose , and modify the gene circuit by introducing attenuator based on calculation. For simulating the locomotion of bacteria in human colorectum, we introduce Young's modulus https://en.wikipedia.org/wiki/Young%27s_modulus of bacteria, and simulate its fluid mechanic behavior. We analyse the ultrasonic response of gas vesicles in our device, by firstly build ing the rigid ball model, develop it to covered elastic ball model, and modify the key parameters by experimental results.

Technical description

Tools: SimBiology Toolbox in MATLAB
Context:
1.The regulation of expression of acoustic reporter genes—ARG1 and combined fluorescent signal reporter gene amiGFP is closely related to NO-sensitive promoter. And the density and distribution of NO in gastroenterological microenvironment is crucial to the switch-on/off state of the promoter. We will build a synthetic gene circuit in MATLAB in SimBiology Toolbox , to determine the cut-off value of this switch, for downstream gene expression in a time-dependent manner.

2.In the context of cell lysis gene X174E expression and anti-tumor drug release, we will assist to choose the proper promoter based on their startup parameters, and create negative-feedback control loop for persistent drug production.


Tools: COMSOL Multiphysics
Context:
We perform three simulations in Comsol.
1. Using a single-phase flow Laminar (SPF) model, the steady state parameters are added, the particle tracking model (based on particle size, viscous force, charge number, etc.) is applied to analyze the velocity and probability distribution of particles in laminar flow (PDF).

2. Using the laminar flow model of Multiphase stream (solid-liquid solid), the velocity of particle motion is simulated.

3. Using convection wave equation, time domain explicit (CWE), for different characters and sizes of the bubble protein, as well as different ultrasonic emission power and collapse power, the ultrasonic signal simulation.


Tools: R
Context:

Section3

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