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<li>it does not require to move the different modules, reducing the complexity of the system.</ul></p> | <li>it does not require to move the different modules, reducing the complexity of the system.</ul></p> | ||
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− | If you want to jump ahead to one of those modules, feel free to click on them !</p> | + | If you want to jump ahead to one of those modules, feel free to click on them !</center></p> |
<img src="https://static.igem.org/mediawiki/2018/c/ce/T--Grenoble-Alpes--eng_bg.jpg" id="schema"> | <img src="https://static.igem.org/mediawiki/2018/c/ce/T--Grenoble-Alpes--eng_bg.jpg" id="schema"> |
Revision as of 12:06, 8 October 2018
Template loop detected: Template:Grenoble-Alpes
ENGINEERING
- In order to fully automate the whole biological process we need to be able to perform 4 main actions :
- we need to pipette liquid in and out of Eppendorf tubes
- we need to heat and cool samples
- we need to extract DNA after the lysis step
- we need to measure the fluorescence at the end of the process in order to know the results of our diagnostic
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To control those actions we use:
- an Arduino microcontroller to handle the different electronic components
- a raspberry pi (a very small and cheap computer) to display the results and interact with the user
The whole process takes place in a structure made of aluminum and Plexiglas. The samples, buffers and pipette tips are placed on a central rotating plate that moves thanks to a motor controlled via our Arduino.
This circular structure is very convenient as:
- it optimizes the space used
- it does not require to move the different modules, reducing the complexity of the system.